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5 Commits

Author SHA1 Message Date
evenyag
3d78113c22 feat: reduce rows returned 2025-03-14 00:35:19 +08:00
evenyag
9ee50dae6d feat: push down tag distinct 2025-03-14 00:35:00 +08:00
evenyag
fa57df9dc2 feat: use tag only reader 2025-03-13 23:07:37 +08:00
evenyag
f935921831 feat: tags only reader 2025-03-13 23:01:39 +08:00
evenyag
7f7d431cd8 feat: tag only distinct hint wip 2025-03-13 16:09:54 +08:00
2423 changed files with 78358 additions and 316459 deletions

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@@ -2,7 +2,7 @@
linker = "aarch64-linux-gnu-gcc"
[alias]
sqlness = "run --bin sqlness-runner --target-dir target/sqlness --"
sqlness = "run --bin sqlness-runner --"
[unstable.git]
shallow_index = true
@@ -12,6 +12,3 @@ fetch = true
checkout = true
list_files = true
internal_use_git2 = false
[env]
CARGO_WORKSPACE_DIR = { value = "", relative = true }

15
.coderabbit.yaml Normal file
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@@ -0,0 +1,15 @@
# yaml-language-server: $schema=https://coderabbit.ai/integrations/schema.v2.json
language: "en-US"
early_access: false
reviews:
profile: "chill"
request_changes_workflow: false
high_level_summary: true
poem: true
review_status: true
collapse_walkthrough: false
auto_review:
enabled: false
drafts: false
chat:
auto_reply: true

24
.github/CODEOWNERS vendored
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@@ -4,24 +4,24 @@
* @GreptimeTeam/db-approver
## [Module] Database Engine
/src/index @evenyag @discord9 @WenyXu
## [Module] Databse Engine
/src/index @zhongzc
/src/mito2 @evenyag @v0y4g3r @waynexia
/src/query @evenyag @waynexia @discord9
/src/query @evenyag
## [Module] Distributed
/src/common/meta @MichaelScofield @WenyXu
/src/common/procedure @MichaelScofield @WenyXu
/src/meta-client @MichaelScofield @WenyXu
/src/meta-srv @MichaelScofield @WenyXu
/src/common/meta @MichaelScofield
/src/common/procedure @MichaelScofield
/src/meta-client @MichaelScofield
/src/meta-srv @MichaelScofield
## [Module] Write Ahead Log
/src/log-store @v0y4g3r @WenyXu
/src/store-api @v0y4g3r @evenyag
/src/log-store @v0y4g3r
/src/store-api @v0y4g3r
## [Module] Metrics Engine
/src/metric-engine @waynexia @WenyXu
/src/promql @waynexia @evenyag @discord9
/src/metric-engine @waynexia
/src/promql @waynexia
## [Module] Flow
/src/flow @discord9 @waynexia
/src/flow @zhongzc @waynexia

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@@ -32,23 +32,9 @@ inputs:
description: Image Registry
required: false
default: 'docker.io'
large-page-size:
description: Build GreptimeDB with large page size (65536).
required: false
default: 'false'
runs:
using: composite
steps:
- name: Set extra build environment variables
shell: bash
run: |
if [[ '${{ inputs.large-page-size }}' == 'true' ]]; then
echo 'EXTRA_BUILD_ENVS="JEMALLOC_SYS_WITH_LG_PAGE=16"' >> $GITHUB_ENV
else
echo 'EXTRA_BUILD_ENVS=' >> $GITHUB_ENV
fi
- name: Build greptime binary
shell: bash
if: ${{ inputs.build-android-artifacts == 'false' }}
@@ -59,8 +45,7 @@ runs:
FEATURES=${{ inputs.features }} \
BASE_IMAGE=${{ inputs.base-image }} \
IMAGE_NAMESPACE=${{ inputs.image-namespace }} \
IMAGE_REGISTRY=${{ inputs.image-registry }} \
EXTRA_BUILD_ENVS=$EXTRA_BUILD_ENVS
IMAGE_REGISTRY=${{ inputs.image-registry }}
- name: Upload artifacts
uses: ./.github/actions/upload-artifacts

View File

@@ -27,10 +27,6 @@ inputs:
description: Working directory to build the artifacts
required: false
default: .
large-page-size:
description: Build GreptimeDB with large page size (65536).
required: false
default: 'false'
runs:
using: composite
steps:
@@ -56,14 +52,13 @@ runs:
uses: ./.github/actions/build-greptime-binary
with:
base-image: ubuntu
features: servers/dashboard
features: servers/dashboard,pg_kvbackend,mysql_kvbackend
cargo-profile: ${{ inputs.cargo-profile }}
artifacts-dir: greptime-linux-${{ inputs.arch }}-${{ inputs.version }}
version: ${{ inputs.version }}
working-dir: ${{ inputs.working-dir }}
image-registry: ${{ inputs.image-registry }}
image-namespace: ${{ inputs.image-namespace }}
large-page-size: ${{ inputs.large-page-size }}
- name: Clean up the target directory # Clean up the target directory for the centos7 base image, or it will still use the objects of last build.
shell: bash
@@ -75,14 +70,13 @@ runs:
if: ${{ inputs.arch == 'amd64' && inputs.dev-mode == 'false' }} # Builds greptime for centos if the host machine is amd64.
with:
base-image: centos
features: servers/dashboard
features: servers/dashboard,pg_kvbackend,mysql_kvbackend
cargo-profile: ${{ inputs.cargo-profile }}
artifacts-dir: greptime-linux-${{ inputs.arch }}-centos-${{ inputs.version }}
version: ${{ inputs.version }}
working-dir: ${{ inputs.working-dir }}
image-registry: ${{ inputs.image-registry }}
image-namespace: ${{ inputs.image-namespace }}
large-page-size: ${{ inputs.large-page-size }}
- name: Build greptime on android base image
uses: ./.github/actions/build-greptime-binary
@@ -95,4 +89,3 @@ runs:
build-android-artifacts: true
image-registry: ${{ inputs.image-registry }}
image-namespace: ${{ inputs.image-namespace }}
large-page-size: ${{ inputs.large-page-size }}

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@@ -47,6 +47,7 @@ runs:
shell: pwsh
run: make test sqlness-test
env:
RUSTUP_WINDOWS_PATH_ADD_BIN: 1 # Workaround for https://github.com/nextest-rs/nextest/issues/1493
RUST_BACKTRACE: 1
SQLNESS_OPTS: "--preserve-state"

View File

@@ -64,11 +64,11 @@ inputs:
upload-max-retry-times:
description: Max retry times for uploading artifacts to S3
required: false
default: "30"
default: "20"
upload-retry-timeout:
description: Timeout for uploading artifacts to S3
required: false
default: "120" # minutes
default: "30" # minutes
runs:
using: composite
steps:

View File

@@ -12,7 +12,7 @@ runs:
steps:
- name: Install Etcd cluster
shell: bash
run: |
run: |
helm upgrade \
--install etcd oci://registry-1.docker.io/bitnamicharts/etcd \
--set replicaCount=${{ inputs.etcd-replicas }} \
@@ -24,9 +24,4 @@ runs:
--set auth.rbac.token.enabled=false \
--set persistence.size=2Gi \
--create-namespace \
--set global.security.allowInsecureImages=true \
--set image.registry=docker.io \
--set image.repository=greptime/etcd \
--set image.tag=3.6.1-debian-12-r3 \
--version 12.0.8 \
-n ${{ inputs.namespace }}

View File

@@ -8,15 +8,15 @@ inputs:
default: 2
description: "Number of Datanode replicas"
meta-replicas:
default: 2
default: 1
description: "Number of Metasrv replicas"
image-registry:
image-registry:
default: "docker.io"
description: "Image registry"
image-repository:
image-repository:
default: "greptime/greptimedb"
description: "Image repository"
image-tag:
image-tag:
default: "latest"
description: 'Image tag'
etcd-endpoints:
@@ -32,12 +32,12 @@ runs:
steps:
- name: Install GreptimeDB operator
uses: nick-fields/retry@v3
with:
with:
timeout_minutes: 3
max_attempts: 3
shell: bash
command: |
helm repo add greptime https://greptimeteam.github.io/helm-charts/
helm repo add greptime https://greptimeteam.github.io/helm-charts/
helm repo update
helm upgrade \
--install \
@@ -48,10 +48,10 @@ runs:
--wait-for-jobs
- name: Install GreptimeDB cluster
shell: bash
run: |
run: |
helm upgrade \
--install my-greptimedb \
--set 'meta.backendStorage.etcd.endpoints[0]=${{ inputs.etcd-endpoints }}' \
--set meta.etcdEndpoints=${{ inputs.etcd-endpoints }} \
--set meta.enableRegionFailover=${{ inputs.enable-region-failover }} \
--set image.registry=${{ inputs.image-registry }} \
--set image.repository=${{ inputs.image-repository }} \
@@ -59,7 +59,7 @@ runs:
--set base.podTemplate.main.resources.requests.cpu=50m \
--set base.podTemplate.main.resources.requests.memory=256Mi \
--set base.podTemplate.main.resources.limits.cpu=2000m \
--set base.podTemplate.main.resources.limits.memory=3Gi \
--set base.podTemplate.main.resources.limits.memory=2Gi \
--set frontend.replicas=${{ inputs.frontend-replicas }} \
--set datanode.replicas=${{ inputs.datanode-replicas }} \
--set meta.replicas=${{ inputs.meta-replicas }} \
@@ -72,7 +72,7 @@ runs:
- name: Wait for GreptimeDB
shell: bash
run: |
while true; do
while true; do
PHASE=$(kubectl -n my-greptimedb get gtc my-greptimedb -o jsonpath='{.status.clusterPhase}')
if [ "$PHASE" == "Running" ]; then
echo "Cluster is ready"
@@ -86,10 +86,10 @@ runs:
- name: Print GreptimeDB info
if: always()
shell: bash
run: |
run: |
kubectl get all --show-labels -n my-greptimedb
- name: Describe Nodes
if: always()
shell: bash
run: |
run: |
kubectl describe nodes

View File

@@ -1,20 +1,14 @@
logging:
level: "info"
format: "json"
filters:
- log_store=debug
meta:
configData: |-
[runtime]
global_rt_size = 4
[wal]
provider = "kafka"
broker_endpoints = ["kafka.kafka-cluster.svc.cluster.local:9092"]
num_topics = 3
auto_prune_interval = "30s"
trigger_flush_threshold = 100
[datanode]
[datanode.client]
timeout = "120s"
@@ -27,7 +21,7 @@ datanode:
[wal]
provider = "kafka"
broker_endpoints = ["kafka.kafka-cluster.svc.cluster.local:9092"]
overwrite_entry_start_id = true
linger = "2ms"
frontend:
configData: |-
[runtime]

View File

@@ -12,7 +12,7 @@ runs:
steps:
- name: Install Kafka cluster
shell: bash
run: |
run: |
helm upgrade \
--install kafka oci://registry-1.docker.io/bitnamicharts/kafka \
--set controller.replicaCount=${{ inputs.controller-replicas }} \
@@ -23,8 +23,4 @@ runs:
--set listeners.controller.protocol=PLAINTEXT \
--set listeners.client.protocol=PLAINTEXT \
--create-namespace \
--set image.registry=docker.io \
--set image.repository=greptime/kafka \
--set image.tag=3.9.0-debian-12-r1 \
--version 31.0.0 \
-n ${{ inputs.namespace }}

View File

@@ -6,7 +6,9 @@ inputs:
description: "Number of PostgreSQL replicas"
namespace:
default: "postgres-namespace"
description: "The PostgreSQL namespace"
postgres-version:
default: "14.2"
description: "PostgreSQL version"
storage-size:
default: "1Gi"
description: "Storage size for PostgreSQL"
@@ -20,11 +22,7 @@ runs:
helm upgrade \
--install postgresql oci://registry-1.docker.io/bitnamicharts/postgresql \
--set replicaCount=${{ inputs.postgres-replicas }} \
--set global.security.allowInsecureImages=true \
--set image.registry=docker.io \
--set image.repository=greptime/postgresql \
--set image.tag=17.5.0-debian-12-r3 \
--version 16.7.4 \
--set image.tag=${{ inputs.postgres-version }} \
--set persistence.size=${{ inputs.storage-size }} \
--set postgresql.username=greptimedb \
--set postgresql.password=admin \

15
.github/labeler.yaml vendored
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@@ -1,15 +0,0 @@
ci:
- changed-files:
- any-glob-to-any-file: .github/**
docker:
- changed-files:
- any-glob-to-any-file: docker/**
documentation:
- changed-files:
- any-glob-to-any-file: docs/**
dashboard:
- changed-files:
- any-glob-to-any-file: grafana/**

View File

@@ -1,42 +0,0 @@
#!/bin/bash
# Get current version
CURRENT_VERSION=$1
if [ -z "$CURRENT_VERSION" ]; then
echo "Error: Failed to get current version"
exit 1
fi
# Get the latest version from GitHub Releases
API_RESPONSE=$(curl -s "https://api.github.com/repos/GreptimeTeam/greptimedb/releases/latest")
if [ -z "$API_RESPONSE" ] || [ "$(echo "$API_RESPONSE" | jq -r '.message')" = "Not Found" ]; then
echo "Error: Failed to fetch latest version from GitHub"
exit 1
fi
# Get the latest version
LATEST_VERSION=$(echo "$API_RESPONSE" | jq -r '.tag_name')
if [ -z "$LATEST_VERSION" ] || [ "$LATEST_VERSION" = "null" ]; then
echo "Error: No valid version found in GitHub releases"
exit 1
fi
# Cleaned up version number format (removed possible 'v' prefix and -nightly suffix)
CLEAN_CURRENT=$(echo "$CURRENT_VERSION" | sed 's/^v//' | sed 's/-nightly-.*//')
CLEAN_LATEST=$(echo "$LATEST_VERSION" | sed 's/^v//' | sed 's/-nightly-.*//')
echo "Current version: $CLEAN_CURRENT"
echo "Latest release version: $CLEAN_LATEST"
# Use sort -V to compare versions
HIGHER_VERSION=$(printf "%s\n%s" "$CLEAN_CURRENT" "$CLEAN_LATEST" | sort -V | tail -n1)
if [ "$HIGHER_VERSION" = "$CLEAN_CURRENT" ]; then
echo "Current version ($CLEAN_CURRENT) is NEWER than or EQUAL to latest ($CLEAN_LATEST)"
echo "is-current-version-latest=true" >> $GITHUB_OUTPUT
else
echo "Current version ($CLEAN_CURRENT) is OLDER than latest ($CLEAN_LATEST)"
echo "is-current-version-latest=false" >> $GITHUB_OUTPUT
fi

View File

@@ -8,25 +8,24 @@ set -e
# - If it's a nightly build, the version is 'nightly-YYYYMMDD-$(git rev-parse --short HEAD)', like 'nightly-20230712-e5b243c'.
# create_version ${GIHUB_EVENT_NAME} ${NEXT_RELEASE_VERSION} ${NIGHTLY_RELEASE_PREFIX}
function create_version() {
# Read from environment variables.
# Read from envrionment variables.
if [ -z "$GITHUB_EVENT_NAME" ]; then
echo "GITHUB_EVENT_NAME is empty" >&2
echo "GITHUB_EVENT_NAME is empty"
exit 1
fi
if [ -z "$NEXT_RELEASE_VERSION" ]; then
echo "NEXT_RELEASE_VERSION is empty, use version from Cargo.toml" >&2
# NOTE: Need a `v` prefix for the version string.
export NEXT_RELEASE_VERSION=v$(grep '^version = ' Cargo.toml | cut -d '"' -f 2 | head -n 1)
echo "NEXT_RELEASE_VERSION is empty"
exit 1
fi
if [ -z "$NIGHTLY_RELEASE_PREFIX" ]; then
echo "NIGHTLY_RELEASE_PREFIX is empty" >&2
echo "NIGHTLY_RELEASE_PREFIX is empty"
exit 1
fi
# Reuse $NEXT_RELEASE_VERSION to identify whether it's a nightly build.
# It will be like 'nightly-20230808-7d0d8dc6'.
# It will be like 'nigtly-20230808-7d0d8dc6'.
if [ "$NEXT_RELEASE_VERSION" = nightly ]; then
echo "$NIGHTLY_RELEASE_PREFIX-$(date "+%Y%m%d")-$(git rev-parse --short HEAD)"
exit 0
@@ -36,7 +35,7 @@ function create_version() {
# It will be like 'dev-2023080819-f0e7216c'.
if [ "$NEXT_RELEASE_VERSION" = dev ]; then
if [ -z "$COMMIT_SHA" ]; then
echo "COMMIT_SHA is empty in dev build" >&2
echo "COMMIT_SHA is empty in dev build"
exit 1
fi
echo "dev-$(date "+%Y%m%d-%s")-$(echo "$COMMIT_SHA" | cut -c1-8)"
@@ -46,35 +45,24 @@ function create_version() {
# Note: Only output 'version=xxx' to stdout when everything is ok, so that it can be used in GitHub Actions Outputs.
if [ "$GITHUB_EVENT_NAME" = push ]; then
if [ -z "$GITHUB_REF_NAME" ]; then
echo "GITHUB_REF_NAME is empty in push event" >&2
echo "GITHUB_REF_NAME is empty in push event"
exit 1
fi
# For tag releases, ensure GITHUB_REF_NAME matches the version in Cargo.toml
CARGO_VERSION=$(grep '^version = ' Cargo.toml | cut -d '"' -f 2 | head -n 1)
EXPECTED_REF_NAME="v${CARGO_VERSION}"
if [ "$GITHUB_REF_NAME" != "$EXPECTED_REF_NAME" ]; then
echo "Error: GITHUB_REF_NAME '$GITHUB_REF_NAME' does not match Cargo.toml version 'v${CARGO_VERSION}'" >&2
echo "Expected tag name: '$EXPECTED_REF_NAME'" >&2
exit 1
fi
echo "$GITHUB_REF_NAME"
elif [ "$GITHUB_EVENT_NAME" = workflow_dispatch ]; then
echo "$NEXT_RELEASE_VERSION-$(git rev-parse --short HEAD)-$(date "+%Y%m%d-%s")"
elif [ "$GITHUB_EVENT_NAME" = schedule ]; then
echo "$NEXT_RELEASE_VERSION-$NIGHTLY_RELEASE_PREFIX-$(date "+%Y%m%d")"
else
echo "Unsupported GITHUB_EVENT_NAME: $GITHUB_EVENT_NAME" >&2
echo "Unsupported GITHUB_EVENT_NAME: $GITHUB_EVENT_NAME"
exit 1
fi
}
# You can run as following examples:
# GITHUB_EVENT_NAME=push NEXT_RELEASE_VERSION=v0.4.0 NIGHTLY_RELEASE_PREFIX=nightly GITHUB_REF_NAME=v0.3.0 ./create-version.sh
# GITHUB_EVENT_NAME=workflow_dispatch NEXT_RELEASE_VERSION=v0.4.0 NIGHTLY_RELEASE_PREFIX=nightly ./create-version.sh
# GITHUB_EVENT_NAME=schedule NEXT_RELEASE_VERSION=v0.4.0 NIGHTLY_RELEASE_PREFIX=nightly ./create-version.sh
# GITHUB_EVENT_NAME=schedule NEXT_RELEASE_VERSION=nightly NIGHTLY_RELEASE_PREFIX=nightly ./create-version.sh
# GITHUB_EVENT_NAME=workflow_dispatch COMMIT_SHA=f0e7216c4bb6acce9b29a21ec2d683be2e3f984a NEXT_RELEASE_VERSION=dev NIGHTLY_RELEASE_PREFIX=nightly ./create-version.sh
# GITHUB_EVENT_NAME=push NEXT_RELEASE_VERSION=v0.4.0 NIGHTLY_RELEASE_PREFIX=nigtly GITHUB_REF_NAME=v0.3.0 ./create-version.sh
# GITHUB_EVENT_NAME=workflow_dispatch NEXT_RELEASE_VERSION=v0.4.0 NIGHTLY_RELEASE_PREFIX=nigtly ./create-version.sh
# GITHUB_EVENT_NAME=schedule NEXT_RELEASE_VERSION=v0.4.0 NIGHTLY_RELEASE_PREFIX=nigtly ./create-version.sh
# GITHUB_EVENT_NAME=schedule NEXT_RELEASE_VERSION=nightly NIGHTLY_RELEASE_PREFIX=nigtly ./create-version.sh
# GITHUB_EVENT_NAME=workflow_dispatch COMMIT_SHA=f0e7216c4bb6acce9b29a21ec2d683be2e3f984a NEXT_RELEASE_VERSION=dev NIGHTLY_RELEASE_PREFIX=nigtly ./create-version.sh
create_version

View File

@@ -3,18 +3,14 @@
set -e
set -o pipefail
KUBERNETES_VERSION="${KUBERNETES_VERSION:-v1.32.0}"
KUBERNETES_VERSION="${KUBERNETES_VERSION:-v1.24.0}"
ENABLE_STANDALONE_MODE="${ENABLE_STANDALONE_MODE:-true}"
DEFAULT_INSTALL_NAMESPACE=${DEFAULT_INSTALL_NAMESPACE:-default}
GREPTIMEDB_IMAGE_TAG=${GREPTIMEDB_IMAGE_TAG:-latest}
GREPTIMEDB_OPERATOR_IMAGE_TAG=${GREPTIMEDB_OPERATOR_IMAGE_TAG:-v0.5.1}
GREPTIMEDB_INITIALIZER_IMAGE_TAG="${GREPTIMEDB_OPERATOR_IMAGE_TAG}"
GREPTIME_CHART="https://greptimeteam.github.io/helm-charts/"
ETCD_CHART="oci://registry-1.docker.io/bitnamicharts/etcd"
ETCD_CHART_VERSION="${ETCD_CHART_VERSION:-12.0.8}"
ETCD_IMAGE_TAG="${ETCD_IMAGE_TAG:-3.6.1-debian-12-r3}"
GREPTIME_CHART="https://greptimeteam.github.io/helm-charts/"
# Create a cluster with 1 control-plane node and 5 workers.
# Ceate a cluster with 1 control-plane node and 5 workers.
function create_kind_cluster() {
cat <<EOF | kind create cluster --name "${CLUSTER}" --image kindest/node:"$KUBERNETES_VERSION" --config=-
kind: Cluster
@@ -39,16 +35,10 @@ function add_greptime_chart() {
function deploy_etcd_cluster() {
local namespace="$1"
helm upgrade --install etcd "$ETCD_CHART" \
--version "$ETCD_CHART_VERSION" \
--create-namespace \
helm install etcd "$ETCD_CHART" \
--set replicaCount=3 \
--set auth.rbac.create=false \
--set auth.rbac.token.enabled=false \
--set global.security.allowInsecureImages=true \
--set image.registry=docker.io \
--set image.repository=greptime/etcd \
--set image.tag="$ETCD_IMAGE_TAG" \
-n "$namespace"
# Wait for etcd cluster to be ready.
@@ -58,9 +48,8 @@ function deploy_etcd_cluster() {
# Deploy greptimedb-operator.
function deploy_greptimedb_operator() {
# Use the latest chart and image.
helm upgrade --install greptimedb-operator greptime/greptimedb-operator \
--create-namespace \
--set image.tag="$GREPTIMEDB_OPERATOR_IMAGE_TAG" \
helm install greptimedb-operator greptime/greptimedb-operator \
--set image.tag=latest \
-n "$DEFAULT_INSTALL_NAMESPACE"
# Wait for greptimedb-operator to be ready.
@@ -77,12 +66,9 @@ function deploy_greptimedb_cluster() {
deploy_etcd_cluster "$install_namespace"
helm upgrade --install "$cluster_name" greptime/greptimedb-cluster \
--create-namespace \
helm install "$cluster_name" greptime/greptimedb-cluster \
--set image.tag="$GREPTIMEDB_IMAGE_TAG" \
--set initializer.tag="$GREPTIMEDB_INITIALIZER_IMAGE_TAG" \
--set "meta.backendStorage.etcd.endpoints[0]=etcd.$install_namespace.svc.cluster.local:2379" \
--set meta.backendStorage.etcd.storeKeyPrefix="$cluster_name" \
--set meta.etcdEndpoints="etcd.$install_namespace:2379" \
-n "$install_namespace"
# Wait for greptimedb cluster to be ready.
@@ -115,18 +101,15 @@ function deploy_greptimedb_cluster_with_s3_storage() {
deploy_etcd_cluster "$install_namespace"
helm upgrade --install "$cluster_name" greptime/greptimedb-cluster -n "$install_namespace" \
--create-namespace \
helm install "$cluster_name" greptime/greptimedb-cluster -n "$install_namespace" \
--set image.tag="$GREPTIMEDB_IMAGE_TAG" \
--set initializer.tag="$GREPTIMEDB_INITIALIZER_IMAGE_TAG" \
--set "meta.backendStorage.etcd.endpoints[0]=etcd.$install_namespace.svc.cluster.local:2379" \
--set meta.backendStorage.etcd.storeKeyPrefix="$cluster_name" \
--set objectStorage.s3.bucket="$AWS_CI_TEST_BUCKET" \
--set objectStorage.s3.region="$AWS_REGION" \
--set objectStorage.s3.root="$DATA_ROOT" \
--set objectStorage.credentials.secretName=s3-credentials \
--set objectStorage.credentials.accessKeyId="$AWS_ACCESS_KEY_ID" \
--set objectStorage.credentials.secretAccessKey="$AWS_SECRET_ACCESS_KEY"
--set meta.etcdEndpoints="etcd.$install_namespace:2379" \
--set storage.s3.bucket="$AWS_CI_TEST_BUCKET" \
--set storage.s3.region="$AWS_REGION" \
--set storage.s3.root="$DATA_ROOT" \
--set storage.credentials.secretName=s3-credentials \
--set storage.credentials.accessKeyId="$AWS_ACCESS_KEY_ID" \
--set storage.credentials.secretAccessKey="$AWS_SECRET_ACCESS_KEY"
# Wait for greptimedb cluster to be ready.
while true; do
@@ -151,8 +134,7 @@ function deploy_greptimedb_cluster_with_s3_storage() {
# Deploy standalone greptimedb.
# It will expose cluster service ports as '34000', '34001', '34002', '34003' to local access.
function deploy_standalone_greptimedb() {
helm upgrade --install greptimedb-standalone greptime/greptimedb-standalone \
--create-namespace \
helm install greptimedb-standalone greptime/greptimedb-standalone \
--set image.tag="$GREPTIMEDB_IMAGE_TAG" \
-n "$DEFAULT_INSTALL_NAMESPACE"

507
.github/scripts/package-lock.json generated vendored
View File

@@ -1,507 +0,0 @@
{
"name": "greptimedb-github-scripts",
"version": "1.0.0",
"lockfileVersion": 3,
"requires": true,
"packages": {
"": {
"name": "greptimedb-github-scripts",
"version": "1.0.0",
"dependencies": {
"@octokit/rest": "^21.0.0",
"axios": "^1.7.0"
}
},
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"integrity": "sha512-D+zkORCbA9f1tdWRK0RaCR3GPv50cMxcrz4X8k5LTSUD1Dkw47mKJEZQNunItRTkWwgtaUSo1RVFRIG9ZXiFYg==",
"license": "MIT"
},
"node_modules/universal-user-agent": {
"version": "7.0.3",
"resolved": "https://registry.npmjs.org/universal-user-agent/-/universal-user-agent-7.0.3.tgz",
"integrity": "sha512-TmnEAEAsBJVZM/AADELsK76llnwcf9vMKuPz8JflO1frO8Lchitr0fNaN9d+Ap0BjKtqWqd/J17qeDnXh8CL2A==",
"license": "ISC"
}
}
}

View File

@@ -1,10 +0,0 @@
{
"name": "greptimedb-github-scripts",
"version": "1.0.0",
"type": "module",
"description": "GitHub automation scripts for GreptimeDB",
"dependencies": {
"@octokit/rest": "^21.0.0",
"axios": "^1.7.0"
}
}

View File

@@ -1,152 +0,0 @@
// Daily PR Review Reminder Script
// Fetches open PRs from GreptimeDB repository and sends Slack notifications
// to PR owners and assigned reviewers to keep review process moving.
(async () => {
const { Octokit } = await import("@octokit/rest");
const { default: axios } = await import('axios');
// Configuration
const GITHUB_TOKEN = process.env.GITHUB_TOKEN;
const SLACK_WEBHOOK_URL = process.env.SLACK_PR_REVIEW_WEBHOOK_URL;
const REPO_OWNER = "GreptimeTeam";
const REPO_NAME = "greptimedb";
const GITHUB_TO_SLACK = JSON.parse(process.env.GITHUBID_SLACKID_MAPPING || '{}');
// Debug: Print environment variable status
console.log("=== Environment Variables Debug ===");
console.log(`GITHUB_TOKEN: ${GITHUB_TOKEN ? 'Set ✓' : 'NOT SET ✗'}`);
console.log(`SLACK_PR_REVIEW_WEBHOOK_URL: ${SLACK_WEBHOOK_URL ? 'Set ✓' : 'NOT SET ✗'}`);
console.log(`GITHUBID_SLACKID_MAPPING: ${process.env.GITHUBID_SLACKID_MAPPING ? `Set ✓ (${Object.keys(GITHUB_TO_SLACK).length} mappings)` : 'NOT SET ✗'}`);
console.log("===================================\n");
const octokit = new Octokit({
auth: GITHUB_TOKEN
});
// Fetch all open PRs from the repository
async function fetchOpenPRs() {
try {
const prs = await octokit.pulls.list({
owner: REPO_OWNER,
repo: REPO_NAME,
state: "open",
per_page: 100,
sort: "created",
direction: "asc"
});
return prs.data.filter((pr) => !pr.draft);
} catch (error) {
console.error("Error fetching PRs:", error);
return [];
}
}
// Convert GitHub username to Slack mention or fallback to GitHub username
function toSlackMention(githubUser) {
const slackUserId = GITHUB_TO_SLACK[githubUser];
return slackUserId ? `<@${slackUserId}>` : `@${githubUser}`;
}
// Calculate days since PR was opened
function getDaysOpen(createdAt) {
const created = new Date(createdAt);
const now = new Date();
const diffMs = now - created;
const days = Math.floor(diffMs / (1000 * 60 * 60 * 24));
return days;
}
// Build Slack notification message from PR list
function buildSlackMessage(prs) {
if (prs.length === 0) {
return "*🎉 Great job! No pending PRs for review.*";
}
// Separate PRs by age threshold (14 days)
const criticalPRs = [];
const recentPRs = [];
prs.forEach(pr => {
const daysOpen = getDaysOpen(pr.created_at);
if (daysOpen >= 14) {
criticalPRs.push(pr);
} else {
recentPRs.push(pr);
}
});
const lines = [
`*🔍 Daily PR Review Reminder 🔍*`,
`Found *${criticalPRs.length}* critical PR(s) (14+ days old)\n`
];
// Show critical PRs (14+ days) in detail
if (criticalPRs.length > 0) {
criticalPRs.forEach((pr, index) => {
const owner = toSlackMention(pr.user.login);
const reviewers = pr.requested_reviewers || [];
const reviewerMentions = reviewers.map(r => toSlackMention(r.login)).join(", ");
const daysOpen = getDaysOpen(pr.created_at);
const prInfo = `${index + 1}. <${pr.html_url}|#${pr.number}: ${pr.title}>`;
const ageInfo = ` 🔴 Opened *${daysOpen}* day(s) ago`;
const ownerInfo = ` 👤 Owner: ${owner}`;
const reviewerInfo = reviewers.length > 0
? ` 👁️ Reviewers: ${reviewerMentions}`
: ` 👁️ Reviewers: _Not assigned yet_`;
lines.push(prInfo);
lines.push(ageInfo);
lines.push(ownerInfo);
lines.push(reviewerInfo);
lines.push(""); // Empty line between PRs
});
}
lines.push("_Let's keep the code review process moving! 🚀_");
return lines.join("\n");
}
// Send notification to Slack webhook
async function sendSlackNotification(message) {
if (!SLACK_WEBHOOK_URL) {
console.log("⚠️ SLACK_PR_REVIEW_WEBHOOK_URL not configured. Message preview:");
console.log("=".repeat(60));
console.log(message);
console.log("=".repeat(60));
return;
}
try {
const response = await axios.post(SLACK_WEBHOOK_URL, {
text: message
});
if (response.status !== 200) {
throw new Error(`Slack API returned status ${response.status}`);
}
console.log("Slack notification sent successfully.");
} catch (error) {
console.error("Error sending Slack notification:", error);
throw error;
}
}
// Main execution flow
async function run() {
console.log(`Fetching open PRs from ${REPO_OWNER}/${REPO_NAME}...`);
const prs = await fetchOpenPRs();
console.log(`Found ${prs.length} open PR(s).`);
const message = buildSlackMessage(prs);
console.log("Sending Slack notification...");
await sendSlackNotification(message);
}
run().catch(error => {
console.error("Script execution failed:", error);
process.exit(1);
});
})();

View File

@@ -1,34 +0,0 @@
#!/bin/bash
# This script is used to pull the test dependency images that are stored in public ECR one by one to avoid rate limiting.
set -e
MAX_RETRIES=3
IMAGES=(
"greptime/zookeeper:3.7"
"greptime/kafka:3.9.0-debian-12-r1"
"greptime/etcd:3.6.1-debian-12-r3"
"greptime/minio:2024"
"greptime/mysql:5.7"
)
for image in "${IMAGES[@]}"; do
for ((attempt=1; attempt<=MAX_RETRIES; attempt++)); do
if docker pull "$image"; then
# Successfully pulled the image.
break
else
# Use some simple exponential backoff to avoid rate limiting.
if [ $attempt -lt $MAX_RETRIES ]; then
sleep_seconds=$((attempt * 5))
echo "Attempt $attempt failed for $image, waiting $sleep_seconds seconds"
sleep $sleep_seconds # 5s, 10s delays
else
echo "Failed to pull $image after $MAX_RETRIES attempts"
exit 1
fi
fi
done
done

View File

@@ -1,37 +0,0 @@
#!/bin/bash
DEV_BUILDER_IMAGE_TAG=$1
update_dev_builder_version() {
if [ -z "$DEV_BUILDER_IMAGE_TAG" ]; then
echo "Error: Should specify the dev-builder image tag"
exit 1
fi
# Configure Git configs.
git config --global user.email greptimedb-ci@greptime.com
git config --global user.name greptimedb-ci
# Checkout a new branch.
BRANCH_NAME="ci/update-dev-builder-$(date +%Y%m%d%H%M%S)"
git checkout -b $BRANCH_NAME
# Update the dev-builder image tag in the Makefile.
sed -i "s/DEV_BUILDER_IMAGE_TAG ?=.*/DEV_BUILDER_IMAGE_TAG ?= ${DEV_BUILDER_IMAGE_TAG}/g" Makefile
# Commit the changes.
git add Makefile
git commit -s -m "ci: update dev-builder image tag"
git push origin $BRANCH_NAME
# Create a Pull Request.
gh pr create \
--title "ci: update dev-builder image tag" \
--body "This PR updates the dev-builder image tag" \
--base main \
--head $BRANCH_NAME \
--reviewer zyy17 \
--reviewer daviderli614
}
update_dev_builder_version

View File

@@ -1,49 +0,0 @@
#!/bin/bash
set -e
VERSION=${VERSION}
GITHUB_TOKEN=${GITHUB_TOKEN}
update_helm_charts_version() {
# Configure Git configs.
git config --global user.email update-helm-charts-version@greptime.com
git config --global user.name update-helm-charts-version
# Clone helm-charts repository.
git clone "https://x-access-token:${GITHUB_TOKEN}@github.com/GreptimeTeam/helm-charts.git"
cd helm-charts
# Set default remote for gh CLI
gh repo set-default GreptimeTeam/helm-charts
# Checkout a new branch.
BRANCH_NAME="chore/greptimedb-${VERSION}"
git checkout -b $BRANCH_NAME
# Update version.
make update-version CHART=greptimedb-cluster VERSION=${VERSION}
make update-version CHART=greptimedb-standalone VERSION=${VERSION}
# Update docs.
make docs
# Commit the changes.
git add .
git commit -s -m "chore: Update GreptimeDB version to ${VERSION}"
git push origin $BRANCH_NAME
# Create a Pull Request.
gh pr create \
--title "chore: Update GreptimeDB version to ${VERSION}" \
--body "This PR updates the GreptimeDB version." \
--base main \
--head $BRANCH_NAME \
--reviewer sunng87 \
--reviewer daviderli614 \
--reviewer killme2008 \
--reviewer evenyag \
--reviewer fengjiachun
}
update_helm_charts_version

View File

@@ -1,45 +0,0 @@
#!/bin/bash
set -e
VERSION=${VERSION}
GITHUB_TOKEN=${GITHUB_TOKEN}
update_homebrew_greptime_version() {
# Configure Git configs.
git config --global user.email update-greptime-version@greptime.com
git config --global user.name update-greptime-version
# Clone helm-charts repository.
git clone "https://x-access-token:${GITHUB_TOKEN}@github.com/GreptimeTeam/homebrew-greptime.git"
cd homebrew-greptime
# Set default remote for gh CLI
gh repo set-default GreptimeTeam/homebrew-greptime
# Checkout a new branch.
BRANCH_NAME="chore/greptimedb-${VERSION}"
git checkout -b $BRANCH_NAME
# Update version.
make update-greptime-version VERSION=${VERSION}
# Commit the changes.
git add .
git commit -s -m "chore: Update GreptimeDB version to ${VERSION}"
git push origin $BRANCH_NAME
# Create a Pull Request.
gh pr create \
--title "chore: Update GreptimeDB version to ${VERSION}" \
--body "This PR updates the GreptimeDB version." \
--base main \
--head $BRANCH_NAME \
--reviewer sunng87 \
--reviewer daviderli614 \
--reviewer killme2008 \
--reviewer evenyag \
--reviewer fengjiachun
}
update_homebrew_greptime_version

View File

@@ -41,7 +41,7 @@ function upload_artifacts() {
# Updates the latest version information in AWS S3 if UPDATE_VERSION_INFO is true.
function update_version_info() {
if [ "$UPDATE_VERSION_INFO" == "true" ]; then
# If it's the official release(like v1.0.0, v1.0.1, v1.0.2, etc.), update latest-version.txt.
# If it's the officail release(like v1.0.0, v1.0.1, v1.0.2, etc.), update latest-version.txt.
if [[ "$VERSION" =~ ^v[0-9]+\.[0-9]+\.[0-9]+$ ]]; then
echo "Updating latest-version.txt"
echo "$VERSION" > latest-version.txt

View File

@@ -1,154 +0,0 @@
name: Check Git Dependencies on Main Branch
on:
pull_request:
branches: [main]
paths:
- 'Cargo.toml'
push:
branches: [main]
paths:
- 'Cargo.toml'
jobs:
check-git-deps:
runs-on: ubuntu-latest
steps:
- name: Checkout repository
uses: actions/checkout@v6
- name: Check git dependencies
env:
WHITELIST_DEPS: "greptime-proto,meter-core,meter-macros"
run: |
#!/bin/bash
set -e
echo "Checking whitelisted git dependencies..."
# Function to check if a commit is on main branch
check_commit_on_main() {
local repo_url="$1"
local commit="$2"
local repo_name=$(basename "$repo_url" .git)
echo "Checking $repo_name"
echo "Repo: $repo_url"
echo "Commit: $commit"
# Create a temporary directory for cloning
local temp_dir=$(mktemp -d)
# Clone the repository
if git clone "$repo_url" "$temp_dir" 2>/dev/null; then
cd "$temp_dir"
# Try to determine the main branch name
local main_branch="main"
if ! git rev-parse --verify origin/main >/dev/null 2>&1; then
if git rev-parse --verify origin/master >/dev/null 2>&1; then
main_branch="master"
else
# Try to get the default branch
main_branch=$(git symbolic-ref refs/remotes/origin/HEAD | sed 's@^refs/remotes/origin/@@')
fi
fi
echo "Main branch: $main_branch"
# Check if commit exists
if git cat-file -e "$commit" 2>/dev/null; then
# Check if commit is on main branch
if git merge-base --is-ancestor "$commit" "origin/$main_branch" 2>/dev/null; then
echo "PASS: Commit $commit is on $main_branch branch"
cd - >/dev/null
rm -rf "$temp_dir"
return 0
else
echo "FAIL: Commit $commit is NOT on $main_branch branch"
# Try to find which branch contains this commit
local branch_name=$(git branch -r --contains "$commit" 2>/dev/null | head -1 | sed 's/^[[:space:]]*origin\///' | sed 's/[[:space:]]*$//')
if [[ -n "$branch_name" ]]; then
echo "Found on branch: $branch_name"
fi
cd - >/dev/null
rm -rf "$temp_dir"
return 1
fi
else
echo "FAIL: Commit $commit not found in repository"
cd - >/dev/null
rm -rf "$temp_dir"
return 1
fi
else
echo "FAIL: Failed to clone $repo_url"
rm -rf "$temp_dir"
return 1
fi
}
# Extract whitelisted git dependencies from Cargo.toml
echo "Extracting git dependencies from Cargo.toml..."
# Create temporary array to store dependencies
declare -a deps=()
# Build awk pattern from whitelist
IFS=',' read -ra WHITELIST <<< "$WHITELIST_DEPS"
awk_pattern=""
for dep in "${WHITELIST[@]}"; do
if [[ -n "$awk_pattern" ]]; then
awk_pattern="$awk_pattern|"
fi
awk_pattern="$awk_pattern$dep"
done
# Extract whitelisted dependencies
while IFS= read -r line; do
if [[ -n "$line" ]]; then
deps+=("$line")
fi
done < <(awk -v pattern="$awk_pattern" '
$0 ~ pattern ".*git = \"https:/" {
match($0, /git = "([^"]+)"/, arr)
git_url = arr[1]
if (match($0, /rev = "([^"]+)"/, rev_arr)) {
rev = rev_arr[1]
print git_url " " rev
} else {
# Check next line for rev
getline
if (match($0, /rev = "([^"]+)"/, rev_arr)) {
rev = rev_arr[1]
print git_url " " rev
}
}
}
' Cargo.toml)
echo "Found ${#deps[@]} dependencies to check:"
for dep in "${deps[@]}"; do
echo " $dep"
done
failed=0
for dep in "${deps[@]}"; do
read -r repo_url commit <<< "$dep"
if ! check_commit_on_main "$repo_url" "$commit"; then
failed=1
fi
done
echo "Check completed."
if [[ $failed -eq 1 ]]; then
echo "ERROR: Some git dependencies are not on their main branches!"
echo "Please update the commits to point to main branch commits."
exit 1
else
echo "SUCCESS: All git dependencies are on their main branches!"
fi

View File

@@ -4,11 +4,10 @@ name: GreptimeDB Development Build
on:
workflow_dispatch: # Allows you to run this workflow manually.
inputs:
large-page-size:
description: Build GreptimeDB with large page size (65536).
type: boolean
repository:
description: The public repository to build
required: false
default: false
default: GreptimeTeam/greptimedb
commit: # Note: We only pull the source code and use the current workflow to build the artifacts.
description: The commit to build
required: true
@@ -56,11 +55,6 @@ on:
description: Build and push images to DockerHub and ACR
required: false
default: true
upload_artifacts_to_s3:
type: boolean
description: Whether upload artifacts to s3
required: false
default: false
cargo_profile:
type: choice
description: The cargo profile to use in building GreptimeDB.
@@ -182,7 +176,6 @@ jobs:
working-dir: ${{ env.CHECKOUT_GREPTIMEDB_PATH }}
image-registry: ${{ vars.ECR_IMAGE_REGISTRY }}
image-namespace: ${{ vars.ECR_IMAGE_NAMESPACE }}
large-page-size: ${{ inputs.large-page-size }}
build-linux-arm64-artifacts:
name: Build linux-arm64 artifacts
@@ -216,7 +209,6 @@ jobs:
working-dir: ${{ env.CHECKOUT_GREPTIMEDB_PATH }}
image-registry: ${{ vars.ECR_IMAGE_REGISTRY }}
image-namespace: ${{ vars.ECR_IMAGE_NAMESPACE }}
large-page-size: ${{ inputs.large-page-size }}
release-images-to-dockerhub:
name: Build and push images to DockerHub
@@ -246,7 +238,7 @@ jobs:
version: ${{ needs.allocate-runners.outputs.version }}
push-latest-tag: false # Don't push the latest tag to registry.
dev-mode: true # Only build the standard images.
- name: Echo Docker image tag to step summary
run: |
echo "## Docker Image Tag" >> $GITHUB_STEP_SUMMARY
@@ -289,7 +281,7 @@ jobs:
aws-cn-access-key-id: ${{ secrets.AWS_CN_ACCESS_KEY_ID }}
aws-cn-secret-access-key: ${{ secrets.AWS_CN_SECRET_ACCESS_KEY }}
aws-cn-region: ${{ vars.AWS_RELEASE_BUCKET_REGION }}
upload-to-s3: ${{ inputs.upload_artifacts_to_s3 }}
upload-to-s3: false
dev-mode: true # Only build the standard images(exclude centos images).
push-latest-tag: false # Don't push the latest tag to registry.
update-version-info: false # Don't update the version info in S3.

View File

@@ -12,7 +12,6 @@ on:
- 'docker/**'
- '.gitignore'
- 'grafana/**'
- 'Makefile'
workflow_dispatch:
name: CI
@@ -23,7 +22,6 @@ concurrency:
jobs:
check-typos-and-docs:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
name: Check typos and docs
runs-on: ubuntu-latest
steps:
@@ -38,7 +36,6 @@ jobs:
|| (echo "'config/config.md' is not up-to-date, please run 'make config-docs'." && exit 1)
license-header-check:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
runs-on: ubuntu-latest
name: Check License Header
steps:
@@ -48,7 +45,6 @@ jobs:
- uses: korandoru/hawkeye@v5
check:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
name: Check
runs-on: ${{ matrix.os }}
strategy:
@@ -75,7 +71,6 @@ jobs:
run: cargo check --locked --workspace --all-targets
toml:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
name: Toml Check
runs-on: ubuntu-latest
timeout-minutes: 60
@@ -90,7 +85,6 @@ jobs:
run: taplo format --check
build:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
name: Build GreptimeDB binaries
runs-on: ${{ matrix.os }}
strategy:
@@ -133,7 +127,6 @@ jobs:
version: current
fuzztest:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
name: Fuzz Test
needs: build
runs-on: ubuntu-latest
@@ -190,13 +183,11 @@ jobs:
max-total-time: 120
unstable-fuzztest:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
name: Unstable Fuzz Test
needs: build-greptime-ci
runs-on: ubuntu-latest
timeout-minutes: 60
strategy:
fail-fast: false
matrix:
target: [ "unstable_fuzz_create_table_standalone" ]
steps:
@@ -224,12 +215,12 @@ jobs:
run: |
sudo apt update && sudo apt install -y libfuzzer-14-dev
cargo install cargo-fuzz cargo-gc-bin --force
- name: Download pre-built binary
- name: Download pre-built binariy
uses: actions/download-artifact@v4
with:
name: bin
path: .
- name: Unzip binary
- name: Unzip bianry
run: |
tar -xvf ./bin.tar.gz
rm ./bin.tar.gz
@@ -251,14 +242,8 @@ jobs:
name: unstable-fuzz-logs
path: /tmp/unstable-greptime/
retention-days: 3
- name: Describe pods
if: failure()
shell: bash
run: |
kubectl describe pod -n my-greptimedb
build-greptime-ci:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
name: Build GreptimeDB binary (profile-CI)
runs-on: ${{ matrix.os }}
strategy:
@@ -282,7 +267,7 @@ jobs:
- name: Install cargo-gc-bin
shell: bash
run: cargo install cargo-gc-bin --force
- name: Build greptime binary
- name: Build greptime bianry
shell: bash
# `cargo gc` will invoke `cargo build` with specified args
run: cargo gc --profile ci -- --bin greptime --features "pg_kvbackend,mysql_kvbackend"
@@ -300,13 +285,11 @@ jobs:
version: current
distributed-fuzztest:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
name: Fuzz Test (Distributed, ${{ matrix.mode.name }}, ${{ matrix.target }})
runs-on: ubuntu-latest
needs: build-greptime-ci
timeout-minutes: 60
strategy:
fail-fast: false
matrix:
target: [ "fuzz_create_table", "fuzz_alter_table", "fuzz_create_database", "fuzz_create_logical_table", "fuzz_alter_logical_table", "fuzz_insert", "fuzz_insert_logical_table" ]
mode:
@@ -336,9 +319,9 @@ jobs:
name: Setup Minio
uses: ./.github/actions/setup-minio
- if: matrix.mode.kafka
name: Setup Kafka cluster
name: Setup Kafka cluser
uses: ./.github/actions/setup-kafka-cluster
- name: Setup Etcd cluster
- name: Setup Etcd cluser
uses: ./.github/actions/setup-etcd-cluster
# Prepares for fuzz tests
- uses: arduino/setup-protoc@v3
@@ -411,11 +394,6 @@ jobs:
shell: bash
run: |
kubectl describe nodes
- name: Describe pod
if: failure()
shell: bash
run: |
kubectl describe pod -n my-greptimedb
- name: Export kind logs
if: failure()
shell: bash
@@ -438,13 +416,11 @@ jobs:
docker system prune -f
distributed-fuzztest-with-chaos:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
name: Fuzz Test with Chaos (Distributed, ${{ matrix.mode.name }}, ${{ matrix.target }})
runs-on: ubuntu-latest
needs: build-greptime-ci
timeout-minutes: 60
strategy:
fail-fast: false
matrix:
target: ["fuzz_migrate_mito_regions", "fuzz_migrate_metric_regions", "fuzz_failover_mito_regions", "fuzz_failover_metric_regions"]
mode:
@@ -489,9 +465,9 @@ jobs:
name: Setup Minio
uses: ./.github/actions/setup-minio
- if: matrix.mode.kafka
name: Setup Kafka cluster
name: Setup Kafka cluser
uses: ./.github/actions/setup-kafka-cluster
- name: Setup Etcd cluster
- name: Setup Etcd cluser
uses: ./.github/actions/setup-etcd-cluster
# Prepares for fuzz tests
- uses: arduino/setup-protoc@v3
@@ -565,11 +541,6 @@ jobs:
shell: bash
run: |
kubectl describe nodes
- name: Describe pods
if: failure()
shell: bash
run: |
kubectl describe pod -n my-greptimedb
- name: Export kind logs
if: failure()
shell: bash
@@ -592,12 +563,10 @@ jobs:
docker system prune -f
sqlness:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
name: Sqlness Test (${{ matrix.mode.name }})
needs: build
runs-on: ${{ matrix.os }}
strategy:
fail-fast: false
matrix:
os: [ ubuntu-latest ]
mode:
@@ -607,26 +576,18 @@ jobs:
- name: "Remote WAL"
opts: "-w kafka -k 127.0.0.1:9092"
kafka: true
- name: "PostgreSQL KvBackend"
- name: "Pg Kvbackend"
opts: "--setup-pg"
kafka: false
- name: "MySQL Kvbackend"
opts: "--setup-mysql"
kafka: false
- name: "Flat format"
opts: "--enable-flat-format"
kafka: false
timeout-minutes: 60
steps:
- uses: actions/checkout@v4
with:
persist-credentials: false
- if: matrix.mode.kafka
name: Setup kafka server
working-directory: tests-integration/fixtures
run: ../../.github/scripts/pull-test-deps-images.sh && docker compose up -d --wait kafka
run: docker compose up -d --wait kafka
- name: Download pre-built binaries
uses: actions/download-artifact@v4
with:
@@ -635,7 +596,7 @@ jobs:
- name: Unzip binaries
run: tar -xvf ./bins.tar.gz
- name: Run sqlness
run: RUST_BACKTRACE=1 ./bins/sqlness-runner bare ${{ matrix.mode.opts }} -c ./tests/cases --bins-dir ./bins --preserve-state
run: RUST_BACKTRACE=1 ./bins/sqlness-runner ${{ matrix.mode.opts }} -c ./tests/cases --bins-dir ./bins --preserve-state
- name: Upload sqlness logs
if: failure()
uses: actions/upload-artifact@v4
@@ -645,7 +606,6 @@ jobs:
retention-days: 3
fmt:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
name: Rustfmt
runs-on: ubuntu-latest
timeout-minutes: 60
@@ -663,7 +623,6 @@ jobs:
run: make fmt-check
clippy:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
name: Clippy
runs-on: ubuntu-latest
timeout-minutes: 60
@@ -688,32 +647,7 @@ jobs:
- name: Run cargo clippy
run: make clippy
check-udeps:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
name: Check Unused Dependencies
runs-on: ubuntu-latest
timeout-minutes: 60
steps:
- uses: actions/checkout@v4
with:
persist-credentials: false
- uses: arduino/setup-protoc@v3
with:
repo-token: ${{ secrets.GITHUB_TOKEN }}
- uses: actions-rust-lang/setup-rust-toolchain@v1
- name: Rust Cache
uses: Swatinem/rust-cache@v2
with:
shared-key: "check-udeps"
cache-all-crates: "true"
save-if: ${{ github.ref == 'refs/heads/main' }}
- name: Install cargo-udeps
run: cargo install cargo-udeps --locked
- name: Check unused dependencies
run: make check-udeps
conflict-check:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
name: Check for conflict
runs-on: ubuntu-latest
steps:
@@ -724,10 +658,10 @@ jobs:
uses: olivernybroe/action-conflict-finder@v4.0
test:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' && github.event_name != 'merge_group' }}
if: github.event_name != 'merge_group'
runs-on: ubuntu-22.04-arm
timeout-minutes: 60
needs: [conflict-check, clippy, fmt, check-udeps]
needs: [conflict-check, clippy, fmt]
steps:
- uses: actions/checkout@v4
with:
@@ -739,7 +673,7 @@ jobs:
- name: Install toolchain
uses: actions-rust-lang/setup-rust-toolchain@v1
with:
cache: false
cache: false
- name: Rust Cache
uses: Swatinem/rust-cache@v2
with:
@@ -749,11 +683,9 @@ jobs:
save-if: ${{ github.ref == 'refs/heads/main' }}
- name: Install latest nextest release
uses: taiki-e/install-action@nextest
- name: Setup external services
working-directory: tests-integration/fixtures
run: ../../.github/scripts/pull-test-deps-images.sh && docker compose up -d --wait
run: docker compose up -d --wait
- name: Run nextest cases
run: cargo nextest run --workspace -F dashboard -F pg_kvbackend -F mysql_kvbackend
env:
@@ -770,18 +702,15 @@ jobs:
GT_MINIO_ACCESS_KEY: superpower_password
GT_MINIO_REGION: us-west-2
GT_MINIO_ENDPOINT_URL: http://127.0.0.1:9000
GT_ETCD_TLS_ENDPOINTS: https://127.0.0.1:2378
GT_ETCD_ENDPOINTS: http://127.0.0.1:2379
GT_POSTGRES_ENDPOINTS: postgres://greptimedb:admin@127.0.0.1:5432/postgres
GT_POSTGRES15_ENDPOINTS: postgres://test_user:test_password@127.0.0.1:5433/postgres
GT_POSTGRES15_SCHEMA: test_schema
GT_MYSQL_ENDPOINTS: mysql://greptimedb:admin@127.0.0.1:3306/mysql
GT_KAFKA_ENDPOINTS: 127.0.0.1:9092
GT_KAFKA_SASL_ENDPOINTS: 127.0.0.1:9093
UNITTEST_LOG_DIR: "__unittest_logs"
coverage:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' && github.event_name == 'merge_group' }}
if: github.event_name == 'merge_group'
runs-on: ubuntu-22.04-8-cores
timeout-minutes: 60
steps:
@@ -807,11 +736,9 @@ jobs:
uses: taiki-e/install-action@nextest
- name: Install cargo-llvm-cov
uses: taiki-e/install-action@cargo-llvm-cov
- name: Setup external services
working-directory: tests-integration/fixtures
run: ../../.github/scripts/pull-test-deps-images.sh && docker compose up -d --wait
run: docker compose up -d --wait
- name: Run nextest cases
run: cargo llvm-cov nextest --workspace --lcov --output-path lcov.info -F dashboard -F pg_kvbackend -F mysql_kvbackend
env:
@@ -827,11 +754,8 @@ jobs:
GT_MINIO_ACCESS_KEY: superpower_password
GT_MINIO_REGION: us-west-2
GT_MINIO_ENDPOINT_URL: http://127.0.0.1:9000
GT_ETCD_TLS_ENDPOINTS: https://127.0.0.1:2378
GT_ETCD_ENDPOINTS: http://127.0.0.1:2379
GT_POSTGRES_ENDPOINTS: postgres://greptimedb:admin@127.0.0.1:5432/postgres
GT_POSTGRES15_ENDPOINTS: postgres://test_user:test_password@127.0.0.1:5433/postgres
GT_POSTGRES15_SCHEMA: test_schema
GT_MYSQL_ENDPOINTS: mysql://greptimedb:admin@127.0.0.1:3306/mysql
GT_KAFKA_ENDPOINTS: 127.0.0.1:9092
GT_KAFKA_SASL_ENDPOINTS: 127.0.0.1:9093
@@ -846,7 +770,6 @@ jobs:
verbose: true
# compat:
# if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
# name: Compatibility Test
# needs: build
# runs-on: ubuntu-22.04

View File

@@ -10,7 +10,6 @@ on:
- 'docker/**'
- '.gitignore'
- 'grafana/**'
- 'Makefile'
push:
branches:
- main
@@ -22,7 +21,6 @@ on:
- 'docker/**'
- '.gitignore'
- 'grafana/**'
- 'Makefile'
workflow_dispatch:
name: CI
@@ -67,12 +65,6 @@ jobs:
steps:
- run: 'echo "No action required"'
check-udeps:
name: Unused Dependencies
runs-on: ubuntu-latest
steps:
- run: 'echo "No action required"'
coverage:
runs-on: ubuntu-latest
steps:
@@ -92,6 +84,5 @@ jobs:
mode:
- name: "Basic"
- name: "Remote WAL"
- name: "Flat format"
steps:
- run: 'echo "No action required"'

View File

@@ -21,6 +21,32 @@ jobs:
run: sudo apt-get install -y jq
# Make the check.sh script executable
- name: Check grafana dashboards
- name: Make check.sh executable
run: chmod +x grafana/check.sh
# Run the check.sh script
- name: Run check.sh
run: ./grafana/check.sh
# Only run summary.sh for pull_request events (not for merge queues or final pushes)
- name: Check if this is a pull request
id: check-pr
run: |
make check-dashboards
if [[ "${{ github.event_name }}" == "pull_request" ]]; then
echo "is_pull_request=true" >> $GITHUB_OUTPUT
else
echo "is_pull_request=false" >> $GITHUB_OUTPUT
fi
# Make the summary.sh script executable
- name: Make summary.sh executable
if: steps.check-pr.outputs.is_pull_request == 'true'
run: chmod +x grafana/summary.sh
# Run the summary.sh script and add its output to the GitHub Job Summary
- name: Run summary.sh and add to Job Summary
if: steps.check-pr.outputs.is_pull_request == 'true'
run: |
SUMMARY=$(./grafana/summary.sh)
echo "### Summary of Grafana Panels" >> $GITHUB_STEP_SUMMARY
echo "$SUMMARY" >> $GITHUB_STEP_SUMMARY

View File

@@ -1,57 +0,0 @@
name: Multi-language Integration Tests
on:
push:
branches:
- main
workflow_dispatch:
concurrency:
group: ${{ github.workflow }}-${{ github.head_ref || github.run_id }}
cancel-in-progress: true
jobs:
build-greptimedb:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
name: Build GreptimeDB binary
runs-on: ubuntu-latest
timeout-minutes: 60
steps:
- uses: actions/checkout@v4
with:
persist-credentials: false
- uses: arduino/setup-protoc@v3
with:
repo-token: ${{ secrets.GITHUB_TOKEN }}
- uses: actions-rust-lang/setup-rust-toolchain@v1
- uses: Swatinem/rust-cache@v2
with:
shared-key: "multi-lang-build"
cache-all-crates: "true"
save-if: ${{ github.ref == 'refs/heads/main' }}
- name: Install cargo-gc-bin
shell: bash
run: cargo install cargo-gc-bin --force
- name: Build greptime binary
shell: bash
run: cargo gc -- --bin greptime --features "pg_kvbackend,mysql_kvbackend"
- name: Pack greptime binary
shell: bash
run: |
mkdir bin && \
mv ./target/debug/greptime bin
- name: Print greptime binary info
run: ls -lh bin
- name: Upload greptime binary
uses: actions/upload-artifact@v4
with:
name: greptime-bin
path: bin/
retention-days: 1
run-multi-lang-tests:
name: Run Multi-language SDK Tests
needs: build-greptimedb
uses: ./.github/workflows/run-multi-lang-tests.yml
with:
artifact-name: greptime-bin

View File

@@ -174,18 +174,6 @@ jobs:
image-registry: ${{ vars.ECR_IMAGE_REGISTRY }}
image-namespace: ${{ vars.ECR_IMAGE_NAMESPACE }}
run-multi-lang-tests:
name: Run Multi-language SDK Tests
if: ${{ inputs.build_linux_amd64_artifacts || github.event_name == 'schedule' }}
needs: [
allocate-runners,
build-linux-amd64-artifacts,
]
uses: ./.github/workflows/run-multi-lang-tests.yml
with:
artifact-name: greptime-linux-amd64-${{ needs.allocate-runners.outputs.version }}
artifact-is-tarball: true
release-images-to-dockerhub:
name: Build and push images to DockerHub
if: ${{ inputs.release_images || github.event_name == 'schedule' }}
@@ -313,8 +301,7 @@ jobs:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' && always() }} # Not requiring successful dependent jobs, always run.
name: Send notification to Greptime team
needs: [
release-images-to-dockerhub,
run-multi-lang-tests,
release-images-to-dockerhub
]
runs-on: ubuntu-latest
permissions:
@@ -332,17 +319,17 @@ jobs:
run: pnpm tsx bin/report-ci-failure.ts
env:
GITHUB_TOKEN: ${{ secrets.GITHUB_TOKEN }}
CI_REPORT_STATUS: ${{ needs.release-images-to-dockerhub.outputs.nightly-build-result == 'success' && (needs.run-multi-lang-tests.result == 'success' || needs.run-multi-lang-tests.result == 'skipped') }}
CI_REPORT_STATUS: ${{ needs.release-images-to-dockerhub.outputs.nightly-build-result == 'success' }}
- name: Notify nightly build successful result
uses: slackapi/slack-github-action@v1.23.0
if: ${{ needs.release-images-to-dockerhub.outputs.nightly-build-result == 'success' && (needs.run-multi-lang-tests.result == 'success' || needs.run-multi-lang-tests.result == 'skipped') }}
if: ${{ needs.release-images-to-dockerhub.outputs.nightly-build-result == 'success' }}
with:
payload: |
{"text": "GreptimeDB's ${{ env.NEXT_RELEASE_VERSION }} build has completed successfully."}
- name: Notify nightly build failed result
uses: slackapi/slack-github-action@v1.23.0
if: ${{ needs.release-images-to-dockerhub.outputs.nightly-build-result != 'success' || needs.run-multi-lang-tests.result == 'failure' }}
if: ${{ needs.release-images-to-dockerhub.outputs.nightly-build-result != 'success' }}
with:
payload: |
{"text": "GreptimeDB's ${{ env.NEXT_RELEASE_VERSION }} build has failed, please check ${{ steps.report-ci-status.outputs.html_url }}."}

View File

@@ -107,6 +107,7 @@ jobs:
CARGO_BUILD_RUSTFLAGS: "-C linker=lld-link"
RUST_BACKTRACE: 1
CARGO_INCREMENTAL: 0
RUSTUP_WINDOWS_PATH_ADD_BIN: 1 # Workaround for https://github.com/nextest-rs/nextest/issues/1493
GT_S3_BUCKET: ${{ vars.AWS_CI_TEST_BUCKET }}
GT_S3_ACCESS_KEY_ID: ${{ secrets.AWS_CI_TEST_ACCESS_KEY_ID }}
GT_S3_ACCESS_KEY: ${{ secrets.AWS_CI_TEST_SECRET_ACCESS_KEY }}
@@ -117,16 +118,16 @@ jobs:
name: Run clean build on Linux
runs-on: ubuntu-latest
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
timeout-minutes: 45
timeout-minutes: 60
steps:
- uses: actions/checkout@v4
with:
fetch-depth: 0
persist-credentials: false
- uses: cachix/install-nix-action@v31
- run: nix develop --command cargo check --bin greptime
env:
CARGO_BUILD_RUSTFLAGS: "-C link-arg=-fuse-ld=mold"
- uses: cachix/install-nix-action@v27
with:
nix_path: nixpkgs=channel:nixos-24.11
- run: nix develop --command cargo build
check-status:
name: Check status

View File

@@ -1,42 +0,0 @@
name: 'PR Labeling'
on:
pull_request_target:
types:
- opened
- synchronize
- reopened
permissions:
contents: read
pull-requests: write
issues: write
jobs:
labeler:
runs-on: ubuntu-latest
steps:
- name: Checkout sources
uses: actions/checkout@v4
- uses: actions/labeler@v5
with:
configuration-path: ".github/labeler.yaml"
repo-token: "${{ secrets.GITHUB_TOKEN }}"
size-label:
runs-on: ubuntu-latest
steps:
- uses: pascalgn/size-label-action@v0.5.5
env:
GITHUB_TOKEN: "${{ secrets.GITHUB_TOKEN }}"
with:
sizes: >
{
"0": "XS",
"100": "S",
"300": "M",
"1000": "L",
"1500": "XL",
"2000": "XXL"
}

View File

@@ -1,36 +0,0 @@
name: PR Review Reminder
on:
schedule:
# Run at 9:00 AM UTC+8 (01:00 AM UTC) on Monday, Wednesday, Friday
- cron: '0 1 * * 1,3,5'
workflow_dispatch:
jobs:
pr-review-reminder:
name: Send PR Review Reminders
runs-on: ubuntu-latest
permissions:
contents: read
pull-requests: read
if: ${{ github.repository == 'GreptimeTeam/greptimedb' }}
steps:
- name: Checkout repository
uses: actions/checkout@v4
- name: Setup Node.js
uses: actions/setup-node@v4
with:
node-version: '20'
- name: Install dependencies
working-directory: .github/scripts
run: npm ci
- name: Run PR review reminder
working-directory: .github/scripts
run: node pr-review-reminder.js
env:
GITHUB_TOKEN: ${{ secrets.GITHUB_TOKEN }}
SLACK_PR_REVIEW_WEBHOOK_URL: ${{ vars.SLACK_PR_REVIEW_WEBHOOK_URL }}
GITHUBID_SLACKID_MAPPING: ${{ vars.GITHUBID_SLACKID_MAPPING }}

View File

@@ -24,19 +24,11 @@ on:
description: Release dev-builder-android image
required: false
default: false
update_dev_builder_image_tag:
type: boolean
description: Update the DEV_BUILDER_IMAGE_TAG in Makefile and create a PR
required: false
default: false
jobs:
release-dev-builder-images:
name: Release dev builder images
# The jobs are triggered by the following events:
# 1. Manually triggered workflow_dispatch event
# 2. Push event when the PR that modifies the `rust-toolchain.toml` or `docker/dev-builder/**` is merged to main
if: ${{ github.event_name == 'push' || inputs.release_dev_builder_ubuntu_image || inputs.release_dev_builder_centos_image || inputs.release_dev_builder_android_image }}
if: ${{ inputs.release_dev_builder_ubuntu_image || inputs.release_dev_builder_centos_image || inputs.release_dev_builder_android_image }} # Only manually trigger this job.
runs-on: ubuntu-latest
outputs:
version: ${{ steps.set-version.outputs.version }}
@@ -65,9 +57,9 @@ jobs:
version: ${{ env.VERSION }}
dockerhub-image-registry-username: ${{ secrets.DOCKERHUB_USERNAME }}
dockerhub-image-registry-token: ${{ secrets.DOCKERHUB_TOKEN }}
build-dev-builder-ubuntu: ${{ inputs.release_dev_builder_ubuntu_image || github.event_name == 'push' }}
build-dev-builder-centos: ${{ inputs.release_dev_builder_centos_image || github.event_name == 'push' }}
build-dev-builder-android: ${{ inputs.release_dev_builder_android_image || github.event_name == 'push' }}
build-dev-builder-ubuntu: ${{ inputs.release_dev_builder_ubuntu_image }}
build-dev-builder-centos: ${{ inputs.release_dev_builder_centos_image }}
build-dev-builder-android: ${{ inputs.release_dev_builder_android_image }}
release-dev-builder-images-ecr:
name: Release dev builder images to AWS ECR
@@ -93,7 +85,7 @@ jobs:
- name: Push dev-builder-ubuntu image
shell: bash
if: ${{ inputs.release_dev_builder_ubuntu_image || github.event_name == 'push' }}
if: ${{ inputs.release_dev_builder_ubuntu_image }}
env:
IMAGE_VERSION: ${{ needs.release-dev-builder-images.outputs.version }}
IMAGE_NAMESPACE: ${{ vars.IMAGE_NAMESPACE }}
@@ -114,7 +106,7 @@ jobs:
- name: Push dev-builder-centos image
shell: bash
if: ${{ inputs.release_dev_builder_centos_image || github.event_name == 'push' }}
if: ${{ inputs.release_dev_builder_centos_image }}
env:
IMAGE_VERSION: ${{ needs.release-dev-builder-images.outputs.version }}
IMAGE_NAMESPACE: ${{ vars.IMAGE_NAMESPACE }}
@@ -135,7 +127,7 @@ jobs:
- name: Push dev-builder-android image
shell: bash
if: ${{ inputs.release_dev_builder_android_image || github.event_name == 'push' }}
if: ${{ inputs.release_dev_builder_android_image }}
env:
IMAGE_VERSION: ${{ needs.release-dev-builder-images.outputs.version }}
IMAGE_NAMESPACE: ${{ vars.IMAGE_NAMESPACE }}
@@ -170,7 +162,7 @@ jobs:
- name: Push dev-builder-ubuntu image
shell: bash
if: ${{ inputs.release_dev_builder_ubuntu_image || github.event_name == 'push' }}
if: ${{ inputs.release_dev_builder_ubuntu_image }}
env:
IMAGE_VERSION: ${{ needs.release-dev-builder-images.outputs.version }}
IMAGE_NAMESPACE: ${{ vars.IMAGE_NAMESPACE }}
@@ -184,7 +176,7 @@ jobs:
- name: Push dev-builder-centos image
shell: bash
if: ${{ inputs.release_dev_builder_centos_image || github.event_name == 'push' }}
if: ${{ inputs.release_dev_builder_centos_image }}
env:
IMAGE_VERSION: ${{ needs.release-dev-builder-images.outputs.version }}
IMAGE_NAMESPACE: ${{ vars.IMAGE_NAMESPACE }}
@@ -198,7 +190,7 @@ jobs:
- name: Push dev-builder-android image
shell: bash
if: ${{ inputs.release_dev_builder_android_image || github.event_name == 'push' }}
if: ${{ inputs.release_dev_builder_android_image }}
env:
IMAGE_VERSION: ${{ needs.release-dev-builder-images.outputs.version }}
IMAGE_NAMESPACE: ${{ vars.IMAGE_NAMESPACE }}
@@ -209,24 +201,3 @@ jobs:
quay.io/skopeo/stable:latest \
copy -a docker://docker.io/$IMAGE_NAMESPACE/dev-builder-android:$IMAGE_VERSION \
docker://$ACR_IMAGE_REGISTRY/$IMAGE_NAMESPACE/dev-builder-android:$IMAGE_VERSION
update-dev-builder-image-tag:
name: Update dev-builder image tag
runs-on: ubuntu-latest
permissions:
contents: write
pull-requests: write
if: ${{ github.event_name == 'push' || inputs.update_dev_builder_image_tag }}
needs: [
release-dev-builder-images
]
steps:
- name: Checkout repository
uses: actions/checkout@v4
- name: Update dev-builder image tag
shell: bash
env:
GITHUB_TOKEN: ${{ secrets.GITHUB_TOKEN }}
run: |
./.github/scripts/update-dev-builder-version.sh ${{ needs.release-dev-builder-images.outputs.version }}

View File

@@ -49,9 +49,14 @@ on:
description: Do not run integration tests during the build
type: boolean
default: true
build_linux_artifacts:
build_linux_amd64_artifacts:
type: boolean
description: Build linux artifacts (both amd64 and arm64)
description: Build linux-amd64 artifacts
required: false
default: false
build_linux_arm64_artifacts:
type: boolean
description: Build linux-arm64 artifacts
required: false
default: false
build_macos_artifacts:
@@ -83,8 +88,10 @@ env:
# Controls whether to run tests, include unit-test, integration-test and sqlness.
DISABLE_RUN_TESTS: ${{ inputs.skip_test || vars.DEFAULT_SKIP_TEST }}
# The scheduled version is '${{ env.NEXT_RELEASE_VERSION }}-nightly-YYYYMMDD', like v0.2.0-nightly-20230313;
# The scheduled version is '${{ env.NEXT_RELEASE_VERSION }}-nightly-YYYYMMDD', like v0.2.0-nigthly-20230313;
NIGHTLY_RELEASE_PREFIX: nightly
# Note: The NEXT_RELEASE_VERSION should be modified manually by every formal release.
NEXT_RELEASE_VERSION: v0.13.0
jobs:
allocate-runners:
@@ -105,9 +112,6 @@ jobs:
# The 'version' use as the global tag name of the release workflow.
version: ${{ steps.create-version.outputs.version }}
# The 'is-current-version-latest' determines whether to update 'latest' Docker tags and downstream repositories.
is-current-version-latest: ${{ steps.check-version.outputs.is-current-version-latest }}
steps:
- name: Checkout
uses: actions/checkout@v4
@@ -122,7 +126,7 @@ jobs:
# The create-version will create a global variable named 'version' in the global workflows.
# - If it's a tag push release, the version is the tag name(${{ github.ref_name }});
# - If it's a scheduled release, the version is '${{ env.NEXT_RELEASE_VERSION }}-nightly-$buildTime', like v0.2.0-nightly-20230313;
# - If it's a scheduled release, the version is '${{ env.NEXT_RELEASE_VERSION }}-nightly-$buildTime', like v0.2.0-nigthly-20230313;
# - If it's a manual release, the version is '${{ env.NEXT_RELEASE_VERSION }}-<short-git-sha>-YYYYMMDDSS', like v0.2.0-e5b243c-2023071245;
- name: Create version
id: create-version
@@ -131,15 +135,11 @@ jobs:
env:
GITHUB_EVENT_NAME: ${{ github.event_name }}
GITHUB_REF_NAME: ${{ github.ref_name }}
NEXT_RELEASE_VERSION: ${{ env.NEXT_RELEASE_VERSION }}
NIGHTLY_RELEASE_PREFIX: ${{ env.NIGHTLY_RELEASE_PREFIX }}
- name: Check version
id: check-version
run: |
./.github/scripts/check-version.sh "${{ steps.create-version.outputs.version }}"
- name: Allocate linux-amd64 runner
if: ${{ inputs.build_linux_artifacts || github.event_name == 'push' || github.event_name == 'schedule' }}
if: ${{ inputs.build_linux_amd64_artifacts || github.event_name == 'push' || github.event_name == 'schedule' }}
uses: ./.github/actions/start-runner
id: start-linux-amd64-runner
with:
@@ -153,7 +153,7 @@ jobs:
subnet-id: ${{ vars.EC2_RUNNER_SUBNET_ID }}
- name: Allocate linux-arm64 runner
if: ${{ inputs.build_linux_artifacts || github.event_name == 'push' || github.event_name == 'schedule' }}
if: ${{ inputs.build_linux_arm64_artifacts || github.event_name == 'push' || github.event_name == 'schedule' }}
uses: ./.github/actions/start-runner
id: start-linux-arm64-runner
with:
@@ -168,7 +168,7 @@ jobs:
build-linux-amd64-artifacts:
name: Build linux-amd64 artifacts
if: ${{ inputs.build_linux_artifacts || github.event_name == 'push' || github.event_name == 'schedule' }}
if: ${{ inputs.build_linux_amd64_artifacts || github.event_name == 'push' || github.event_name == 'schedule' }}
needs: [
allocate-runners,
]
@@ -190,7 +190,7 @@ jobs:
build-linux-arm64-artifacts:
name: Build linux-arm64 artifacts
if: ${{ inputs.build_linux_artifacts || github.event_name == 'push' || github.event_name == 'schedule' }}
if: ${{ inputs.build_linux_arm64_artifacts || github.event_name == 'push' || github.event_name == 'schedule' }}
needs: [
allocate-runners,
]
@@ -210,18 +210,6 @@ jobs:
image-registry: ${{ vars.ECR_IMAGE_REGISTRY }}
image-namespace: ${{ vars.ECR_IMAGE_NAMESPACE }}
run-multi-lang-tests:
name: Run Multi-language SDK Tests
if: ${{ inputs.build_linux_artifacts || github.event_name == 'push' || github.event_name == 'schedule' }}
needs: [
allocate-runners,
build-linux-amd64-artifacts,
]
uses: ./.github/workflows/run-multi-lang-tests.yml
with:
artifact-name: greptime-linux-amd64-${{ needs.allocate-runners.outputs.version }}
artifact-is-tarball: true
build-macos-artifacts:
name: Build macOS artifacts
strategy:
@@ -310,7 +298,6 @@ jobs:
allocate-runners,
build-linux-amd64-artifacts,
build-linux-arm64-artifacts,
run-multi-lang-tests,
]
runs-on: ubuntu-latest
outputs:
@@ -330,7 +317,7 @@ jobs:
image-registry-username: ${{ secrets.DOCKERHUB_USERNAME }}
image-registry-password: ${{ secrets.DOCKERHUB_TOKEN }}
version: ${{ needs.allocate-runners.outputs.version }}
push-latest-tag: ${{ needs.allocate-runners.outputs.is-current-version-latest == 'true' && github.ref_type == 'tag' && !contains(github.ref_name, 'nightly') && github.event_name != 'schedule' }}
push-latest-tag: true
- name: Set build image result
id: set-build-image-result
@@ -348,7 +335,7 @@ jobs:
build-windows-artifacts,
release-images-to-dockerhub,
]
runs-on: ubuntu-latest-16-cores
runs-on: ubuntu-latest
# When we push to ACR, it's easy to fail due to some unknown network issues.
# However, we don't want to fail the whole workflow because of this.
# The ACR have daily sync with DockerHub, so don't worry about the image not being updated.
@@ -377,22 +364,11 @@ jobs:
dev-mode: false
upload-to-s3: true
update-version-info: true
push-latest-tag: ${{ needs.allocate-runners.outputs.is-current-version-latest == 'true' && github.ref_type == 'tag' && !contains(github.ref_name, 'nightly') && github.event_name != 'schedule' }}
push-latest-tag: true
publish-github-release:
name: Create GitHub release and upload artifacts
# Use always() to run even when optional jobs (macos, windows) are skipped.
# Then check that required jobs succeeded and optional jobs didn't fail.
if: |
always() &&
(inputs.publish_github_release || github.event_name == 'push' || github.event_name == 'schedule') &&
needs.allocate-runners.result == 'success' &&
(needs.build-linux-amd64-artifacts.result == 'success' || needs.build-linux-amd64-artifacts.result == 'skipped') &&
(needs.build-linux-arm64-artifacts.result == 'success' || needs.build-linux-arm64-artifacts.result == 'skipped') &&
(needs.build-macos-artifacts.result == 'success' || needs.build-macos-artifacts.result == 'skipped') &&
(needs.build-windows-artifacts.result == 'success' || needs.build-windows-artifacts.result == 'skipped') &&
(needs.release-images-to-dockerhub.result == 'success' || needs.release-images-to-dockerhub.result == 'skipped') &&
(needs.run-multi-lang-tests.result == 'success' || needs.run-multi-lang-tests.result == 'skipped')
if: ${{ inputs.publish_github_release || github.event_name == 'push' || github.event_name == 'schedule' }}
needs: [ # The job have to wait for all the artifacts are built.
allocate-runners,
build-linux-amd64-artifacts,
@@ -400,7 +376,6 @@ jobs:
build-macos-artifacts,
build-windows-artifacts,
release-images-to-dockerhub,
run-multi-lang-tests,
]
runs-on: ubuntu-latest
steps:
@@ -416,7 +391,7 @@ jobs:
### Stop runners ###
# It's very necessary to split the job of releasing runners into 'stop-linux-amd64-runner' and 'stop-linux-arm64-runner'.
# Because we can terminate the specified EC2 instance immediately after the job is finished without unnecessary waiting.
# Because we can terminate the specified EC2 instance immediately after the job is finished without uncessary waiting.
stop-linux-amd64-runner: # It's always run as the last job in the workflow to make sure that the runner is released.
name: Stop linux-amd64 runner
# Only run this job when the runner is allocated.
@@ -469,10 +444,10 @@ jobs:
aws-region: ${{ vars.EC2_RUNNER_REGION }}
github-token: ${{ secrets.GH_PERSONAL_ACCESS_TOKEN }}
bump-downstream-repo-versions:
name: Bump downstream repo versions
bump-doc-version:
name: Bump doc version
if: ${{ github.event_name == 'push' || github.event_name == 'schedule' }}
needs: [allocate-runners, publish-github-release]
needs: [allocate-runners]
runs-on: ubuntu-latest
# Permission reference: https://docs.github.com/en/actions/using-jobs/assigning-permissions-to-jobs
permissions:
@@ -484,58 +459,13 @@ jobs:
fetch-depth: 0
persist-credentials: false
- uses: ./.github/actions/setup-cyborg
- name: Bump downstream repo versions
- name: Bump doc version
working-directory: cyborg
run: pnpm tsx bin/bump-versions.ts
run: pnpm tsx bin/bump-doc-version.ts
env:
TARGET_REPOS: website,docs,demo
VERSION: ${{ needs.allocate-runners.outputs.version }}
GITHUB_TOKEN: ${{ secrets.GITHUB_TOKEN }}
WEBSITE_REPO_TOKEN: ${{ secrets.WEBSITE_REPO_TOKEN }}
DOCS_REPO_TOKEN: ${{ secrets.DOCS_REPO_TOKEN }}
DEMO_REPO_TOKEN: ${{ secrets.DEMO_REPO_TOKEN }}
bump-helm-charts-version:
name: Bump helm charts version
if: ${{ github.ref_type == 'tag' && !contains(github.ref_name, 'nightly') && github.event_name != 'schedule' && needs.allocate-runners.outputs.is-current-version-latest == 'true' }}
needs: [allocate-runners, publish-github-release]
runs-on: ubuntu-latest
permissions:
contents: write
pull-requests: write
steps:
- name: Checkout repository
uses: actions/checkout@v4
with:
fetch-depth: 0
- name: Bump helm charts version
env:
GITHUB_TOKEN: ${{ secrets.HELM_CHARTS_REPO_TOKEN }}
VERSION: ${{ needs.allocate-runners.outputs.version }}
run: |
./.github/scripts/update-helm-charts-version.sh
bump-homebrew-greptime-version:
name: Bump homebrew greptime version
if: ${{ github.ref_type == 'tag' && !contains(github.ref_name, 'nightly') && github.event_name != 'schedule' && needs.allocate-runners.outputs.is-current-version-latest == 'true' }}
needs: [allocate-runners, publish-github-release]
runs-on: ubuntu-latest
permissions:
contents: write
pull-requests: write
steps:
- name: Checkout repository
uses: actions/checkout@v4
with:
fetch-depth: 0
- name: Bump homebrew greptime version
env:
GITHUB_TOKEN: ${{ secrets.HOMEBREW_GREPTIME_REPO_TOKEN }}
VERSION: ${{ needs.allocate-runners.outputs.version }}
run: |
./.github/scripts/update-homebrew-greptme-version.sh
notification:
if: ${{ github.repository == 'GreptimeTeam/greptimedb' && (github.event_name == 'push' || github.event_name == 'schedule') && always() }}

View File

@@ -1,194 +0,0 @@
# Reusable workflow for running multi-language SDK tests against GreptimeDB
# Used by: multi-lang-tests.yml, release.yml, nightly-build.yml
# Supports both direct binary artifacts and tarball artifacts
name: Run Multi-language SDK Tests
on:
workflow_call:
inputs:
artifact-name:
required: true
type: string
description: 'Name of the artifact containing greptime binary'
http-port:
required: false
type: string
default: '4000'
description: 'HTTP server port'
mysql-port:
required: false
type: string
default: '4002'
description: 'MySQL server port'
postgres-port:
required: false
type: string
default: '4003'
description: 'PostgreSQL server port'
db-name:
required: false
type: string
default: 'test_db'
description: 'Test database name'
username:
required: false
type: string
default: 'greptime_user'
description: 'Authentication username'
password:
required: false
type: string
default: 'greptime_pwd'
description: 'Authentication password'
timeout-minutes:
required: false
type: number
default: 30
description: 'Job timeout in minutes'
artifact-is-tarball:
required: false
type: boolean
default: false
description: 'Whether the artifact is a tarball (tar.gz) that needs to be extracted'
jobs:
run-tests:
name: Run Multi-language SDK Tests
runs-on: ubuntu-latest
timeout-minutes: ${{ inputs.timeout-minutes }}
steps:
- name: Checkout greptimedb-tests repository
uses: actions/checkout@v4
with:
repository: GreptimeTeam/greptimedb-tests
persist-credentials: false
- name: Download pre-built greptime binary
uses: actions/download-artifact@v4
with:
name: ${{ inputs.artifact-name }}
path: artifact
- name: Setup greptime binary
run: |
mkdir -p bin
if [ "${{ inputs.artifact-is-tarball }}" = "true" ]; then
# Extract tarball and find greptime binary
tar -xzf artifact/*.tar.gz -C artifact
find artifact -name "greptime" -type f -exec cp {} bin/greptime \;
else
# Direct binary format
if [ -f artifact/greptime ]; then
cp artifact/greptime bin/greptime
else
cp artifact/* bin/greptime
fi
fi
chmod +x ./bin/greptime
ls -lh ./bin/greptime
./bin/greptime --version
- name: Setup Java 17
uses: actions/setup-java@v4
with:
distribution: 'temurin'
java-version: '17'
cache: 'maven'
- name: Setup Python 3.8
uses: actions/setup-python@v5
with:
python-version: '3.8'
- name: Setup Go 1.24
uses: actions/setup-go@v5
with:
go-version: '1.24'
cache: true
cache-dependency-path: go-tests/go.sum
- name: Set up Node.js
uses: actions/setup-node@v4
with:
node-version: '18'
- name: Install Python dependencies
run: |
pip install mysql-connector-python psycopg2-binary
python3 -c "import mysql.connector; print(f'mysql-connector-python {mysql.connector.__version__}')"
python3 -c "import psycopg2; print(f'psycopg2 {psycopg2.__version__}')"
- name: Install Go dependencies
working-directory: go-tests
run: |
go mod download
go mod verify
go version
- name: Kill existing GreptimeDB processes
run: |
pkill -f greptime || true
sleep 2
- name: Start GreptimeDB standalone
run: |
./bin/greptime standalone start \
--http-addr 0.0.0.0:${{ inputs.http-port }} \
--rpc-addr 0.0.0.0:4001 \
--mysql-addr 0.0.0.0:${{ inputs.mysql-port }} \
--postgres-addr 0.0.0.0:${{ inputs.postgres-port }} \
--user-provider=static_user_provider:cmd:${{ inputs.username }}=${{ inputs.password }} > /tmp/greptimedb.log 2>&1 &
- name: Wait for GreptimeDB to be ready
run: |
echo "Waiting for GreptimeDB..."
for i in {1..60}; do
if curl -sf http://localhost:${{ inputs.http-port }}/health > /dev/null; then
echo "✅ GreptimeDB is ready"
exit 0
fi
sleep 2
done
echo "❌ GreptimeDB failed to start"
cat /tmp/greptimedb.log
exit 1
- name: Run multi-language tests
env:
DB_NAME: ${{ inputs.db-name }}
MYSQL_HOST: 127.0.0.1
MYSQL_PORT: ${{ inputs.mysql-port }}
POSTGRES_HOST: 127.0.0.1
POSTGRES_PORT: ${{ inputs.postgres-port }}
HTTP_HOST: 127.0.0.1
HTTP_PORT: ${{ inputs.http-port }}
GREPTIME_USERNAME: ${{ inputs.username }}
GREPTIME_PASSWORD: ${{ inputs.password }}
run: |
chmod +x ./run_tests.sh
./run_tests.sh
- name: Collect logs on failure
if: failure()
run: |
echo "=== GreptimeDB Logs ==="
cat /tmp/greptimedb.log || true
- name: Upload test logs on failure
if: failure()
uses: actions/upload-artifact@v4
with:
name: test-logs
path: |
/tmp/greptimedb.log
java-tests/target/surefire-reports/
python-tests/.pytest_cache/
go-tests/*.log
**/test-output/
retention-days: 7
- name: Cleanup
if: always()
run: |
pkill -f greptime || true

View File

@@ -1,7 +1,7 @@
name: "Semantic Pull Request"
on:
pull_request_target:
pull_request:
types:
- opened
- reopened
@@ -11,17 +11,14 @@ concurrency:
group: ${{ github.workflow }}-${{ github.head_ref || github.run_id }}
cancel-in-progress: true
permissions:
contents: read
pull-requests: write
issues: write
jobs:
check:
runs-on: ubuntu-latest
timeout-minutes: 10
steps:
- uses: actions/checkout@v4
with:
persist-credentials: false
- uses: ./.github/actions/setup-cyborg
- name: Check Pull Request
working-directory: cyborg

13
.gitignore vendored
View File

@@ -28,7 +28,6 @@ debug/
# Logs
**/__unittest_logs
logs/
!grafana/dashboards/logs/
# cpython's generated python byte code
**/__pycache__/
@@ -52,18 +51,6 @@ venv/
tests-fuzz/artifacts/
tests-fuzz/corpus/
# cargo-udeps reports
udeps-report.json
# Nix
.direnv
.envrc
## default data home
greptimedb_data
# github
!/.github
# Claude code
CLAUDE.md

View File

@@ -2,41 +2,43 @@
## Individual Committers (in alphabetical order)
- [apdong2022](https://github.com/apdong2022)
- [beryl678](https://github.com/beryl678)
- [CookiePieWw](https://github.com/CookiePieWw)
- [etolbakov](https://github.com/etolbakov)
- [irenjj](https://github.com/irenjj)
- [KKould](https://github.com/KKould)
- [Lanqing Yang](https://github.com/lyang24)
- [nicecui](https://github.com/nicecui)
- [NiwakaDev](https://github.com/NiwakaDev)
- [paomian](https://github.com/paomian)
- [tisonkun](https://github.com/tisonkun)
- [Wenjie0329](https://github.com/Wenjie0329)
- [zhaoyingnan01](https://github.com/zhaoyingnan01)
- [zhongzc](https://github.com/zhongzc)
- [ZonaHex](https://github.com/ZonaHex)
- [zyy17](https://github.com/zyy17)
* [CookiePieWw](https://github.com/CookiePieWw)
* [etolbakov](https://github.com/etolbakov)
* [irenjj](https://github.com/irenjj)
* [KKould](https://github.com/KKould)
* [Lanqing Yang](https://github.com/lyang24)
* [NiwakaDev](https://github.com/NiwakaDev)
* [tisonkun](https://github.com/tisonkun)
## Team Members (in alphabetical order)
- [daviderli614](https://github.com/daviderli614)
- [discord9](https://github.com/discord9)
- [evenyag](https://github.com/evenyag)
- [fengjiachun](https://github.com/fengjiachun)
- [fengys1996](https://github.com/fengys1996)
- [GrepTime](https://github.com/GrepTime)
- [holalengyu](https://github.com/holalengyu)
- [killme2008](https://github.com/killme2008)
- [MichaelScofield](https://github.com/MichaelScofield)
- [shuiyisong](https://github.com/shuiyisong)
- [sunchanglong](https://github.com/sunchanglong)
- [sunng87](https://github.com/sunng87)
- [v0y4g3r](https://github.com/v0y4g3r)
- [waynexia](https://github.com/waynexia)
- [WenyXu](https://github.com/WenyXu)
- [xtang](https://github.com/xtang)
* [apdong2022](https://github.com/apdong2022)
* [beryl678](https://github.com/beryl678)
* [Breeze-P](https://github.com/Breeze-P)
* [daviderli614](https://github.com/daviderli614)
* [discord9](https://github.com/discord9)
* [evenyag](https://github.com/evenyag)
* [fengjiachun](https://github.com/fengjiachun)
* [fengys1996](https://github.com/fengys1996)
* [GrepTime](https://github.com/GrepTime)
* [holalengyu](https://github.com/holalengyu)
* [killme2008](https://github.com/killme2008)
* [MichaelScofield](https://github.com/MichaelScofield)
* [nicecui](https://github.com/nicecui)
* [paomian](https://github.com/paomian)
* [shuiyisong](https://github.com/shuiyisong)
* [sunchanglong](https://github.com/sunchanglong)
* [sunng87](https://github.com/sunng87)
* [v0y4g3r](https://github.com/v0y4g3r)
* [waynexia](https://github.com/waynexia)
* [Wenjie0329](https://github.com/Wenjie0329)
* [WenyXu](https://github.com/WenyXu)
* [xtang](https://github.com/xtang)
* [zhaoyingnan01](https://github.com/zhaoyingnan01)
* [zhongzc](https://github.com/zhongzc)
* [ZonaHex](https://github.com/ZonaHex)
* [zyy17](https://github.com/zyy17)
## All Contributors

View File

@@ -55,18 +55,14 @@ GreptimeDB uses the [Apache 2.0 license](https://github.com/GreptimeTeam/greptim
- To ensure that community is free and confident in its ability to use your contributions, please sign the Contributor License Agreement (CLA) which will be incorporated in the pull request process.
- Make sure all files have proper license header (running `docker run --rm -v $(pwd):/github/workspace ghcr.io/korandoru/hawkeye-native:v3 format` from the project root).
- Make sure all your codes are formatted and follow the [coding style](https://pingcap.github.io/style-guide/rust/) and [style guide](docs/style-guide.md).
- Make sure all unit tests are passed using [nextest](https://nexte.st/index.html) `cargo nextest run --workspace --features pg_kvbackend,mysql_kvbackend` or `make test`.
- Make sure all clippy warnings are fixed (you can check it locally by running `cargo clippy --workspace --all-targets -- -D warnings` or `make clippy`).
- Ensure there are no unused dependencies by running `make check-udeps` (clean them up with `make fix-udeps` if reported).
- If you must keep a target-specific dependency (e.g. under `[target.'cfg(...)'.dev-dependencies]`), add a cargo-udeps ignore entry in the same `Cargo.toml`, for example:
`[package.metadata.cargo-udeps.ignore]` with `development = ["rexpect"]` (or `dependencies`/`build` as appropriate).
- When modifying sample configuration files in `config/`, run `make config-docs` (which requires Docker to be installed) to update the configuration documentation and include it in your commit.
- Make sure all unit tests are passed using [nextest](https://nexte.st/index.html) `cargo nextest run`.
- Make sure all clippy warnings are fixed (you can check it locally by running `cargo clippy --workspace --all-targets -- -D warnings`).
#### `pre-commit` Hooks
You could setup the [`pre-commit`](https://pre-commit.com/#plugins) hooks to run these checks on every commit automatically.
1. Install `pre-commit`
1. Install `pre-commit`
pip install pre-commit
@@ -74,7 +70,7 @@ You could setup the [`pre-commit`](https://pre-commit.com/#plugins) hooks to run
brew install pre-commit
2. Install the `pre-commit` hooks
2. Install the `pre-commit` hooks
$ pre-commit install
pre-commit installed at .git/hooks/pre-commit
@@ -112,7 +108,7 @@ of what you were trying to do and what went wrong. You can also reach for help i
The core team will be thrilled if you would like to participate in any way you like. When you are stuck, try to ask for help by filing an issue, with a detailed description of what you were trying to do and what went wrong. If you have any questions or if you would like to get involved in our community, please check out:
- [GreptimeDB Community Slack](https://greptime.com/slack)
- [GreptimeDB GitHub Discussions](https://github.com/GreptimeTeam/greptimedb/discussions)
- [GreptimeDB Github Discussions](https://github.com/GreptimeTeam/greptimedb/discussions)
Also, see some extra GreptimeDB content:

7722
Cargo.lock generated

File diff suppressed because it is too large Load Diff

View File

@@ -13,7 +13,6 @@ members = [
"src/common/datasource",
"src/common/decimal",
"src/common/error",
"src/common/event-recorder",
"src/common/frontend",
"src/common/function",
"src/common/greptimedb-telemetry",
@@ -21,7 +20,6 @@ members = [
"src/common/grpc-expr",
"src/common/macro",
"src/common/mem-prof",
"src/common/memory-manager",
"src/common/meta",
"src/common/options",
"src/common/plugins",
@@ -31,16 +29,12 @@ members = [
"src/common/query",
"src/common/recordbatch",
"src/common/runtime",
"src/common/session",
"src/common/sql",
"src/common/stat",
"src/common/substrait",
"src/common/telemetry",
"src/common/test-util",
"src/common/time",
"src/common/version",
"src/common/wal",
"src/common/workload",
"src/datanode",
"src/datatypes",
"src/file-engine",
@@ -52,7 +46,6 @@ members = [
"src/meta-client",
"src/meta-srv",
"src/metric-engine",
"src/mito-codec",
"src/mito2",
"src/object-store",
"src/operator",
@@ -62,7 +55,6 @@ members = [
"src/promql",
"src/puffin",
"src/query",
"src/standalone",
"src/servers",
"src/session",
"src/sql",
@@ -75,8 +67,8 @@ members = [
resolver = "2"
[workspace.package]
version = "1.0.0-beta.3"
edition = "2024"
version = "0.13.0"
edition = "2021"
license = "Apache-2.0"
[workspace.lints]
@@ -84,10 +76,7 @@ clippy.print_stdout = "warn"
clippy.print_stderr = "warn"
clippy.dbg_macro = "warn"
clippy.implicit_clone = "warn"
clippy.result_large_err = "allow"
clippy.large_enum_variant = "allow"
clippy.doc_overindented_list_items = "allow"
clippy.uninlined_format_args = "allow"
clippy.readonly_write_lock = "allow"
rust.unknown_lints = "deny"
rust.unexpected_cfgs = { level = "warn", check-cfg = ['cfg(tokio_unstable)'] }
@@ -99,102 +88,84 @@ rust.unexpected_cfgs = { level = "warn", check-cfg = ['cfg(tokio_unstable)'] }
#
# See for more detaiils: https://github.com/rust-lang/cargo/issues/11329
ahash = { version = "0.8", features = ["compile-time-rng"] }
aquamarine = "0.6"
arrow = { version = "56.2", features = ["prettyprint"] }
arrow-array = { version = "56.2", default-features = false, features = ["chrono-tz"] }
arrow-buffer = "56.2"
arrow-flight = "56.2"
arrow-ipc = { version = "56.2", default-features = false, features = ["lz4", "zstd"] }
arrow-schema = { version = "56.2", features = ["serde"] }
aquamarine = "0.3"
arrow = { version = "53.0.0", features = ["prettyprint"] }
arrow-array = { version = "53.0.0", default-features = false, features = ["chrono-tz"] }
arrow-flight = "53.0"
arrow-ipc = { version = "53.0.0", default-features = false, features = ["lz4", "zstd"] }
arrow-schema = { version = "53.0", features = ["serde"] }
async-stream = "0.3"
async-trait = "0.1"
# Remember to update axum-extra, axum-macros when updating axum
axum = "0.8"
axum-extra = "0.10"
axum-macros = "0.5"
axum-macros = "0.4"
backon = "1"
base64 = "0.22"
base64 = "0.21"
bigdecimal = "0.4.2"
bitflags = "2.4.1"
bytemuck = "1.12"
bytes = { version = "1.7", features = ["serde"] }
chrono = { version = "0.4", features = ["serde"] }
chrono-tz = { version = "0.10.1", features = ["case-insensitive"] }
chrono-tz = "0.10.1"
clap = { version = "4.4", features = ["derive"] }
config = "0.13.0"
const_format = "0.2"
crossbeam-utils = "0.8"
dashmap = "6.1"
datafusion = "50"
datafusion-common = "50"
datafusion-expr = "50"
datafusion-functions = "50"
datafusion-functions-aggregate-common = "50"
datafusion-optimizer = "50"
datafusion-orc = "0.5"
datafusion-pg-catalog = "0.12.3"
datafusion-physical-expr = "50"
datafusion-physical-plan = "50"
datafusion-sql = "50"
datafusion-substrait = "50"
deadpool = "0.12"
deadpool-postgres = "0.14"
derive_builder = "0.20"
derive_more = { version = "2.1", features = ["full"] }
dashmap = "5.4"
datafusion = { git = "https://github.com/apache/datafusion.git", rev = "2464703c84c400a09cc59277018813f0e797bb4e" }
datafusion-common = { git = "https://github.com/apache/datafusion.git", rev = "2464703c84c400a09cc59277018813f0e797bb4e" }
datafusion-expr = { git = "https://github.com/apache/datafusion.git", rev = "2464703c84c400a09cc59277018813f0e797bb4e" }
datafusion-functions = { git = "https://github.com/apache/datafusion.git", rev = "2464703c84c400a09cc59277018813f0e797bb4e" }
datafusion-optimizer = { git = "https://github.com/apache/datafusion.git", rev = "2464703c84c400a09cc59277018813f0e797bb4e" }
datafusion-physical-expr = { git = "https://github.com/apache/datafusion.git", rev = "2464703c84c400a09cc59277018813f0e797bb4e" }
datafusion-physical-plan = { git = "https://github.com/apache/datafusion.git", rev = "2464703c84c400a09cc59277018813f0e797bb4e" }
datafusion-sql = { git = "https://github.com/apache/datafusion.git", rev = "2464703c84c400a09cc59277018813f0e797bb4e" }
datafusion-substrait = { git = "https://github.com/apache/datafusion.git", rev = "2464703c84c400a09cc59277018813f0e797bb4e" }
deadpool = "0.10"
deadpool-postgres = "0.12"
derive_builder = "0.12"
dotenv = "0.15"
either = "1.15"
etcd-client = { version = "0.16.1", features = [
"tls",
"tls-roots",
] }
etcd-client = "0.14"
fst = "0.4.7"
futures = "0.3"
futures-util = "0.3"
greptime-proto = { git = "https://github.com/GreptimeTeam/greptime-proto.git", rev = "173efe5ec62722089db7c531c0b0d470a072b915" }
greptime-proto = { git = "https://github.com/GreptimeTeam/greptime-proto.git", rev = "c5419bbd20cb42e568ec325a4d71a3c94cc327e1" }
hex = "0.4"
http = "1"
humantime = "2.1"
humantime-serde = "1.1"
hyper = "1.1"
hyper-util = "0.1"
itertools = "0.14"
itertools = "0.10"
jsonb = { git = "https://github.com/databendlabs/jsonb.git", rev = "8c8d2fc294a39f3ff08909d60f718639cfba3875", default-features = false }
lazy_static = "1.4"
local-ip-address = "0.6"
loki-proto = { git = "https://github.com/GreptimeTeam/loki-proto.git", rev = "3b7cd33234358b18ece977bf689dc6fb760f29ab" }
loki-proto = { git = "https://github.com/GreptimeTeam/loki-proto.git", rev = "1434ecf23a2654025d86188fb5205e7a74b225d3" }
meter-core = { git = "https://github.com/GreptimeTeam/greptime-meter.git", rev = "5618e779cf2bb4755b499c630fba4c35e91898cb" }
mockall = "0.13"
mockall = "0.11.4"
moka = "0.12"
nalgebra = "0.33"
nix = { version = "0.30.1", default-features = false, features = ["event", "fs", "process"] }
notify = "8.0"
notify = "6.1"
num_cpus = "1.16"
object_store_opendal = "0.54"
once_cell = "1.18"
opentelemetry-proto = { version = "0.30", features = [
opentelemetry-proto = { version = "0.27", features = [
"gen-tonic",
"metrics",
"trace",
"with-serde",
"logs",
] }
ordered-float = { version = "4.3", features = ["serde"] }
otel-arrow-rust = { git = "https://github.com/GreptimeTeam/otel-arrow", rev = "2d64b7c0fa95642028a8205b36fe9ea0b023ec59", features = [
"server",
] }
parking_lot = "0.12"
parquet = { version = "56.2", default-features = false, features = ["arrow", "async", "object_store"] }
parquet = { version = "53.0.0", default-features = false, features = ["arrow", "async", "object_store"] }
paste = "1.0"
pin-project = "1.0"
pretty_assertions = "1.4.0"
prometheus = { version = "0.13.3", features = ["process"] }
promql-parser = { version = "0.6", features = ["ser"] }
prost = { version = "0.13", features = ["no-recursion-limit"] }
prost-types = "0.13"
promql-parser = { version = "0.5", features = ["ser"] }
prost = "0.13"
raft-engine = { version = "0.4.1", default-features = false }
rand = "0.9"
ratelimit = "0.10"
regex = "1.12"
rand = "0.8"
ratelimit = "0.9"
regex = "1.8"
regex-automata = "0.4"
reqwest = { version = "0.12", default-features = false, features = [
"json",
@@ -202,46 +173,45 @@ reqwest = { version = "0.12", default-features = false, features = [
"stream",
"multipart",
] }
# Branch: feat/request-timeout
rskafka = { git = "https://github.com/GreptimeTeam/rskafka.git", rev = "f5688f83e7da591cda3f2674c2408b4c0ed4ed50", features = [
rskafka = { git = "https://github.com/influxdata/rskafka.git", rev = "75535b5ad9bae4a5dbb582c82e44dfd81ec10105", features = [
"transport-tls",
] }
rstest = "0.25"
rstest = "0.21"
rstest_reuse = "0.7"
rust_decimal = "1.33"
rustc-hash = "2.0"
# It is worth noting that we should try to avoid using aws-lc-rs until it can be compiled on various platforms.
hostname = "0.4.0"
rustls = { version = "0.23.25", default-features = false }
sea-query = "0.32"
rustls = { version = "0.23.20", default-features = false } # override by patch, see [patch.crates-io]
serde = { version = "1.0", features = ["derive"] }
serde_json = { version = "1.0", features = ["float_roundtrip"] }
serde_with = "3"
simd-json = "0.15"
shadow-rs = "0.38"
similar-asserts = "1.6.0"
smallvec = { version = "1", features = ["serde"] }
snafu = "0.8"
sqlparser = { version = "0.58.0", default-features = false, features = ["std", "visitor", "serde"] }
sqlx = { version = "0.8", default-features = false, features = ["any", "macros", "json", "runtime-tokio-rustls"] }
strum = { version = "0.27", features = ["derive"] }
sysinfo = "0.33"
sqlx = { version = "0.8", features = [
"runtime-tokio-rustls",
"mysql",
] }
sysinfo = "0.30"
# on branch v0.52.x
sqlparser = { git = "https://github.com/GreptimeTeam/sqlparser-rs.git", rev = "71dd86058d2af97b9925093d40c4e03360403170", features = [
"visitor",
"serde",
] } # on branch v0.44.x
strum = { version = "0.25", features = ["derive"] }
tempfile = "3"
tokio = { version = "1.47", features = ["full"] }
tokio = { version = "1.40", features = ["full"] }
tokio-postgres = "0.7"
tokio-rustls = { version = "0.26.2", default-features = false }
tokio-rustls = { version = "0.26.0", default-features = false } # override by patch, see [patch.crates-io]
tokio-stream = "0.1"
tokio-util = { version = "0.7", features = ["io-util", "compat"] }
toml = "0.8.8"
tonic = { version = "0.13", features = ["tls-ring", "gzip", "zstd"] }
tonic = { version = "0.12", features = ["tls", "gzip", "zstd"] }
tower = "0.5"
tower-http = "0.6"
tracing = "0.1"
tracing-appender = "0.2"
tracing-opentelemetry = "0.31.0"
tracing-subscriber = { version = "0.3", features = ["env-filter", "json", "fmt"] }
typetag = "0.2"
uuid = { version = "1.17", features = ["serde", "v4", "fast-rng"] }
vrl = "0.25"
uuid = { version = "1.7", features = ["serde", "v4", "fast-rng"] }
zstd = "0.13"
# DO_NOT_REMOVE_THIS: END_OF_EXTERNAL_DEPENDENCIES
@@ -259,7 +229,6 @@ common-config = { path = "src/common/config" }
common-datasource = { path = "src/common/datasource" }
common-decimal = { path = "src/common/decimal" }
common-error = { path = "src/common/error" }
common-event-recorder = { path = "src/common/event-recorder" }
common-frontend = { path = "src/common/frontend" }
common-function = { path = "src/common/function" }
common-greptimedb-telemetry = { path = "src/common/greptimedb-telemetry" }
@@ -267,7 +236,6 @@ common-grpc = { path = "src/common/grpc" }
common-grpc-expr = { path = "src/common/grpc-expr" }
common-macro = { path = "src/common/macro" }
common-mem-prof = { path = "src/common/mem-prof" }
common-memory-manager = { path = "src/common/memory-manager" }
common-meta = { path = "src/common/meta" }
common-options = { path = "src/common/options" }
common-plugins = { path = "src/common/plugins" }
@@ -277,15 +245,11 @@ common-procedure-test = { path = "src/common/procedure-test" }
common-query = { path = "src/common/query" }
common-recordbatch = { path = "src/common/recordbatch" }
common-runtime = { path = "src/common/runtime" }
common-session = { path = "src/common/session" }
common-sql = { path = "src/common/sql" }
common-stat = { path = "src/common/stat" }
common-telemetry = { path = "src/common/telemetry" }
common-test-util = { path = "src/common/test-util" }
common-time = { path = "src/common/time" }
common-version = { path = "src/common/version" }
common-wal = { path = "src/common/wal" }
common-workload = { path = "src/common/workload" }
datanode = { path = "src/datanode" }
datatypes = { path = "src/datatypes" }
file-engine = { path = "src/file-engine" }
@@ -297,7 +261,6 @@ log-store = { path = "src/log-store" }
meta-client = { path = "src/meta-client" }
meta-srv = { path = "src/meta-srv" }
metric-engine = { path = "src/metric-engine" }
mito-codec = { path = "src/mito-codec" }
mito2 = { path = "src/mito2" }
object-store = { path = "src/object-store" }
operator = { path = "src/operator" }
@@ -310,30 +273,23 @@ query = { path = "src/query" }
servers = { path = "src/servers" }
session = { path = "src/session" }
sql = { path = "src/sql" }
standalone = { path = "src/standalone" }
store-api = { path = "src/store-api" }
substrait = { path = "src/common/substrait" }
table = { path = "src/table" }
[patch.crates-io]
# change all rustls dependencies to use our fork to default to `ring` to make it "just work"
hyper-rustls = { git = "https://github.com/GreptimeTeam/hyper-rustls", rev = "a951e03" } # version = "0.27.5" with ring patch
rustls = { git = "https://github.com/GreptimeTeam/rustls", rev = "34fd0c6" } # version = "0.23.20" with ring patch
tokio-rustls = { git = "https://github.com/GreptimeTeam/tokio-rustls", rev = "4604ca6" } # version = "0.26.0" with ring patch
# This is commented, since we are not using aws-lc-sys, if we need to use it, we need to uncomment this line or use a release after this commit, or it wouldn't compile with gcc < 8.1
# see https://github.com/aws/aws-lc-rs/pull/526
# aws-lc-sys = { git ="https://github.com/aws/aws-lc-rs", rev = "556558441e3494af4b156ae95ebc07ebc2fd38aa" }
[workspace.dependencies.meter-macros]
git = "https://github.com/GreptimeTeam/greptime-meter.git"
rev = "5618e779cf2bb4755b499c630fba4c35e91898cb"
[patch.crates-io]
datafusion = { git = "https://github.com/GreptimeTeam/datafusion.git", rev = "fd4b2abcf3c3e43e94951bda452c9fd35243aab0" }
datafusion-common = { git = "https://github.com/GreptimeTeam/datafusion.git", rev = "fd4b2abcf3c3e43e94951bda452c9fd35243aab0" }
datafusion-expr = { git = "https://github.com/GreptimeTeam/datafusion.git", rev = "fd4b2abcf3c3e43e94951bda452c9fd35243aab0" }
datafusion-functions = { git = "https://github.com/GreptimeTeam/datafusion.git", rev = "fd4b2abcf3c3e43e94951bda452c9fd35243aab0" }
datafusion-functions-aggregate-common = { git = "https://github.com/GreptimeTeam/datafusion.git", rev = "fd4b2abcf3c3e43e94951bda452c9fd35243aab0" }
datafusion-optimizer = { git = "https://github.com/GreptimeTeam/datafusion.git", rev = "fd4b2abcf3c3e43e94951bda452c9fd35243aab0" }
datafusion-physical-expr = { git = "https://github.com/GreptimeTeam/datafusion.git", rev = "fd4b2abcf3c3e43e94951bda452c9fd35243aab0" }
datafusion-physical-expr-common = { git = "https://github.com/GreptimeTeam/datafusion.git", rev = "fd4b2abcf3c3e43e94951bda452c9fd35243aab0" }
datafusion-physical-plan = { git = "https://github.com/GreptimeTeam/datafusion.git", rev = "fd4b2abcf3c3e43e94951bda452c9fd35243aab0" }
datafusion-datasource = { git = "https://github.com/GreptimeTeam/datafusion.git", rev = "fd4b2abcf3c3e43e94951bda452c9fd35243aab0" }
datafusion-sql = { git = "https://github.com/GreptimeTeam/datafusion.git", rev = "fd4b2abcf3c3e43e94951bda452c9fd35243aab0" }
datafusion-substrait = { git = "https://github.com/GreptimeTeam/datafusion.git", rev = "fd4b2abcf3c3e43e94951bda452c9fd35243aab0" }
sqlparser = { git = "https://github.com/GreptimeTeam/sqlparser-rs.git", rev = "a0ce2bc6eb3e804532932f39833c32432f5c9a39" } # branch = "v0.58.x"
[profile.release]
debug = 1

View File

@@ -8,7 +8,7 @@ CARGO_BUILD_OPTS := --locked
IMAGE_REGISTRY ?= docker.io
IMAGE_NAMESPACE ?= greptime
IMAGE_TAG ?= latest
DEV_BUILDER_IMAGE_TAG ?= 2025-10-01-8fe17d43-20251011080129
DEV_BUILDER_IMAGE_TAG ?= 2024-12-25-a71b93dd-20250305072908
BUILDX_MULTI_PLATFORM_BUILD ?= false
BUILDX_BUILDER_NAME ?= gtbuilder
BASE_IMAGE ?= ubuntu
@@ -17,14 +17,12 @@ CARGO_REGISTRY_CACHE ?= ${HOME}/.cargo/registry
ARCH := $(shell uname -m | sed 's/x86_64/amd64/' | sed 's/aarch64/arm64/')
OUTPUT_DIR := $(shell if [ "$(RELEASE)" = "true" ]; then echo "release"; elif [ ! -z "$(CARGO_PROFILE)" ]; then echo "$(CARGO_PROFILE)" ; else echo "debug"; fi)
SQLNESS_OPTS ?=
EXTRA_BUILD_ENVS ?=
ASSEMBLED_EXTRA_BUILD_ENV := $(foreach var,$(EXTRA_BUILD_ENVS),-e $(var))
# The arguments for running integration tests.
ETCD_VERSION ?= v3.5.9
ETCD_IMAGE ?= quay.io/coreos/etcd:${ETCD_VERSION}
RETRY_COUNT ?= 3
NEXTEST_OPTS := --retries ${RETRY_COUNT} --features pg_kvbackend,mysql_kvbackend
NEXTEST_OPTS := --retries ${RETRY_COUNT}
BUILD_JOBS ?= $(shell which nproc 1>/dev/null && expr $$(nproc) / 2) # If nproc is not available, we don't set the build jobs.
ifeq ($(BUILD_JOBS), 0) # If the number of cores is less than 2, set the build jobs to 1.
BUILD_JOBS := 1
@@ -34,10 +32,6 @@ ifneq ($(strip $(BUILD_JOBS)),)
NEXTEST_OPTS += --build-jobs=${BUILD_JOBS}
endif
ifneq ($(strip $(BUILD_JOBS)),)
SQLNESS_OPTS += --jobs ${BUILD_JOBS}
endif
ifneq ($(strip $(CARGO_PROFILE)),)
CARGO_BUILD_OPTS += --profile ${CARGO_PROFILE}
endif
@@ -85,7 +79,6 @@ build: ## Build debug version greptime.
.PHONY: build-by-dev-builder
build-by-dev-builder: ## Build greptime by dev-builder.
docker run --network=host \
${ASSEMBLED_EXTRA_BUILD_ENV} \
-v ${PWD}:/greptimedb -v ${CARGO_REGISTRY_CACHE}:/root/.cargo/registry \
-w /greptimedb ${IMAGE_REGISTRY}/${IMAGE_NAMESPACE}/dev-builder-${BASE_IMAGE}:${DEV_BUILDER_IMAGE_TAG} \
make build \
@@ -172,7 +165,7 @@ nextest: ## Install nextest tools.
.PHONY: sqlness-test
sqlness-test: ## Run sqlness test.
cargo sqlness bare ${SQLNESS_OPTS}
cargo sqlness ${SQLNESS_OPTS}
RUNS ?= 1
FUZZ_TARGET ?= fuzz_alter_table
@@ -196,22 +189,10 @@ clippy: ## Check clippy rules.
fix-clippy: ## Fix clippy violations.
cargo clippy --workspace --all-targets --all-features --fix
.PHONY: check-udeps
check-udeps: ## Check unused dependencies.
cargo udeps --workspace --all-targets
.PHONY: fix-udeps
fix-udeps: ## Remove unused dependencies automatically.
@echo "Running cargo-udeps to find unused dependencies..."
@cargo udeps --workspace --all-targets --output json > udeps-report.json || true
@echo "Removing unused dependencies..."
@python3 scripts/fix-udeps.py udeps-report.json
.PHONY: fmt-check
fmt-check: ## Check code format.
cargo fmt --all -- --check
python3 scripts/check-snafu.py
python3 scripts/check-super-imports.py
.PHONY: start-etcd
start-etcd: ## Start single node etcd for testing purpose.
@@ -236,16 +217,6 @@ start-cluster: ## Start the greptimedb cluster with etcd by using docker compose
stop-cluster: ## Stop the greptimedb cluster that created by docker compose.
docker compose -f ./docker/docker-compose/cluster-with-etcd.yaml stop
##@ Grafana
.PHONY: check-dashboards
check-dashboards: ## Check the Grafana dashboards.
@./grafana/scripts/check.sh
.PHONY: dashboards
dashboards: ## Generate the Grafana dashboards for standalone mode and intermediate dashboards.
@./grafana/scripts/gen-dashboards.sh
##@ Docs
config-docs: ## Generate configuration documentation from toml files.
docker run --rm \

213
README.md
View File

@@ -6,13 +6,12 @@
</picture>
</p>
<h2 align="center">Real-Time & Cloud-Native Observability Database<br/>for metrics, logs, and traces</h2>
> Delivers sub-second querying at PB scale and exceptional cost efficiency from edge to cloud.
<h2 align="center">Unified & Cost-Effective Time Series Database for Metrics, Logs, and Events</h2>
<div align="center">
<h3 align="center">
<a href="https://docs.greptime.com/user-guide/overview/">User Guide</a> |
<a href="https://greptime.com/product/cloud">GreptimeCloud</a> |
<a href="https://docs.greptime.com/">User Guide</a> |
<a href="https://greptimedb.rs/">API Docs</a> |
<a href="https://github.com/GreptimeTeam/greptimedb/issues/5446">Roadmap 2025</a>
</h4>
@@ -50,80 +49,70 @@
</div>
- [Introduction](#introduction)
- [⭐ Key Features](#features)
- [Quick Comparison](#quick-comparison)
- [Architecture](#architecture)
- [Try GreptimeDB](#try-greptimedb)
- [**Features: Why GreptimeDB**](#why-greptimedb)
- [Architecture](https://docs.greptime.com/contributor-guide/overview/#architecture)
- [Try it for free](#try-greptimedb)
- [Getting Started](#getting-started)
- [Build From Source](#build-from-source)
- [Tools & Extensions](#tools--extensions)
- [Project Status](#project-status)
- [Community](#community)
- [Join the community](#community)
- [Contributing](#contributing)
- [Tools & Extensions](#tools--extensions)
- [License](#license)
- [Commercial Support](#commercial-support)
- [Contributing](#contributing)
- [Acknowledgement](#acknowledgement)
## Introduction
**GreptimeDB** is an open-source, cloud-native database that unifies metrics, logs, and traces, enabling real-time observability at any scale — across edge, cloud, and hybrid environments.
**GreptimeDB** is an open-source unified & cost-effective time-series database for **Metrics**, **Logs**, and **Events** (also **Traces** in plan). You can gain real-time insights from Edge to Cloud at Any Scale.
## Features
## Why GreptimeDB
| Feature | Description |
| --------- | ----------- |
| [All-in-One Observability](https://docs.greptime.com/user-guide/concepts/why-greptimedb) | OpenTelemetry-native platform unifying metrics, logs, and traces. Query via [SQL](https://docs.greptime.com/user-guide/query-data/sql), [PromQL](https://docs.greptime.com/user-guide/query-data/promql), and [Flow](https://docs.greptime.com/user-guide/flow-computation/overview). |
| [High Performance](https://docs.greptime.com/user-guide/manage-data/data-index) | Written in Rust with [rich indexing](https://docs.greptime.com/user-guide/manage-data/data-index) (inverted, fulltext, skipping, vector), delivering sub-second responses at PB scale. |
| [Cost Efficiency](https://docs.greptime.com/user-guide/concepts/architecture) | 50x lower operational and storage costs with compute-storage separation and native object storage (S3, Azure Blob, etc.). |
| [Cloud-Native & Scalable](https://docs.greptime.com/user-guide/deployments-administration/deploy-on-kubernetes/greptimedb-operator-management) | Purpose-built for [Kubernetes](https://docs.greptime.com/user-guide/deployments-administration/deploy-on-kubernetes/greptimedb-operator-management) with unlimited cross-cloud scaling, handling hundreds of thousands of concurrent requests. |
| [Developer-Friendly](https://docs.greptime.com/user-guide/protocols/overview) | SQL/PromQL interfaces, built-in web dashboard, REST API, MySQL/PostgreSQL protocol compatibility, and native [OpenTelemetry](https://docs.greptime.com/user-guide/ingest-data/for-observability/opentelemetry/) support. |
| [Flexible Deployment](https://docs.greptime.com/user-guide/deployments-administration/overview) | Deploy anywhere from ARM-based edge devices (including [Android](https://docs.greptime.com/user-guide/deployments-administration/run-on-android)) to cloud, with unified APIs and efficient data sync. |
Our core developers have been building time-series data platforms for years. Based on our best practices, GreptimeDB was born to give you:
**Perfect for:**
- Unified observability stack replacing Prometheus + Loki + Tempo
- Large-scale metrics with high cardinality (millions to billions of time series)
- Large-scale observability platform requiring cost efficiency and scalability
- IoT and edge computing with resource and bandwidth constraints
* **Unified Processing of Metrics, Logs, and Events**
Learn more in [Why GreptimeDB](https://docs.greptime.com/user-guide/concepts/why-greptimedb) and [Observability 2.0 and the Database for It](https://greptime.com/blogs/2025-04-25-greptimedb-observability2-new-database).
GreptimeDB unifies time series data processing by treating all data - whether metrics, logs, or events - as timestamped events with context. Users can analyze this data using either [SQL](https://docs.greptime.com/user-guide/query-data/sql) or [PromQL](https://docs.greptime.com/user-guide/query-data/promql) and leverage stream processing ([Flow](https://docs.greptime.com/user-guide/flow-computation/overview)) to enable continuous aggregation. [Read more](https://docs.greptime.com/user-guide/concepts/data-model).
## Quick Comparison
* **Cloud-native Distributed Database**
| Feature | GreptimeDB | Traditional TSDB | Log Stores |
|----------------------------------|-----------------------|--------------------|-----------------|
| Data Types | Metrics, Logs, Traces | Metrics only | Logs only |
| Query Language | SQL, PromQL | Custom/PromQL | Custom/DSL |
| Deployment | Edge + Cloud | Cloud/On-prem | Mostly central |
| Indexing & Performance | PB-Scale, Sub-second | Varies | Varies |
| Integration | REST API, SQL, Common protocols | Varies | Varies |
Built for [Kubernetes](https://docs.greptime.com/user-guide/deployments/deploy-on-kubernetes/greptimedb-operator-management). GreptimeDB achieves seamless scalability with its [cloud-native architecture](https://docs.greptime.com/user-guide/concepts/architecture) of separated compute and storage, built on object storage (AWS S3, Azure Blob Storage, etc.) while enabling cross-cloud deployment through a unified data access layer.
**Performance:**
* [GreptimeDB tops JSONBench's billion-record cold run test!](https://greptime.com/blogs/2025-03-18-jsonbench-greptimedb-performance)
* [TSBS Benchmark](https://github.com/GreptimeTeam/greptimedb/tree/main/docs/benchmarks/tsbs)
* **Performance and Cost-effective**
Read [more benchmark reports](https://docs.greptime.com/user-guide/concepts/features-that-you-concern#how-is-greptimedbs-performance-compared-to-other-solutions).
Written in pure Rust for superior performance and reliability. GreptimeDB features a distributed query engine with intelligent indexing to handle high cardinality data efficiently. Its optimized columnar storage achieves 50x cost efficiency on cloud object storage through advanced compression. [Benchmark reports](https://www.greptime.com/blogs/2024-09-09-report-summary).
## Architecture
* **Cloud-Edge Collaboration**
GreptimeDB can run in two modes:
* **Standalone Mode** - Single binary for development and small deployments
* **Distributed Mode** - Separate components for production scale:
- Frontend: Query processing and protocol handling
- Datanode: Data storage and retrieval
- Metasrv: Metadata management and coordination
Read the [architecture](https://docs.greptime.com/contributor-guide/overview/#architecture) document. [DeepWiki](https://deepwiki.com/GreptimeTeam/greptimedb/1-overview) provides an in-depth look at GreptimeDB:
<img alt="GreptimeDB System Overview" src="docs/architecture.png">
GreptimeDB seamlessly operates across cloud and edge (ARM/Android/Linux), providing consistent APIs and control plane for unified data management and efficient synchronization. [Learn how to run on Android](https://docs.greptime.com/user-guide/deployments/run-on-android/).
* **Multi-protocol Ingestion, SQL & PromQL Ready**
Widely adopted database protocols and APIs, including MySQL, PostgreSQL, InfluxDB, OpenTelemetry, Loki and Prometheus, etc. Effortless Adoption & Seamless Migration. [Supported Protocols Overview](https://docs.greptime.com/user-guide/protocols/overview).
For more detailed info please read [Why GreptimeDB](https://docs.greptime.com/user-guide/concepts/why-greptimedb).
## Try GreptimeDB
### 1. [Live Demo](https://greptime.com/playground)
Try out the features of GreptimeDB right from your browser.
### 2. [GreptimeCloud](https://console.greptime.cloud/)
Start instantly with a free cluster.
### 3. Docker Image
To install GreptimeDB locally, the recommended way is via Docker:
```shell
docker pull greptime/greptimedb
```
Start a GreptimeDB container with:
```shell
docker run -p 127.0.0.1:4000-4003:4000-4003 \
-v "$(pwd)/greptimedb_data:/greptimedb_data" \
-v "$(pwd)/greptimedb:/tmp/greptimedb" \
--name greptime --rm \
greptime/greptimedb:latest standalone start \
--http-addr 0.0.0.0:4000 \
@@ -131,96 +120,112 @@ docker run -p 127.0.0.1:4000-4003:4000-4003 \
--mysql-addr 0.0.0.0:4002 \
--postgres-addr 0.0.0.0:4003
```
Dashboard: [http://localhost:4000/dashboard](http://localhost:4000/dashboard)
Read more in the [full Install Guide](https://docs.greptime.com/getting-started/installation/overview).
Access the dashboard via `http://localhost:4000/dashboard`.
**Troubleshooting:**
* Cannot connect to the database? Ensure that ports `4000`, `4001`, `4002`, and `4003` are not blocked by a firewall or used by other services.
* Failed to start? Check the container logs with `docker logs greptime` for further details.
Read more about [Installation](https://docs.greptime.com/getting-started/installation/overview) on docs.
## Getting Started
- [Quickstart](https://docs.greptime.com/getting-started/quick-start)
- [User Guide](https://docs.greptime.com/user-guide/overview)
- [Demo Scenes](https://github.com/GreptimeTeam/demo-scene)
- [FAQ](https://docs.greptime.com/faq-and-others/faq)
* [Quickstart](https://docs.greptime.com/getting-started/quick-start)
* [User Guide](https://docs.greptime.com/user-guide/overview)
* [Demos](https://github.com/GreptimeTeam/demo-scene)
* [FAQ](https://docs.greptime.com/faq-and-others/faq)
## Build From Source
## Build
Check the prerequisite:
**Prerequisites:**
* [Rust toolchain](https://www.rust-lang.org/tools/install) (nightly)
* [Protobuf compiler](https://grpc.io/docs/protoc-installation/) (>= 3.15)
* C/C++ building essentials, including `gcc`/`g++`/`autoconf` and glibc library (eg. `libc6-dev` on Ubuntu and `glibc-devel` on Fedora)
* Python toolchain (optional): Required only if using some test scripts.
**Build and Run:**
```bash
Build GreptimeDB binary:
```shell
make
```
Run a standalone server:
```shell
cargo run -- standalone start
```
## Tools & Extensions
- **Kubernetes**: [GreptimeDB Operator](https://github.com/GrepTimeTeam/greptimedb-operator)
- **Helm Charts**: [Greptime Helm Charts](https://github.com/GreptimeTeam/helm-charts)
- **Dashboard**: [Web UI](https://github.com/GreptimeTeam/dashboard)
- **gRPC Ingester**: [Go](https://github.com/GreptimeTeam/greptimedb-ingester-go), [Java](https://github.com/GreptimeTeam/greptimedb-ingester-java), [C++](https://github.com/GreptimeTeam/greptimedb-ingester-cpp), [Erlang](https://github.com/GreptimeTeam/greptimedb-ingester-erl), [Rust](https://github.com/GreptimeTeam/greptimedb-ingester-rust)
- **Grafana Data Source**: [GreptimeDB Grafana data source plugin](https://github.com/GreptimeTeam/greptimedb-grafana-datasource)
- **Grafana Dashboard**: [Official Dashboard for monitoring](https://github.com/GreptimeTeam/greptimedb/blob/main/grafana/README.md)
### Kubernetes
- [GreptimeDB Operator](https://github.com/GrepTimeTeam/greptimedb-operator)
### Dashboard
- [The dashboard UI for GreptimeDB](https://github.com/GreptimeTeam/dashboard)
### SDK
- [GreptimeDB Go Ingester](https://github.com/GreptimeTeam/greptimedb-ingester-go)
- [GreptimeDB Java Ingester](https://github.com/GreptimeTeam/greptimedb-ingester-java)
- [GreptimeDB C++ Ingester](https://github.com/GreptimeTeam/greptimedb-ingester-cpp)
- [GreptimeDB Erlang Ingester](https://github.com/GreptimeTeam/greptimedb-ingester-erl)
- [GreptimeDB Rust Ingester](https://github.com/GreptimeTeam/greptimedb-ingester-rust)
- [GreptimeDB JavaScript Ingester](https://github.com/GreptimeTeam/greptimedb-ingester-js)
### Grafana Dashboard
Our official Grafana dashboard for monitoring GreptimeDB is available at [grafana](grafana/README.md) directory.
## Project Status
> **Status:** Beta — marching toward v1.0 GA!
> **GA (v1.0):** January 10, 2026
GreptimeDB is currently in Beta. We are targeting GA (General Availability) with v1.0 release by Early 2025.
- Deployed in production by open-source projects and commercial users
- Stable, actively maintained, with regular releases ([version info](https://docs.greptime.com/nightly/reference/about-greptimedb-version))
- Suitable for evaluation and pilot deployments
While in Beta, GreptimeDB is already:
GreptimeDB v1.0 represents a major milestone toward maturity — marking stable APIs, production readiness, and proven performance.
**Roadmap:** Beta1 (Nov 10) → Beta2 (Nov 24) → RC1 (Dec 8) → GA (Jan 10, 2026), please read [v1.0 highlights and release plan](https://greptime.com/blogs/2025-11-05-greptimedb-v1-highlights) for details.
* Being used in production by early adopters
* Actively maintained with regular releases, [about version number](https://docs.greptime.com/nightly/reference/about-greptimedb-version)
* Suitable for testing and evaluation
For production use, we recommend using the latest stable release.
[![Star History Chart](https://api.star-history.com/svg?repos=GreptimeTeam/GreptimeDB&type=Date)](https://www.star-history.com/#GreptimeTeam/GreptimeDB&Date)
If you find this project useful, a ⭐ would mean a lot to us!
<img alt="Known Users" src="https://greptime.com/logo/img/users.png"/>
## Community
We invite you to engage and contribute!
Our core team is thrilled to see you participate in any ways you like. When you are stuck, try to
ask for help by filling an issue with a detailed description of what you were trying to do
and what went wrong. If you have any questions or if you would like to get involved in our
community, please check out:
- [Slack](https://greptime.com/slack)
- [Discussions](https://github.com/GreptimeTeam/greptimedb/discussions)
- [Official Website](https://greptime.com/)
- [Blog](https://greptime.com/blogs/)
- [LinkedIn](https://www.linkedin.com/company/greptime/)
- [X (Twitter)](https://X.com/greptime)
- [YouTube](https://www.youtube.com/@greptime)
- GreptimeDB Community on [Slack](https://greptime.com/slack)
- GreptimeDB [GitHub Discussions forum](https://github.com/GreptimeTeam/greptimedb/discussions)
- Greptime official [website](https://greptime.com)
## License
In addition, you may:
GreptimeDB is licensed under the [Apache License 2.0](https://apache.org/licenses/LICENSE-2.0.txt).
- View our official [Blog](https://greptime.com/blogs/)
- Connect us with [Linkedin](https://www.linkedin.com/company/greptime/)
- Follow us on [Twitter](https://twitter.com/greptime)
## Commercial Support
Running GreptimeDB in your organization?
We offer enterprise add-ons, services, training, and consulting.
[Contact us](https://greptime.com/contactus) for details.
If you are running GreptimeDB OSS in your organization, we offer additional
enterprise add-ons, installation services, training, and consulting. [Contact
us](https://greptime.com/contactus) and we will reach out to you with more
detail of our commercial license.
## License
GreptimeDB uses the [Apache License 2.0](https://apache.org/licenses/LICENSE-2.0.txt) to strike a balance between
open contributions and allowing you to use the software however you want.
## Contributing
- Read our [Contribution Guidelines](https://github.com/GreptimeTeam/greptimedb/blob/main/CONTRIBUTING.md).
- Explore [Internal Concepts](https://docs.greptime.com/contributor-guide/overview.html) and [DeepWiki](https://deepwiki.com/GreptimeTeam/greptimedb).
- Pick up a [good first issue](https://github.com/GreptimeTeam/greptimedb/issues?q=is%3Aissue+is%3Aopen+label%3A%22good+first+issue%22) and join the #contributors [Slack](https://greptime.com/slack) channel.
Please refer to [contribution guidelines](CONTRIBUTING.md) and [internal concepts docs](https://docs.greptime.com/contributor-guide/overview.html) for more information.
## Acknowledgement
Special thanks to all contributors! See [AUTHORS.md](https://github.com/GreptimeTeam/greptimedb/blob/main/AUTHOR.md).
Special thanks to all the contributors who have propelled GreptimeDB forward. For a complete list of contributors, please refer to [AUTHOR.md](AUTHOR.md).
- Uses [Apache Arrow™](https://arrow.apache.org/) (memory model)
- [Apache Parquet](https://parquet.apache.org/) (file storage)
- [Apache DataFusion](https://arrow.apache.org/datafusion/) (query engine)
- [Apache OpenDAL™](https://opendal.apache.org/) (data access abstraction)
- GreptimeDB uses [Apache Arrow™](https://arrow.apache.org/) as the memory model and [Apache Parquet™](https://parquet.apache.org/) as the persistent file format.
- GreptimeDB's query engine is powered by [Apache Arrow DataFusion](https://arrow.apache.org/datafusion/).
- [Apache OpenDAL](https://opendal.apache.org) gives GreptimeDB a very general and elegant data access abstraction layer.
- GreptimeDB's meta service is based on [etcd](https://etcd.io/).

View File

@@ -12,11 +12,11 @@
| Key | Type | Default | Descriptions |
| --- | -----| ------- | ----------- |
| `mode` | String | `standalone` | The running mode of the datanode. It can be `standalone` or `distributed`. |
| `default_timezone` | String | Unset | The default timezone of the server. |
| `default_column_prefix` | String | Unset | The default column prefix for auto-created time index and value columns. |
| `init_regions_in_background` | Bool | `false` | Initialize all regions in the background during the startup.<br/>By default, it provides services after all regions have been initialized. |
| `init_regions_parallelism` | Integer | `16` | Parallelism of initializing regions. |
| `max_concurrent_queries` | Integer | `0` | The maximum current queries allowed to be executed. Zero means unlimited.<br/>NOTE: This setting affects scan_memory_limit's privileged tier allocation.<br/>When set, 70% of queries get privileged memory access (full scan_memory_limit).<br/>The remaining 30% get standard tier access (70% of scan_memory_limit). |
| `max_concurrent_queries` | Integer | `0` | The maximum current queries allowed to be executed. Zero means unlimited. |
| `enable_telemetry` | Bool | `true` | Enable telemetry to collect anonymous usage data. Enabled by default. |
| `max_in_flight_write_bytes` | String | Unset | The maximum in-flight write bytes. |
| `runtime` | -- | -- | The runtime options. |
@@ -24,17 +24,13 @@
| `runtime.compact_rt_size` | Integer | `4` | The number of threads to execute the runtime for global write operations. |
| `http` | -- | -- | The HTTP server options. |
| `http.addr` | String | `127.0.0.1:4000` | The address to bind the HTTP server. |
| `http.timeout` | String | `0s` | HTTP request timeout. Set to 0 to disable timeout. |
| `http.timeout` | String | `30s` | HTTP request timeout. Set to 0 to disable timeout. |
| `http.body_limit` | String | `64MB` | HTTP request body limit.<br/>The following units are supported: `B`, `KB`, `KiB`, `MB`, `MiB`, `GB`, `GiB`, `TB`, `TiB`, `PB`, `PiB`.<br/>Set to 0 to disable limit. |
| `http.max_total_body_memory` | String | Unset | Maximum total memory for all concurrent HTTP request bodies.<br/>Set to 0 to disable the limit. Default: "0" (unlimited) |
| `http.enable_cors` | Bool | `true` | HTTP CORS support, it's turned on by default<br/>This allows browser to access http APIs without CORS restrictions |
| `http.cors_allowed_origins` | Array | Unset | Customize allowed origins for HTTP CORS. |
| `http.prom_validation_mode` | String | `strict` | Whether to enable validation for Prometheus remote write requests.<br/>Available options:<br/>- strict: deny invalid UTF-8 strings (default).<br/>- lossy: allow invalid UTF-8 strings, replace invalid characters with REPLACEMENT_CHARACTER(U+FFFD).<br/>- unchecked: do not valid strings. |
| `grpc` | -- | -- | The gRPC server options. |
| `grpc.bind_addr` | String | `127.0.0.1:4001` | The address to bind the gRPC server. |
| `grpc.runtime_size` | Integer | `8` | The number of server worker threads. |
| `grpc.max_total_message_memory` | String | Unset | Maximum total memory for all concurrent gRPC request messages.<br/>Set to 0 to disable the limit. Default: "0" (unlimited) |
| `grpc.max_connection_age` | String | Unset | The maximum connection age for gRPC connection.<br/>The value can be a human-readable time string. For example: `10m` for ten minutes or `1h` for one hour.<br/>Refer to https://grpc.io/docs/guides/keepalive/ for more details. |
| `grpc.tls` | -- | -- | gRPC server TLS options, see `mysql.tls` section. |
| `grpc.tls.mode` | String | `disable` | TLS mode. |
| `grpc.tls.cert_path` | String | Unset | Certificate file path. |
@@ -45,7 +41,6 @@
| `mysql.addr` | String | `127.0.0.1:4002` | The addr to bind the MySQL server. |
| `mysql.runtime_size` | Integer | `2` | The number of server worker threads. |
| `mysql.keep_alive` | String | `0s` | Server-side keep-alive time.<br/>Set to 0 (default) to disable. |
| `mysql.prepared_stmt_cache_size` | Integer | `10000` | Maximum entries in the MySQL prepared statement cache; default is 10,000. |
| `mysql.tls` | -- | -- | -- |
| `mysql.tls.mode` | String | `disable` | TLS mode, refer to https://www.postgresql.org/docs/current/libpq-ssl.html<br/>- `disable` (default value)<br/>- `prefer`<br/>- `require`<br/>- `verify-ca`<br/>- `verify-full` |
| `mysql.tls.cert_path` | String | Unset | Certificate file path. |
@@ -83,8 +78,6 @@
| `wal.sync_period` | String | `10s` | Duration for fsyncing log files.<br/>**It's only used when the provider is `raft_engine`**. |
| `wal.recovery_parallelism` | Integer | `2` | Parallelism during WAL recovery. |
| `wal.broker_endpoints` | Array | -- | The Kafka broker endpoints.<br/>**It's only used when the provider is `kafka`**. |
| `wal.connect_timeout` | String | `3s` | The connect timeout for kafka client.<br/>**It's only used when the provider is `kafka`**. |
| `wal.timeout` | String | `3s` | The timeout for kafka client.<br/>**It's only used when the provider is `kafka`**. |
| `wal.auto_create_topics` | Bool | `true` | Automatically create topics for WAL.<br/>Set to `true` to automatically create topics for WAL.<br/>Otherwise, use topics named `topic_name_prefix_[0..num_topics)` |
| `wal.num_topics` | Integer | `64` | Number of topics.<br/>**It's only used when the provider is `kafka`**. |
| `wal.selector_type` | String | `round_robin` | Topic selector type.<br/>Available selector types:<br/>- `round_robin` (default)<br/>**It's only used when the provider is `kafka`**. |
@@ -93,6 +86,10 @@
| `wal.create_topic_timeout` | String | `30s` | Above which a topic creation operation will be cancelled.<br/>**It's only used when the provider is `kafka`**. |
| `wal.max_batch_bytes` | String | `1MB` | The max size of a single producer batch.<br/>Warning: Kafka has a default limit of 1MB per message in a topic.<br/>**It's only used when the provider is `kafka`**. |
| `wal.consumer_wait_timeout` | String | `100ms` | The consumer wait timeout.<br/>**It's only used when the provider is `kafka`**. |
| `wal.backoff_init` | String | `500ms` | The initial backoff delay.<br/>**It's only used when the provider is `kafka`**. |
| `wal.backoff_max` | String | `10s` | The maximum backoff delay.<br/>**It's only used when the provider is `kafka`**. |
| `wal.backoff_base` | Integer | `2` | The exponential backoff rate, i.e. next backoff = base * current backoff.<br/>**It's only used when the provider is `kafka`**. |
| `wal.backoff_deadline` | String | `5mins` | The deadline of retries.<br/>**It's only used when the provider is `kafka`**. |
| `wal.overwrite_entry_start_id` | Bool | `false` | Ignore missing entries during read WAL.<br/>**It's only used when the provider is `kafka`**.<br/><br/>This option ensures that when Kafka messages are deleted, the system<br/>can still successfully replay memtable data without throwing an<br/>out-of-range error.<br/>However, enabling this option might lead to unexpected data loss,<br/>as the system will skip over missing entries instead of treating<br/>them as critical errors. |
| `metadata_store` | -- | -- | Metadata storage options. |
| `metadata_store.file_size` | String | `64MB` | The size of the metadata store log file. |
@@ -101,15 +98,13 @@
| `procedure` | -- | -- | Procedure storage options. |
| `procedure.max_retry_times` | Integer | `3` | Procedure max retry time. |
| `procedure.retry_delay` | String | `500ms` | Initial retry delay of procedures, increases exponentially |
| `procedure.max_running_procedures` | Integer | `128` | Max running procedures.<br/>The maximum number of procedures that can be running at the same time.<br/>If the number of running procedures exceeds this limit, the procedure will be rejected. |
| `flow` | -- | -- | flow engine options. |
| `flow.num_workers` | Integer | `0` | The number of flow worker in flownode.<br/>Not setting(or set to 0) this value will use the number of CPU cores divided by 2. |
| `query` | -- | -- | The query engine options. |
| `query.parallelism` | Integer | `0` | Parallelism of the query engine.<br/>Default to 0, which means the number of CPU cores. |
| `query.memory_pool_size` | String | `50%` | Memory pool size for query execution operators (aggregation, sorting, join).<br/>Supports absolute size (e.g., "2GB", "4GB") or percentage of system memory (e.g., "20%").<br/>Setting it to 0 disables the limit (unbounded, default behavior).<br/>When this limit is reached, queries will fail with ResourceExhausted error.<br/>NOTE: This does NOT limit memory used by table scans. |
| `storage` | -- | -- | The data storage options. |
| `storage.data_home` | String | `./greptimedb_data` | The working home directory. |
| `storage.data_home` | String | `/tmp/greptimedb/` | The working home directory. |
| `storage.type` | String | `File` | The storage type used to store the data.<br/>- `File`: the data is stored in the local file system.<br/>- `S3`: the data is stored in the S3 object storage.<br/>- `Gcs`: the data is stored in the Google Cloud Storage.<br/>- `Azblob`: the data is stored in the Azure Blob Storage.<br/>- `Oss`: the data is stored in the Aliyun OSS. |
| `storage.cache_path` | String | Unset | Read cache configuration for object storage such as 'S3' etc, it's configured by default when using object storage. It is recommended to configure it when using object storage for better performance.<br/>A local file directory, defaults to `{data_home}`. An empty string means disabling. |
| `storage.cache_capacity` | String | Unset | The local file cache capacity in bytes. If your disk space is sufficient, it is recommended to set it larger. |
| `storage.bucket` | String | Unset | The S3 bucket name.<br/>**It's only used when the storage type is `S3`, `Oss` and `Gcs`**. |
| `storage.root` | String | Unset | The S3 data will be stored in the specified prefix, for example, `s3://${bucket}/${root}`.<br/>**It's only used when the storage type is `S3`, `Oss` and `Azblob`**. |
| `storage.access_key_id` | String | Unset | The access key id of the aws account.<br/>It's **highly recommended** to use AWS IAM roles instead of hardcoding the access key id and secret key.<br/>**It's only used when the storage type is `S3` and `Oss`**. |
@@ -129,7 +124,6 @@
| `storage.http_client.connect_timeout` | String | `30s` | The timeout for only the connect phase of a http client. |
| `storage.http_client.timeout` | String | `30s` | The total request timeout, applied from when the request starts connecting until the response body has finished.<br/>Also considered a total deadline. |
| `storage.http_client.pool_idle_timeout` | String | `90s` | The timeout for idle sockets being kept-alive. |
| `storage.http_client.skip_ssl_validation` | Bool | `false` | To skip the ssl verification<br/>**Security Notice**: Setting `skip_ssl_validation = true` disables certificate verification, making connections vulnerable to man-in-the-middle attacks. Only use this in development or trusted private networks. |
| `[[region_engine]]` | -- | -- | The region engine options. You can configure multiple region engines. |
| `region_engine.mito` | -- | -- | The Mito engine options. |
| `region_engine.mito.num_workers` | Integer | `8` | Number of region workers. |
@@ -140,8 +134,6 @@
| `region_engine.mito.max_background_flushes` | Integer | Auto | Max number of running background flush jobs (default: 1/2 of cpu cores). |
| `region_engine.mito.max_background_compactions` | Integer | Auto | Max number of running background compaction jobs (default: 1/4 of cpu cores). |
| `region_engine.mito.max_background_purges` | Integer | Auto | Max number of running background purge jobs (default: number of cpu cores). |
| `region_engine.mito.experimental_compaction_memory_limit` | String | 0 | Memory budget for compaction tasks. Setting it to 0 or "unlimited" disables the limit. |
| `region_engine.mito.experimental_compaction_on_exhausted` | String | wait | Behavior when compaction cannot acquire memory from the budget.<br/>Options: "wait" (default, 10s), "wait(<duration>)", "fail" |
| `region_engine.mito.auto_flush_interval` | String | `1h` | Interval to auto flush a region if it has not flushed yet. |
| `region_engine.mito.global_write_buffer_size` | String | Auto | Global write buffer size for all regions. If not set, it's default to 1/8 of OS memory with a max limitation of 1GB. |
| `region_engine.mito.global_write_buffer_reject_size` | String | Auto | Global write buffer size threshold to reject write requests. If not set, it's default to 2 times of `global_write_buffer_size`. |
@@ -153,17 +145,10 @@
| `region_engine.mito.write_cache_path` | String | `""` | File system path for write cache, defaults to `{data_home}`. |
| `region_engine.mito.write_cache_size` | String | `5GiB` | Capacity for write cache. If your disk space is sufficient, it is recommended to set it larger. |
| `region_engine.mito.write_cache_ttl` | String | Unset | TTL for write cache. |
| `region_engine.mito.preload_index_cache` | Bool | `true` | Preload index (puffin) files into cache on region open (default: true).<br/>When enabled, index files are loaded into the write cache during region initialization,<br/>which can improve query performance at the cost of longer startup times. |
| `region_engine.mito.index_cache_percent` | Integer | `20` | Percentage of write cache capacity allocated for index (puffin) files (default: 20).<br/>The remaining capacity is used for data (parquet) files.<br/>Must be between 0 and 100 (exclusive). For example, with a 5GiB write cache and 20% allocation,<br/>1GiB is reserved for index files and 4GiB for data files. |
| `region_engine.mito.enable_refill_cache_on_read` | Bool | `true` | Enable refilling cache on read operations (default: true).<br/>When disabled, cache refilling on read won't happen. |
| `region_engine.mito.manifest_cache_size` | String | `256MB` | Capacity for manifest cache (default: 256MB). |
| `region_engine.mito.sst_write_buffer_size` | String | `8MB` | Buffer size for SST writing. |
| `region_engine.mito.parallel_scan_channel_size` | Integer | `32` | Capacity of the channel to send data from parallel scan tasks to the main task. |
| `region_engine.mito.max_concurrent_scan_files` | Integer | `384` | Maximum number of SST files to scan concurrently. |
| `region_engine.mito.allow_stale_entries` | Bool | `false` | Whether to allow stale WAL entries read during replay. |
| `region_engine.mito.scan_memory_limit` | String | `50%` | Memory limit for table scans across all queries.<br/>Supports absolute size (e.g., "2GB") or percentage of system memory (e.g., "20%").<br/>Setting it to 0 disables the limit.<br/>NOTE: Works with max_concurrent_queries for tiered memory allocation.<br/>- If max_concurrent_queries is set: 70% of queries get full access, 30% get 70% access.<br/>- If max_concurrent_queries is 0 (unlimited): first 20 queries get full access, rest get 70% access. |
| `region_engine.mito.min_compaction_interval` | String | `0m` | Minimum time interval between two compactions.<br/>To align with the old behavior, the default value is 0 (no restrictions). |
| `region_engine.mito.default_experimental_flat_format` | Bool | `false` | Whether to enable experimental flat format as the default format. |
| `region_engine.mito.index` | -- | -- | The options for index in Mito engine. |
| `region_engine.mito.index.aux_path` | String | `""` | Auxiliary directory path for the index in filesystem, used to store intermediate files for<br/>creating the index and staging files for searching the index, defaults to `{data_home}/index_intermediate`.<br/>The default name for this directory is `index_intermediate` for backward compatibility.<br/><br/>This path contains two subdirectories:<br/>- `__intm`: for storing intermediate files used during creating index.<br/>- `staging`: for storing staging files used during searching index. |
| `region_engine.mito.index.staging_size` | String | `2GB` | The max capacity of the staging directory. |
@@ -171,7 +156,6 @@
| `region_engine.mito.index.metadata_cache_size` | String | `64MiB` | Cache size for inverted index metadata. |
| `region_engine.mito.index.content_cache_size` | String | `128MiB` | Cache size for inverted index content. |
| `region_engine.mito.index.content_cache_page_size` | String | `64KiB` | Page size for inverted index content cache. |
| `region_engine.mito.index.result_cache_size` | String | `128MiB` | Cache size for index result. |
| `region_engine.mito.inverted_index` | -- | -- | The options for inverted index in Mito engine. |
| `region_engine.mito.inverted_index.create_on_flush` | String | `auto` | Whether to create the index on flush.<br/>- `auto`: automatically (default)<br/>- `disable`: never |
| `region_engine.mito.inverted_index.create_on_compaction` | String | `auto` | Whether to create the index on compaction.<br/>- `auto`: automatically (default)<br/>- `disable`: never |
@@ -195,28 +179,31 @@
| `region_engine.mito.memtable.fork_dictionary_bytes` | String | `1GiB` | Max dictionary bytes.<br/>Only available for `partition_tree` memtable. |
| `region_engine.file` | -- | -- | Enable the file engine. |
| `region_engine.metric` | -- | -- | Metric engine options. |
| `region_engine.metric.sparse_primary_key_encoding` | Bool | `true` | Whether to use sparse primary key encoding. |
| `region_engine.metric.experimental_sparse_primary_key_encoding` | Bool | `false` | Whether to enable the experimental sparse primary key encoding. |
| `logging` | -- | -- | The logging options. |
| `logging.dir` | String | `./greptimedb_data/logs` | The directory to store the log files. If set to empty, logs will not be written to files. |
| `logging.dir` | String | `/tmp/greptimedb/logs` | The directory to store the log files. If set to empty, logs will not be written to files. |
| `logging.level` | String | Unset | The log level. Can be `info`/`debug`/`warn`/`error`. |
| `logging.enable_otlp_tracing` | Bool | `false` | Enable OTLP tracing. |
| `logging.otlp_endpoint` | String | `http://localhost:4318/v1/traces` | The OTLP tracing endpoint. |
| `logging.otlp_endpoint` | String | `http://localhost:4317` | The OTLP tracing endpoint. |
| `logging.append_stdout` | Bool | `true` | Whether to append logs to stdout. |
| `logging.log_format` | String | `text` | The log format. Can be `text`/`json`. |
| `logging.max_log_files` | Integer | `720` | The maximum amount of log files. |
| `logging.otlp_export_protocol` | String | `http` | The OTLP tracing export protocol. Can be `grpc`/`http`. |
| `logging.otlp_headers` | -- | -- | Additional OTLP headers, only valid when using OTLP http |
| `logging.tracing_sample_ratio` | -- | Unset | The percentage of tracing will be sampled and exported.<br/>Valid range `[0, 1]`, 1 means all traces are sampled, 0 means all traces are not sampled, the default value is 1.<br/>ratio > 1 are treated as 1. Fractions < 0 are treated as 0 |
| `logging.tracing_sample_ratio` | -- | -- | The percentage of tracing will be sampled and exported.<br/>Valid range `[0, 1]`, 1 means all traces are sampled, 0 means all traces are not sampled, the default value is 1.<br/>ratio > 1 are treated as 1. Fractions < 0 are treated as 0 |
| `logging.tracing_sample_ratio.default_ratio` | Float | `1.0` | -- |
| `slow_query` | -- | -- | The slow query log options. |
| `slow_query.enable` | Bool | `false` | Whether to enable slow query log. |
| `slow_query.record_type` | String | Unset | The record type of slow queries. It can be `system_table` or `log`. |
| `slow_query.threshold` | String | Unset | The threshold of slow query. |
| `slow_query.sample_ratio` | Float | Unset | The sampling ratio of slow query log. The value should be in the range of (0, 1]. |
| `logging.slow_query` | -- | -- | The slow query log options. |
| `logging.slow_query.enable` | Bool | `false` | Whether to enable slow query log. |
| `logging.slow_query.threshold` | String | Unset | The threshold of slow query. |
| `logging.slow_query.sample_ratio` | Float | Unset | The sampling ratio of slow query log. The value should be in the range of (0, 1]. |
| `export_metrics` | -- | -- | The datanode can export its metrics and send to Prometheus compatible service (e.g. send to `greptimedb` itself) from remote-write API.<br/>This is only used for `greptimedb` to export its own metrics internally. It's different from prometheus scrape. |
| `export_metrics.enable` | Bool | `false` | whether enable export metrics. |
| `export_metrics.write_interval` | String | `30s` | The interval of export metrics. |
| `export_metrics.self_import` | -- | -- | For `standalone` mode, `self_import` is recommended to collect metrics generated by itself<br/>You must create the database before enabling it. |
| `export_metrics.self_import.db` | String | Unset | -- |
| `export_metrics.remote_write` | -- | -- | -- |
| `export_metrics.remote_write.url` | String | `""` | The url the metrics send to. The url example can be: `http://127.0.0.1:4000/v1/prometheus/write?db=greptime_metrics`. |
| `export_metrics.remote_write.headers` | InlineTable | -- | HTTP headers of Prometheus remote-write carry. |
| `tracing` | -- | -- | The tracing options. Only effect when compiled with `tokio-console` feature. |
| `tracing.tokio_console_addr` | String | Unset | The tokio console address. |
| `memory` | -- | -- | The memory options. |
| `memory.enable_heap_profiling` | Bool | `true` | Whether to enable heap profiling activation during startup.<br/>When enabled, heap profiling will be activated if the `MALLOC_CONF` environment variable<br/>is set to "prof:true,prof_active:false". The official image adds this env variable.<br/>Default is true. |
## Distributed Mode
@@ -226,7 +213,6 @@
| Key | Type | Default | Descriptions |
| --- | -----| ------- | ----------- |
| `default_timezone` | String | Unset | The default timezone of the server. |
| `default_column_prefix` | String | Unset | The default column prefix for auto-created time index and value columns. |
| `max_in_flight_write_bytes` | String | Unset | The maximum in-flight write bytes. |
| `runtime` | -- | -- | The runtime options. |
| `runtime.global_rt_size` | Integer | `8` | The number of threads to execute the runtime for global read operations. |
@@ -236,40 +222,24 @@
| `heartbeat.retry_interval` | String | `3s` | Interval for retrying to send heartbeat messages to the metasrv. |
| `http` | -- | -- | The HTTP server options. |
| `http.addr` | String | `127.0.0.1:4000` | The address to bind the HTTP server. |
| `http.timeout` | String | `0s` | HTTP request timeout. Set to 0 to disable timeout. |
| `http.timeout` | String | `30s` | HTTP request timeout. Set to 0 to disable timeout. |
| `http.body_limit` | String | `64MB` | HTTP request body limit.<br/>The following units are supported: `B`, `KB`, `KiB`, `MB`, `MiB`, `GB`, `GiB`, `TB`, `TiB`, `PB`, `PiB`.<br/>Set to 0 to disable limit. |
| `http.max_total_body_memory` | String | Unset | Maximum total memory for all concurrent HTTP request bodies.<br/>Set to 0 to disable the limit. Default: "0" (unlimited) |
| `http.enable_cors` | Bool | `true` | HTTP CORS support, it's turned on by default<br/>This allows browser to access http APIs without CORS restrictions |
| `http.cors_allowed_origins` | Array | Unset | Customize allowed origins for HTTP CORS. |
| `http.prom_validation_mode` | String | `strict` | Whether to enable validation for Prometheus remote write requests.<br/>Available options:<br/>- strict: deny invalid UTF-8 strings (default).<br/>- lossy: allow invalid UTF-8 strings, replace invalid characters with REPLACEMENT_CHARACTER(U+FFFD).<br/>- unchecked: do not valid strings. |
| `grpc` | -- | -- | The gRPC server options. |
| `grpc.bind_addr` | String | `127.0.0.1:4001` | The address to bind the gRPC server. |
| `grpc.server_addr` | String | `127.0.0.1:4001` | The address advertised to the metasrv, and used for connections from outside the host.<br/>If left empty or unset, the server will automatically use the IP address of the first network interface<br/>on the host, with the same port number as the one specified in `grpc.bind_addr`. |
| `grpc.runtime_size` | Integer | `8` | The number of server worker threads. |
| `grpc.max_total_message_memory` | String | Unset | Maximum total memory for all concurrent gRPC request messages.<br/>Set to 0 to disable the limit. Default: "0" (unlimited) |
| `grpc.flight_compression` | String | `arrow_ipc` | Compression mode for frontend side Arrow IPC service. Available options:<br/>- `none`: disable all compression<br/>- `transport`: only enable gRPC transport compression (zstd)<br/>- `arrow_ipc`: only enable Arrow IPC compression (lz4)<br/>- `all`: enable all compression.<br/>Default to `none` |
| `grpc.max_connection_age` | String | Unset | The maximum connection age for gRPC connection.<br/>The value can be a human-readable time string. For example: `10m` for ten minutes or `1h` for one hour.<br/>Refer to https://grpc.io/docs/guides/keepalive/ for more details. |
| `grpc.tls` | -- | -- | gRPC server TLS options, see `mysql.tls` section. |
| `grpc.tls.mode` | String | `disable` | TLS mode. |
| `grpc.tls.cert_path` | String | Unset | Certificate file path. |
| `grpc.tls.key_path` | String | Unset | Private key file path. |
| `grpc.tls.watch` | Bool | `false` | Watch for Certificate and key file change and auto reload.<br/>For now, gRPC tls config does not support auto reload. |
| `internal_grpc` | -- | -- | The internal gRPC server options. Internal gRPC port for nodes inside cluster to access frontend. |
| `internal_grpc.bind_addr` | String | `127.0.0.1:4010` | The address to bind the gRPC server. |
| `internal_grpc.server_addr` | String | `127.0.0.1:4010` | The address advertised to the metasrv, and used for connections from outside the host.<br/>If left empty or unset, the server will automatically use the IP address of the first network interface<br/>on the host, with the same port number as the one specified in `grpc.bind_addr`. |
| `internal_grpc.runtime_size` | Integer | `8` | The number of server worker threads. |
| `internal_grpc.flight_compression` | String | `arrow_ipc` | Compression mode for frontend side Arrow IPC service. Available options:<br/>- `none`: disable all compression<br/>- `transport`: only enable gRPC transport compression (zstd)<br/>- `arrow_ipc`: only enable Arrow IPC compression (lz4)<br/>- `all`: enable all compression.<br/>Default to `none` |
| `internal_grpc.tls` | -- | -- | internal gRPC server TLS options, see `mysql.tls` section. |
| `internal_grpc.tls.mode` | String | `disable` | TLS mode. |
| `internal_grpc.tls.cert_path` | String | Unset | Certificate file path. |
| `internal_grpc.tls.key_path` | String | Unset | Private key file path. |
| `internal_grpc.tls.watch` | Bool | `false` | Watch for Certificate and key file change and auto reload.<br/>For now, gRPC tls config does not support auto reload. |
| `mysql` | -- | -- | MySQL server options. |
| `mysql.enable` | Bool | `true` | Whether to enable. |
| `mysql.addr` | String | `127.0.0.1:4002` | The addr to bind the MySQL server. |
| `mysql.runtime_size` | Integer | `2` | The number of server worker threads. |
| `mysql.keep_alive` | String | `0s` | Server-side keep-alive time.<br/>Set to 0 (default) to disable. |
| `mysql.prepared_stmt_cache_size` | Integer | `10000` | Maximum entries in the MySQL prepared statement cache; default is 10,000. |
| `mysql.tls` | -- | -- | -- |
| `mysql.tls.mode` | String | `disable` | TLS mode, refer to https://www.postgresql.org/docs/current/libpq-ssl.html<br/>- `disable` (default value)<br/>- `prefer`<br/>- `require`<br/>- `verify-ca`<br/>- `verify-full` |
| `mysql.tls.cert_path` | String | Unset | Certificate file path. |
@@ -297,98 +267,72 @@
| `meta_client` | -- | -- | The metasrv client options. |
| `meta_client.metasrv_addrs` | Array | -- | The addresses of the metasrv. |
| `meta_client.timeout` | String | `3s` | Operation timeout. |
| `meta_client.heartbeat_timeout` | String | `500ms` | Heartbeat timeout. |
| `meta_client.ddl_timeout` | String | `10s` | DDL timeout. |
| `meta_client.connect_timeout` | String | `1s` | Connect server timeout. |
| `meta_client.tcp_nodelay` | Bool | `true` | `TCP_NODELAY` option for accepted connections. |
| `meta_client.metadata_cache_max_capacity` | Integer | `100000` | The configuration about the cache of the metadata. |
| `meta_client.metadata_cache_ttl` | String | `10m` | TTL of the metadata cache. |
| `meta_client.metadata_cache_tti` | String | `5m` | -- |
| `query` | -- | -- | The query engine options. |
| `query.parallelism` | Integer | `0` | Parallelism of the query engine.<br/>Default to 0, which means the number of CPU cores. |
| `query.allow_query_fallback` | Bool | `false` | Whether to allow query fallback when push down optimize fails.<br/>Default to false, meaning when push down optimize failed, return error msg |
| `query.memory_pool_size` | String | `50%` | Memory pool size for query execution operators (aggregation, sorting, join).<br/>Supports absolute size (e.g., "4GB", "8GB") or percentage of system memory (e.g., "30%").<br/>Setting it to 0 disables the limit (unbounded, default behavior).<br/>When this limit is reached, queries will fail with ResourceExhausted error.<br/>NOTE: This does NOT limit memory used by table scans (only applies to datanodes). |
| `datanode` | -- | -- | Datanode options. |
| `datanode.client` | -- | -- | Datanode client options. |
| `datanode.client.connect_timeout` | String | `10s` | -- |
| `datanode.client.tcp_nodelay` | Bool | `true` | -- |
| `logging` | -- | -- | The logging options. |
| `logging.dir` | String | `./greptimedb_data/logs` | The directory to store the log files. If set to empty, logs will not be written to files. |
| `logging.dir` | String | `/tmp/greptimedb/logs` | The directory to store the log files. If set to empty, logs will not be written to files. |
| `logging.level` | String | Unset | The log level. Can be `info`/`debug`/`warn`/`error`. |
| `logging.enable_otlp_tracing` | Bool | `false` | Enable OTLP tracing. |
| `logging.otlp_endpoint` | String | `http://localhost:4318/v1/traces` | The OTLP tracing endpoint. |
| `logging.otlp_endpoint` | String | `http://localhost:4317` | The OTLP tracing endpoint. |
| `logging.append_stdout` | Bool | `true` | Whether to append logs to stdout. |
| `logging.log_format` | String | `text` | The log format. Can be `text`/`json`. |
| `logging.max_log_files` | Integer | `720` | The maximum amount of log files. |
| `logging.otlp_export_protocol` | String | `http` | The OTLP tracing export protocol. Can be `grpc`/`http`. |
| `logging.otlp_headers` | -- | -- | Additional OTLP headers, only valid when using OTLP http |
| `logging.tracing_sample_ratio` | -- | Unset | The percentage of tracing will be sampled and exported.<br/>Valid range `[0, 1]`, 1 means all traces are sampled, 0 means all traces are not sampled, the default value is 1.<br/>ratio > 1 are treated as 1. Fractions < 0 are treated as 0 |
| `logging.tracing_sample_ratio` | -- | -- | The percentage of tracing will be sampled and exported.<br/>Valid range `[0, 1]`, 1 means all traces are sampled, 0 means all traces are not sampled, the default value is 1.<br/>ratio > 1 are treated as 1. Fractions < 0 are treated as 0 |
| `logging.tracing_sample_ratio.default_ratio` | Float | `1.0` | -- |
| `slow_query` | -- | -- | The slow query log options. |
| `slow_query.enable` | Bool | `true` | Whether to enable slow query log. |
| `slow_query.record_type` | String | `system_table` | The record type of slow queries. It can be `system_table` or `log`.<br/>If `system_table` is selected, the slow queries will be recorded in a system table `greptime_private.slow_queries`.<br/>If `log` is selected, the slow queries will be logged in a log file `greptimedb-slow-queries.*`. |
| `slow_query.threshold` | String | `30s` | The threshold of slow query. It can be human readable time string, for example: `10s`, `100ms`, `1s`. |
| `slow_query.sample_ratio` | Float | `1.0` | The sampling ratio of slow query log. The value should be in the range of (0, 1]. For example, `0.1` means 10% of the slow queries will be logged and `1.0` means all slow queries will be logged. |
| `slow_query.ttl` | String | `90d` | The TTL of the `slow_queries` system table. Default is `90d` when `record_type` is `system_table`. |
| `logging.slow_query` | -- | -- | The slow query log options. |
| `logging.slow_query.enable` | Bool | `false` | Whether to enable slow query log. |
| `logging.slow_query.threshold` | String | Unset | The threshold of slow query. |
| `logging.slow_query.sample_ratio` | Float | Unset | The sampling ratio of slow query log. The value should be in the range of (0, 1]. |
| `export_metrics` | -- | -- | The datanode can export its metrics and send to Prometheus compatible service (e.g. send to `greptimedb` itself) from remote-write API.<br/>This is only used for `greptimedb` to export its own metrics internally. It's different from prometheus scrape. |
| `export_metrics.enable` | Bool | `false` | whether enable export metrics. |
| `export_metrics.write_interval` | String | `30s` | The interval of export metrics. |
| `export_metrics.self_import` | -- | -- | For `standalone` mode, `self_import` is recommend to collect metrics generated by itself<br/>You must create the database before enabling it. |
| `export_metrics.self_import.db` | String | Unset | -- |
| `export_metrics.remote_write` | -- | -- | -- |
| `export_metrics.remote_write.url` | String | `""` | The url the metrics send to. The url example can be: `http://127.0.0.1:4000/v1/prometheus/write?db=greptime_metrics`. |
| `export_metrics.remote_write.headers` | InlineTable | -- | HTTP headers of Prometheus remote-write carry. |
| `tracing` | -- | -- | The tracing options. Only effect when compiled with `tokio-console` feature. |
| `tracing.tokio_console_addr` | String | Unset | The tokio console address. |
| `memory` | -- | -- | The memory options. |
| `memory.enable_heap_profiling` | Bool | `true` | Whether to enable heap profiling activation during startup.<br/>When enabled, heap profiling will be activated if the `MALLOC_CONF` environment variable<br/>is set to "prof:true,prof_active:false". The official image adds this env variable.<br/>Default is true. |
| `event_recorder` | -- | -- | Configuration options for the event recorder. |
| `event_recorder.ttl` | String | `90d` | TTL for the events table that will be used to store the events. Default is `90d`. |
### Metasrv
| Key | Type | Default | Descriptions |
| --- | -----| ------- | ----------- |
| `data_home` | String | `./greptimedb_data` | The working home directory. |
| `store_addrs` | Array | -- | Store server address(es). The format depends on the selected backend.<br/><br/>For etcd: a list of "host:port" endpoints.<br/>e.g. ["192.168.1.1:2379", "192.168.1.2:2379"]<br/><br/>For PostgreSQL: a connection string in libpq format or URI.<br/>e.g.<br/>- "host=localhost port=5432 user=postgres password=<PASSWORD> dbname=postgres"<br/>- "postgresql://user:password@localhost:5432/mydb?connect_timeout=10"<br/>The detail see: https://docs.rs/tokio-postgres/latest/tokio_postgres/config/struct.Config.html<br/><br/>For mysql store, the format is a MySQL connection URL.<br/>e.g. "mysql://user:password@localhost:3306/greptime_meta?ssl-mode=VERIFY_CA&ssl-ca=/path/to/ca.pem" |
| `data_home` | String | `/tmp/metasrv/` | The working home directory. |
| `bind_addr` | String | `127.0.0.1:3002` | The bind address of metasrv. |
| `server_addr` | String | `127.0.0.1:3002` | The communication server address for the frontend and datanode to connect to metasrv.<br/>If left empty or unset, the server will automatically use the IP address of the first network interface<br/>on the host, with the same port number as the one specified in `bind_addr`. |
| `store_addrs` | Array | -- | Store server address default to etcd store.<br/>For postgres store, the format is:<br/>"password=password dbname=postgres user=postgres host=localhost port=5432"<br/>For etcd store, the format is:<br/>"127.0.0.1:2379" |
| `store_key_prefix` | String | `""` | If it's not empty, the metasrv will store all data with this key prefix. |
| `backend` | String | `etcd_store` | The datastore for meta server.<br/>Available values:<br/>- `etcd_store` (default value)<br/>- `memory_store`<br/>- `postgres_store`<br/>- `mysql_store` |
| `backend` | String | `etcd_store` | The datastore for meta server.<br/>Available values:<br/>- `etcd_store` (default value)<br/>- `memory_store`<br/>- `postgres_store` |
| `meta_table_name` | String | `greptime_metakv` | Table name in RDS to store metadata. Effect when using a RDS kvbackend.<br/>**Only used when backend is `postgres_store`.** |
| `meta_schema_name` | String | `greptime_schema` | Optional PostgreSQL schema for metadata table and election table name qualification.<br/>When PostgreSQL public schema is not writable (e.g., PostgreSQL 15+ with restricted public),<br/>set this to a writable schema. GreptimeDB will use `meta_schema_name`.`meta_table_name`.<br/>GreptimeDB will NOT create the schema automatically; please ensure it exists or the user has permission.<br/>**Only used when backend is `postgres_store`.** |
| `meta_election_lock_id` | Integer | `1` | Advisory lock id in PostgreSQL for election. Effect when using PostgreSQL as kvbackend<br/>Only used when backend is `postgres_store`. |
| `selector` | String | `round_robin` | Datanode selector type.<br/>- `round_robin` (default value)<br/>- `lease_based`<br/>- `load_based`<br/>For details, please see "https://docs.greptime.com/developer-guide/metasrv/selector". |
| `use_memory_store` | Bool | `false` | Store data in memory. |
| `enable_region_failover` | Bool | `false` | Whether to enable region failover.<br/>This feature is only available on GreptimeDB running on cluster mode and<br/>- Using Remote WAL<br/>- Using shared storage (e.g., s3). |
| `region_failure_detector_initialization_delay` | String | `10m` | The delay before starting region failure detection.<br/>This delay helps prevent Metasrv from triggering unnecessary region failovers before all Datanodes are fully started.<br/>Especially useful when the cluster is not deployed with GreptimeDB Operator and maintenance mode is not enabled. |
| `allow_region_failover_on_local_wal` | Bool | `false` | Whether to allow region failover on local WAL.<br/>**This option is not recommended to be set to true, because it may lead to data loss during failover.** |
| `node_max_idle_time` | String | `24hours` | Max allowed idle time before removing node info from metasrv memory. |
| `heartbeat_interval` | String | `3s` | Base heartbeat interval for calculating distributed time constants.<br/>The frontend heartbeat interval is 6 times of the base heartbeat interval.<br/>The flownode/datanode heartbeat interval is 1 times of the base heartbeat interval.<br/>e.g., If the base heartbeat interval is 3s, the frontend heartbeat interval is 18s, the flownode/datanode heartbeat interval is 3s.<br/>If you change this value, you need to change the heartbeat interval of the flownode/frontend/datanode accordingly. |
| `enable_telemetry` | Bool | `true` | Whether to enable greptimedb telemetry. Enabled by default. |
| `runtime` | -- | -- | The runtime options. |
| `runtime.global_rt_size` | Integer | `8` | The number of threads to execute the runtime for global read operations. |
| `runtime.compact_rt_size` | Integer | `4` | The number of threads to execute the runtime for global write operations. |
| `backend_tls` | -- | -- | TLS configuration for kv store backend (applicable for etcd, PostgreSQL, and MySQL backends)<br/>When using etcd, PostgreSQL, or MySQL as metadata store, you can configure TLS here<br/><br/>Note: if TLS is configured in both this section and the `store_addrs` connection string, the<br/>settings here will override the TLS settings in `store_addrs`. |
| `backend_tls.mode` | String | `prefer` | TLS mode, refer to https://www.postgresql.org/docs/current/libpq-ssl.html<br/>- "disable" - No TLS<br/>- "prefer" (default) - Try TLS, fallback to plain<br/>- "require" - Require TLS<br/>- "verify_ca" - Require TLS and verify CA<br/>- "verify_full" - Require TLS and verify hostname |
| `backend_tls.cert_path` | String | `""` | Path to client certificate file (for client authentication)<br/>Like "/path/to/client.crt" |
| `backend_tls.key_path` | String | `""` | Path to client private key file (for client authentication)<br/>Like "/path/to/client.key" |
| `backend_tls.ca_cert_path` | String | `""` | Path to CA certificate file (for server certificate verification)<br/>Required when using custom CAs or self-signed certificates<br/>Leave empty to use system root certificates only<br/>Like "/path/to/ca.crt" |
| `backend_client` | -- | -- | The backend client options.<br/>Currently, only applicable when using etcd as the metadata store. |
| `backend_client.keep_alive_timeout` | String | `3s` | The keep alive timeout for backend client. |
| `backend_client.keep_alive_interval` | String | `10s` | The keep alive interval for backend client. |
| `backend_client.connect_timeout` | String | `3s` | The connect timeout for backend client. |
| `grpc` | -- | -- | The gRPC server options. |
| `grpc.bind_addr` | String | `127.0.0.1:3002` | The address to bind the gRPC server. |
| `grpc.server_addr` | String | `127.0.0.1:3002` | The communication server address for the frontend and datanode to connect to metasrv.<br/>If left empty or unset, the server will automatically use the IP address of the first network interface<br/>on the host, with the same port number as the one specified in `bind_addr`. |
| `grpc.runtime_size` | Integer | `8` | The number of server worker threads. |
| `grpc.max_recv_message_size` | String | `512MB` | The maximum receive message size for gRPC server. |
| `grpc.max_send_message_size` | String | `512MB` | The maximum send message size for gRPC server. |
| `grpc.http2_keep_alive_interval` | String | `10s` | The server side HTTP/2 keep-alive interval |
| `grpc.http2_keep_alive_timeout` | String | `3s` | The server side HTTP/2 keep-alive timeout. |
| `http` | -- | -- | The HTTP server options. |
| `http.addr` | String | `127.0.0.1:4000` | The address to bind the HTTP server. |
| `http.timeout` | String | `0s` | HTTP request timeout. Set to 0 to disable timeout. |
| `http.body_limit` | String | `64MB` | HTTP request body limit.<br/>The following units are supported: `B`, `KB`, `KiB`, `MB`, `MiB`, `GB`, `GiB`, `TB`, `TiB`, `PB`, `PiB`.<br/>Set to 0 to disable limit. |
| `procedure` | -- | -- | Procedure storage options. |
| `procedure.max_retry_times` | Integer | `12` | Procedure max retry time. |
| `procedure.retry_delay` | String | `500ms` | Initial retry delay of procedures, increases exponentially |
| `procedure.max_metadata_value_size` | String | `1500KiB` | Auto split large value<br/>GreptimeDB procedure uses etcd as the default metadata storage backend.<br/>The etcd the maximum size of any request is 1.5 MiB<br/>1500KiB = 1536KiB (1.5MiB) - 36KiB (reserved size of key)<br/>Comments out the `max_metadata_value_size`, for don't split large value (no limit). |
| `procedure.max_running_procedures` | Integer | `128` | Max running procedures.<br/>The maximum number of procedures that can be running at the same time.<br/>If the number of running procedures exceeds this limit, the procedure will be rejected. |
| `failure_detector` | -- | -- | -- |
| `failure_detector.threshold` | Float | `8.0` | Maximum acceptable φ before the peer is treated as failed.<br/>Lower values react faster but yield more false positives. |
| `failure_detector.min_std_deviation` | String | `100ms` | The minimum standard deviation of the heartbeat intervals.<br/>So tiny variations dont make φ explode. Prevents hypersensitivity when heartbeat intervals barely vary. |
| `failure_detector.acceptable_heartbeat_pause` | String | `10000ms` | The acceptable pause duration between heartbeats.<br/>Additional extra grace period to the learned mean interval before φ rises, absorbing temporary network hiccups or GC pauses. |
| `failure_detector.threshold` | Float | `8.0` | The threshold value used by the failure detector to determine failure conditions. |
| `failure_detector.min_std_deviation` | String | `100ms` | The minimum standard deviation of the heartbeat intervals, used to calculate acceptable variations. |
| `failure_detector.acceptable_heartbeat_pause` | String | `10000ms` | The acceptable pause duration between heartbeats, used to determine if a heartbeat interval is acceptable. |
| `failure_detector.first_heartbeat_estimate` | String | `1000ms` | The initial estimate of the heartbeat interval used by the failure detector. |
| `datanode` | -- | -- | Datanode options. |
| `datanode.client` | -- | -- | Datanode client options. |
| `datanode.client.timeout` | String | `10s` | Operation timeout. |
@@ -396,54 +340,57 @@
| `datanode.client.tcp_nodelay` | Bool | `true` | `TCP_NODELAY` option for accepted connections. |
| `wal` | -- | -- | -- |
| `wal.provider` | String | `raft_engine` | -- |
| `wal.broker_endpoints` | Array | -- | The broker endpoints of the Kafka cluster.<br/><br/>**It's only used when the provider is `kafka`**. |
| `wal.auto_create_topics` | Bool | `true` | Automatically create topics for WAL.<br/>Set to `true` to automatically create topics for WAL.<br/>Otherwise, use topics named `topic_name_prefix_[0..num_topics)`<br/>**It's only used when the provider is `kafka`**. |
| `wal.auto_prune_interval` | String | `30m` | Interval of automatically WAL pruning.<br/>Set to `0s` to disable automatically WAL pruning which delete unused remote WAL entries periodically.<br/>**It's only used when the provider is `kafka`**. |
| `wal.flush_trigger_size` | String | `512MB` | Estimated size threshold to trigger a flush when using Kafka remote WAL.<br/>Since multiple regions may share a Kafka topic, the estimated size is calculated as:<br/> (latest_entry_id - flushed_entry_id) * avg_record_size<br/>MetaSrv triggers a flush for a region when this estimated size exceeds `flush_trigger_size`.<br/>- `latest_entry_id`: The latest entry ID in the topic.<br/>- `flushed_entry_id`: The last flushed entry ID for the region.<br/>Set to "0" to let the system decide the flush trigger size.<br/>**It's only used when the provider is `kafka`**. |
| `wal.checkpoint_trigger_size` | String | `128MB` | Estimated size threshold to trigger a checkpoint when using Kafka remote WAL.<br/>The estimated size is calculated as:<br/> (latest_entry_id - last_checkpoint_entry_id) * avg_record_size<br/>MetaSrv triggers a checkpoint for a region when this estimated size exceeds `checkpoint_trigger_size`.<br/>Set to "0" to let the system decide the checkpoint trigger size.<br/>**It's only used when the provider is `kafka`**. |
| `wal.auto_prune_parallelism` | Integer | `10` | Concurrent task limit for automatically WAL pruning.<br/>**It's only used when the provider is `kafka`**. |
| `wal.num_topics` | Integer | `64` | Number of topics used for remote WAL.<br/>**It's only used when the provider is `kafka`**. |
| `wal.selector_type` | String | `round_robin` | Topic selector type.<br/>Available selector types:<br/>- `round_robin` (default)<br/>**It's only used when the provider is `kafka`**. |
| `wal.topic_name_prefix` | String | `greptimedb_wal_topic` | A Kafka topic is constructed by concatenating `topic_name_prefix` and `topic_id`.<br/>Only accepts strings that match the following regular expression pattern:<br/>[a-zA-Z_:-][a-zA-Z0-9_:\-\.@#]*<br/>i.g., greptimedb_wal_topic_0, greptimedb_wal_topic_1.<br/>**It's only used when the provider is `kafka`**. |
| `wal.replication_factor` | Integer | `1` | Expected number of replicas of each partition.<br/>**It's only used when the provider is `kafka`**. |
| `wal.create_topic_timeout` | String | `30s` | The timeout for creating a Kafka topic.<br/>**It's only used when the provider is `kafka`**. |
| `event_recorder` | -- | -- | Configuration options for the event recorder. |
| `event_recorder.ttl` | String | `90d` | TTL for the events table that will be used to store the events. Default is `90d`. |
| `stats_persistence` | -- | -- | Configuration options for the stats persistence. |
| `stats_persistence.ttl` | String | `0s` | TTL for the stats table that will be used to store the stats.<br/>Set to `0s` to disable stats persistence.<br/>Default is `0s`.<br/>If you want to enable stats persistence, set the TTL to a value greater than 0.<br/>It is recommended to set a small value, e.g., `3h`. |
| `stats_persistence.interval` | String | `10m` | The interval to persist the stats. Default is `10m`.<br/>The minimum value is `10m`, if the value is less than `10m`, it will be overridden to `10m`. |
| `wal.broker_endpoints` | Array | -- | The broker endpoints of the Kafka cluster. |
| `wal.auto_create_topics` | Bool | `true` | Automatically create topics for WAL.<br/>Set to `true` to automatically create topics for WAL.<br/>Otherwise, use topics named `topic_name_prefix_[0..num_topics)` |
| `wal.num_topics` | Integer | `64` | Number of topics. |
| `wal.selector_type` | String | `round_robin` | Topic selector type.<br/>Available selector types:<br/>- `round_robin` (default) |
| `wal.topic_name_prefix` | String | `greptimedb_wal_topic` | A Kafka topic is constructed by concatenating `topic_name_prefix` and `topic_id`.<br/>Only accepts strings that match the following regular expression pattern:<br/>[a-zA-Z_:-][a-zA-Z0-9_:\-\.@#]*<br/>i.g., greptimedb_wal_topic_0, greptimedb_wal_topic_1. |
| `wal.replication_factor` | Integer | `1` | Expected number of replicas of each partition. |
| `wal.create_topic_timeout` | String | `30s` | Above which a topic creation operation will be cancelled. |
| `wal.backoff_init` | String | `500ms` | The initial backoff for kafka clients. |
| `wal.backoff_max` | String | `10s` | The maximum backoff for kafka clients. |
| `wal.backoff_base` | Integer | `2` | Exponential backoff rate, i.e. next backoff = base * current backoff. |
| `wal.backoff_deadline` | String | `5mins` | Stop reconnecting if the total wait time reaches the deadline. If this config is missing, the reconnecting won't terminate. |
| `logging` | -- | -- | The logging options. |
| `logging.dir` | String | `./greptimedb_data/logs` | The directory to store the log files. If set to empty, logs will not be written to files. |
| `logging.dir` | String | `/tmp/greptimedb/logs` | The directory to store the log files. If set to empty, logs will not be written to files. |
| `logging.level` | String | Unset | The log level. Can be `info`/`debug`/`warn`/`error`. |
| `logging.enable_otlp_tracing` | Bool | `false` | Enable OTLP tracing. |
| `logging.otlp_endpoint` | String | `http://localhost:4318/v1/traces` | The OTLP tracing endpoint. |
| `logging.otlp_endpoint` | String | `http://localhost:4317` | The OTLP tracing endpoint. |
| `logging.append_stdout` | Bool | `true` | Whether to append logs to stdout. |
| `logging.log_format` | String | `text` | The log format. Can be `text`/`json`. |
| `logging.max_log_files` | Integer | `720` | The maximum amount of log files. |
| `logging.otlp_export_protocol` | String | `http` | The OTLP tracing export protocol. Can be `grpc`/`http`. |
| `logging.otlp_headers` | -- | -- | Additional OTLP headers, only valid when using OTLP http |
| `logging.tracing_sample_ratio` | -- | Unset | The percentage of tracing will be sampled and exported.<br/>Valid range `[0, 1]`, 1 means all traces are sampled, 0 means all traces are not sampled, the default value is 1.<br/>ratio > 1 are treated as 1. Fractions < 0 are treated as 0 |
| `logging.tracing_sample_ratio` | -- | -- | The percentage of tracing will be sampled and exported.<br/>Valid range `[0, 1]`, 1 means all traces are sampled, 0 means all traces are not sampled, the default value is 1.<br/>ratio > 1 are treated as 1. Fractions < 0 are treated as 0 |
| `logging.tracing_sample_ratio.default_ratio` | Float | `1.0` | -- |
| `logging.slow_query` | -- | -- | The slow query log options. |
| `logging.slow_query.enable` | Bool | `false` | Whether to enable slow query log. |
| `logging.slow_query.threshold` | String | Unset | The threshold of slow query. |
| `logging.slow_query.sample_ratio` | Float | Unset | The sampling ratio of slow query log. The value should be in the range of (0, 1]. |
| `export_metrics` | -- | -- | The datanode can export its metrics and send to Prometheus compatible service (e.g. send to `greptimedb` itself) from remote-write API.<br/>This is only used for `greptimedb` to export its own metrics internally. It's different from prometheus scrape. |
| `export_metrics.enable` | Bool | `false` | whether enable export metrics. |
| `export_metrics.write_interval` | String | `30s` | The interval of export metrics. |
| `export_metrics.self_import` | -- | -- | For `standalone` mode, `self_import` is recommend to collect metrics generated by itself<br/>You must create the database before enabling it. |
| `export_metrics.self_import.db` | String | Unset | -- |
| `export_metrics.remote_write` | -- | -- | -- |
| `export_metrics.remote_write.url` | String | `""` | The url the metrics send to. The url example can be: `http://127.0.0.1:4000/v1/prometheus/write?db=greptime_metrics`. |
| `export_metrics.remote_write.headers` | InlineTable | -- | HTTP headers of Prometheus remote-write carry. |
| `tracing` | -- | -- | The tracing options. Only effect when compiled with `tokio-console` feature. |
| `tracing.tokio_console_addr` | String | Unset | The tokio console address. |
| `memory` | -- | -- | The memory options. |
| `memory.enable_heap_profiling` | Bool | `true` | Whether to enable heap profiling activation during startup.<br/>When enabled, heap profiling will be activated if the `MALLOC_CONF` environment variable<br/>is set to "prof:true,prof_active:false". The official image adds this env variable.<br/>Default is true. |
### Datanode
| Key | Type | Default | Descriptions |
| --- | -----| ------- | ----------- |
| `mode` | String | `standalone` | The running mode of the datanode. It can be `standalone` or `distributed`. |
| `node_id` | Integer | Unset | The datanode identifier and should be unique in the cluster. |
| `default_column_prefix` | String | Unset | The default column prefix for auto-created time index and value columns. |
| `require_lease_before_startup` | Bool | `false` | Start services after regions have obtained leases.<br/>It will block the datanode start if it can't receive leases in the heartbeat from metasrv. |
| `init_regions_in_background` | Bool | `false` | Initialize all regions in the background during the startup.<br/>By default, it provides services after all regions have been initialized. |
| `init_regions_parallelism` | Integer | `16` | Parallelism of initializing regions. |
| `max_concurrent_queries` | Integer | `0` | The maximum current queries allowed to be executed. Zero means unlimited.<br/>NOTE: This setting affects scan_memory_limit's privileged tier allocation.<br/>When set, 70% of queries get privileged memory access (full scan_memory_limit).<br/>The remaining 30% get standard tier access (70% of scan_memory_limit). |
| `max_concurrent_queries` | Integer | `0` | The maximum current queries allowed to be executed. Zero means unlimited. |
| `enable_telemetry` | Bool | `true` | Enable telemetry to collect anonymous usage data. Enabled by default. |
| `http` | -- | -- | The HTTP server options. |
| `http.addr` | String | `127.0.0.1:4000` | The address to bind the HTTP server. |
| `http.timeout` | String | `0s` | HTTP request timeout. Set to 0 to disable timeout. |
| `http.timeout` | String | `30s` | HTTP request timeout. Set to 0 to disable timeout. |
| `http.body_limit` | String | `64MB` | HTTP request body limit.<br/>The following units are supported: `B`, `KB`, `KiB`, `MB`, `MiB`, `GB`, `GiB`, `TB`, `TiB`, `PB`, `PiB`.<br/>Set to 0 to disable limit. |
| `grpc` | -- | -- | The gRPC server options. |
| `grpc.bind_addr` | String | `127.0.0.1:3001` | The address to bind the gRPC server. |
@@ -451,7 +398,6 @@
| `grpc.runtime_size` | Integer | `8` | The number of server worker threads. |
| `grpc.max_recv_message_size` | String | `512MB` | The maximum receive message size for gRPC server. |
| `grpc.max_send_message_size` | String | `512MB` | The maximum send message size for gRPC server. |
| `grpc.flight_compression` | String | `arrow_ipc` | Compression mode for datanode side Arrow IPC service. Available options:<br/>- `none`: disable all compression<br/>- `transport`: only enable gRPC transport compression (zstd)<br/>- `arrow_ipc`: only enable Arrow IPC compression (lz4)<br/>- `all`: enable all compression.<br/>Default to `none` |
| `grpc.tls` | -- | -- | gRPC server TLS options, see `mysql.tls` section. |
| `grpc.tls.mode` | String | `disable` | TLS mode. |
| `grpc.tls.cert_path` | String | Unset | Certificate file path. |
@@ -466,6 +412,7 @@
| `meta_client` | -- | -- | The metasrv client options. |
| `meta_client.metasrv_addrs` | Array | -- | The addresses of the metasrv. |
| `meta_client.timeout` | String | `3s` | Operation timeout. |
| `meta_client.heartbeat_timeout` | String | `500ms` | Heartbeat timeout. |
| `meta_client.ddl_timeout` | String | `10s` | DDL timeout. |
| `meta_client.connect_timeout` | String | `1s` | Connect server timeout. |
| `meta_client.tcp_nodelay` | Bool | `true` | `TCP_NODELAY` option for accepted connections. |
@@ -473,11 +420,11 @@
| `meta_client.metadata_cache_ttl` | String | `10m` | TTL of the metadata cache. |
| `meta_client.metadata_cache_tti` | String | `5m` | -- |
| `wal` | -- | -- | The WAL options. |
| `wal.provider` | String | `raft_engine` | The provider of the WAL.<br/>- `raft_engine`: the wal is stored in the local file system by raft-engine.<br/>- `kafka`: it's remote wal that data is stored in Kafka.<br/>- `noop`: it's a no-op WAL provider that does not store any WAL data.<br/>**Notes: any unflushed data will be lost when the datanode is shutdown.** |
| `wal.provider` | String | `raft_engine` | The provider of the WAL.<br/>- `raft_engine`: the wal is stored in the local file system by raft-engine.<br/>- `kafka`: it's remote wal that data is stored in Kafka. |
| `wal.dir` | String | Unset | The directory to store the WAL files.<br/>**It's only used when the provider is `raft_engine`**. |
| `wal.file_size` | String | `128MB` | The size of the WAL segment file.<br/>**It's only used when the provider is `raft_engine`**. |
| `wal.purge_threshold` | String | `1GB` | The threshold of the WAL size to trigger a purge.<br/>**It's only used when the provider is `raft_engine`**. |
| `wal.purge_interval` | String | `1m` | The interval to trigger a purge.<br/>**It's only used when the provider is `raft_engine`**. |
| `wal.purge_threshold` | String | `1GB` | The threshold of the WAL size to trigger a flush.<br/>**It's only used when the provider is `raft_engine`**. |
| `wal.purge_interval` | String | `1m` | The interval to trigger a flush.<br/>**It's only used when the provider is `raft_engine`**. |
| `wal.read_batch_size` | Integer | `128` | The read batch size.<br/>**It's only used when the provider is `raft_engine`**. |
| `wal.sync_write` | Bool | `false` | Whether to use sync write.<br/>**It's only used when the provider is `raft_engine`**. |
| `wal.enable_log_recycle` | Bool | `true` | Whether to reuse logically truncated log files.<br/>**It's only used when the provider is `raft_engine`**. |
@@ -485,19 +432,20 @@
| `wal.sync_period` | String | `10s` | Duration for fsyncing log files.<br/>**It's only used when the provider is `raft_engine`**. |
| `wal.recovery_parallelism` | Integer | `2` | Parallelism during WAL recovery. |
| `wal.broker_endpoints` | Array | -- | The Kafka broker endpoints.<br/>**It's only used when the provider is `kafka`**. |
| `wal.connect_timeout` | String | `3s` | The connect timeout for kafka client.<br/>**It's only used when the provider is `kafka`**. |
| `wal.timeout` | String | `3s` | The timeout for kafka client.<br/>**It's only used when the provider is `kafka`**. |
| `wal.max_batch_bytes` | String | `1MB` | The max size of a single producer batch.<br/>Warning: Kafka has a default limit of 1MB per message in a topic.<br/>**It's only used when the provider is `kafka`**. |
| `wal.consumer_wait_timeout` | String | `100ms` | The consumer wait timeout.<br/>**It's only used when the provider is `kafka`**. |
| `wal.backoff_init` | String | `500ms` | The initial backoff delay.<br/>**It's only used when the provider is `kafka`**. |
| `wal.backoff_max` | String | `10s` | The maximum backoff delay.<br/>**It's only used when the provider is `kafka`**. |
| `wal.backoff_base` | Integer | `2` | The exponential backoff rate, i.e. next backoff = base * current backoff.<br/>**It's only used when the provider is `kafka`**. |
| `wal.backoff_deadline` | String | `5mins` | The deadline of retries.<br/>**It's only used when the provider is `kafka`**. |
| `wal.create_index` | Bool | `true` | Whether to enable WAL index creation.<br/>**It's only used when the provider is `kafka`**. |
| `wal.dump_index_interval` | String | `60s` | The interval for dumping WAL indexes.<br/>**It's only used when the provider is `kafka`**. |
| `wal.overwrite_entry_start_id` | Bool | `false` | Ignore missing entries during read WAL.<br/>**It's only used when the provider is `kafka`**.<br/><br/>This option ensures that when Kafka messages are deleted, the system<br/>can still successfully replay memtable data without throwing an<br/>out-of-range error.<br/>However, enabling this option might lead to unexpected data loss,<br/>as the system will skip over missing entries instead of treating<br/>them as critical errors. |
| `query` | -- | -- | The query engine options. |
| `query.parallelism` | Integer | `0` | Parallelism of the query engine.<br/>Default to 0, which means the number of CPU cores. |
| `query.memory_pool_size` | String | `50%` | Memory pool size for query execution operators (aggregation, sorting, join).<br/>Supports absolute size (e.g., "2GB", "4GB") or percentage of system memory (e.g., "20%").<br/>Setting it to 0 disables the limit (unbounded, default behavior).<br/>When this limit is reached, queries will fail with ResourceExhausted error.<br/>NOTE: This does NOT limit memory used by table scans. |
| `storage` | -- | -- | The data storage options. |
| `storage.data_home` | String | `./greptimedb_data` | The working home directory. |
| `storage.data_home` | String | `/tmp/greptimedb/` | The working home directory. |
| `storage.type` | String | `File` | The storage type used to store the data.<br/>- `File`: the data is stored in the local file system.<br/>- `S3`: the data is stored in the S3 object storage.<br/>- `Gcs`: the data is stored in the Google Cloud Storage.<br/>- `Azblob`: the data is stored in the Azure Blob Storage.<br/>- `Oss`: the data is stored in the Aliyun OSS. |
| `storage.cache_path` | String | Unset | Read cache configuration for object storage such as 'S3' etc, it's configured by default when using object storage. It is recommended to configure it when using object storage for better performance.<br/>A local file directory, defaults to `{data_home}`. An empty string means disabling. |
| `storage.cache_capacity` | String | Unset | The local file cache capacity in bytes. If your disk space is sufficient, it is recommended to set it larger. |
| `storage.bucket` | String | Unset | The S3 bucket name.<br/>**It's only used when the storage type is `S3`, `Oss` and `Gcs`**. |
| `storage.root` | String | Unset | The S3 data will be stored in the specified prefix, for example, `s3://${bucket}/${root}`.<br/>**It's only used when the storage type is `S3`, `Oss` and `Azblob`**. |
| `storage.access_key_id` | String | Unset | The access key id of the aws account.<br/>It's **highly recommended** to use AWS IAM roles instead of hardcoding the access key id and secret key.<br/>**It's only used when the storage type is `S3` and `Oss`**. |
@@ -517,21 +465,16 @@
| `storage.http_client.connect_timeout` | String | `30s` | The timeout for only the connect phase of a http client. |
| `storage.http_client.timeout` | String | `30s` | The total request timeout, applied from when the request starts connecting until the response body has finished.<br/>Also considered a total deadline. |
| `storage.http_client.pool_idle_timeout` | String | `90s` | The timeout for idle sockets being kept-alive. |
| `storage.http_client.skip_ssl_validation` | Bool | `false` | To skip the ssl verification<br/>**Security Notice**: Setting `skip_ssl_validation = true` disables certificate verification, making connections vulnerable to man-in-the-middle attacks. Only use this in development or trusted private networks. |
| `[[region_engine]]` | -- | -- | The region engine options. You can configure multiple region engines. |
| `region_engine.mito` | -- | -- | The Mito engine options. |
| `region_engine.mito.num_workers` | Integer | `8` | Number of region workers. |
| `region_engine.mito.worker_channel_size` | Integer | `128` | Request channel size of each worker. |
| `region_engine.mito.worker_request_batch_size` | Integer | `64` | Max batch size for a worker to handle requests. |
| `region_engine.mito.manifest_checkpoint_distance` | Integer | `10` | Number of meta action updated to trigger a new checkpoint for the manifest. |
| `region_engine.mito.experimental_manifest_keep_removed_file_count` | Integer | `256` | Number of removed files to keep in manifest's `removed_files` field before also<br/>remove them from `removed_files`. Mostly for debugging purpose.<br/>If set to 0, it will only use `keep_removed_file_ttl` to decide when to remove files<br/>from `removed_files` field. |
| `region_engine.mito.experimental_manifest_keep_removed_file_ttl` | String | `1h` | How long to keep removed files in the `removed_files` field of manifest<br/>after they are removed from manifest.<br/>files will only be removed from `removed_files` field<br/>if both `keep_removed_file_count` and `keep_removed_file_ttl` is reached. |
| `region_engine.mito.compress_manifest` | Bool | `false` | Whether to compress manifest and checkpoint file by gzip (default false). |
| `region_engine.mito.max_background_flushes` | Integer | Auto | Max number of running background flush jobs (default: 1/2 of cpu cores). |
| `region_engine.mito.max_background_compactions` | Integer | Auto | Max number of running background compaction jobs (default: 1/4 of cpu cores). |
| `region_engine.mito.max_background_purges` | Integer | Auto | Max number of running background purge jobs (default: number of cpu cores). |
| `region_engine.mito.experimental_compaction_memory_limit` | String | 0 | Memory budget for compaction tasks. Setting it to 0 or "unlimited" disables the limit. |
| `region_engine.mito.experimental_compaction_on_exhausted` | String | wait | Behavior when compaction cannot acquire memory from the budget.<br/>Options: "wait" (default, 10s), "wait(<duration>)", "fail" |
| `region_engine.mito.auto_flush_interval` | String | `1h` | Interval to auto flush a region if it has not flushed yet. |
| `region_engine.mito.global_write_buffer_size` | String | Auto | Global write buffer size for all regions. If not set, it's default to 1/8 of OS memory with a max limitation of 1GB. |
| `region_engine.mito.global_write_buffer_reject_size` | String | Auto | Global write buffer size threshold to reject write requests. If not set, it's default to 2 times of `global_write_buffer_size` |
@@ -543,17 +486,10 @@
| `region_engine.mito.write_cache_path` | String | `""` | File system path for write cache, defaults to `{data_home}`. |
| `region_engine.mito.write_cache_size` | String | `5GiB` | Capacity for write cache. If your disk space is sufficient, it is recommended to set it larger. |
| `region_engine.mito.write_cache_ttl` | String | Unset | TTL for write cache. |
| `region_engine.mito.preload_index_cache` | Bool | `true` | Preload index (puffin) files into cache on region open (default: true).<br/>When enabled, index files are loaded into the write cache during region initialization,<br/>which can improve query performance at the cost of longer startup times. |
| `region_engine.mito.index_cache_percent` | Integer | `20` | Percentage of write cache capacity allocated for index (puffin) files (default: 20).<br/>The remaining capacity is used for data (parquet) files.<br/>Must be between 0 and 100 (exclusive). For example, with a 5GiB write cache and 20% allocation,<br/>1GiB is reserved for index files and 4GiB for data files. |
| `region_engine.mito.enable_refill_cache_on_read` | Bool | `true` | Enable refilling cache on read operations (default: true).<br/>When disabled, cache refilling on read won't happen. |
| `region_engine.mito.manifest_cache_size` | String | `256MB` | Capacity for manifest cache (default: 256MB). |
| `region_engine.mito.sst_write_buffer_size` | String | `8MB` | Buffer size for SST writing. |
| `region_engine.mito.parallel_scan_channel_size` | Integer | `32` | Capacity of the channel to send data from parallel scan tasks to the main task. |
| `region_engine.mito.max_concurrent_scan_files` | Integer | `384` | Maximum number of SST files to scan concurrently. |
| `region_engine.mito.allow_stale_entries` | Bool | `false` | Whether to allow stale WAL entries read during replay. |
| `region_engine.mito.scan_memory_limit` | String | `50%` | Memory limit for table scans across all queries.<br/>Supports absolute size (e.g., "2GB") or percentage of system memory (e.g., "20%").<br/>Setting it to 0 disables the limit.<br/>NOTE: Works with max_concurrent_queries for tiered memory allocation.<br/>- If max_concurrent_queries is set: 70% of queries get full access, 30% get 70% access.<br/>- If max_concurrent_queries is 0 (unlimited): first 20 queries get full access, rest get 70% access. |
| `region_engine.mito.min_compaction_interval` | String | `0m` | Minimum time interval between two compactions.<br/>To align with the old behavior, the default value is 0 (no restrictions). |
| `region_engine.mito.default_experimental_flat_format` | Bool | `false` | Whether to enable experimental flat format as the default format. |
| `region_engine.mito.index` | -- | -- | The options for index in Mito engine. |
| `region_engine.mito.index.aux_path` | String | `""` | Auxiliary directory path for the index in filesystem, used to store intermediate files for<br/>creating the index and staging files for searching the index, defaults to `{data_home}/index_intermediate`.<br/>The default name for this directory is `index_intermediate` for backward compatibility.<br/><br/>This path contains two subdirectories:<br/>- `__intm`: for storing intermediate files used during creating index.<br/>- `staging`: for storing staging files used during searching index. |
| `region_engine.mito.index.staging_size` | String | `2GB` | The max capacity of the staging directory. |
@@ -561,7 +497,6 @@
| `region_engine.mito.index.metadata_cache_size` | String | `64MiB` | Cache size for inverted index metadata. |
| `region_engine.mito.index.content_cache_size` | String | `128MiB` | Cache size for inverted index content. |
| `region_engine.mito.index.content_cache_page_size` | String | `64KiB` | Page size for inverted index content cache. |
| `region_engine.mito.index.result_cache_size` | String | `128MiB` | Cache size for index result. |
| `region_engine.mito.inverted_index` | -- | -- | The options for inverted index in Mito engine. |
| `region_engine.mito.inverted_index.create_on_flush` | String | `auto` | Whether to create the index on flush.<br/>- `auto`: automatically (default)<br/>- `disable`: never |
| `region_engine.mito.inverted_index.create_on_compaction` | String | `auto` | Whether to create the index on compaction.<br/>- `auto`: automatically (default)<br/>- `disable`: never |
@@ -585,48 +520,41 @@
| `region_engine.mito.memtable.fork_dictionary_bytes` | String | `1GiB` | Max dictionary bytes.<br/>Only available for `partition_tree` memtable. |
| `region_engine.file` | -- | -- | Enable the file engine. |
| `region_engine.metric` | -- | -- | Metric engine options. |
| `region_engine.metric.sparse_primary_key_encoding` | Bool | `true` | Whether to use sparse primary key encoding. |
| `region_engine.metric.experimental_sparse_primary_key_encoding` | Bool | `false` | Whether to enable the experimental sparse primary key encoding. |
| `logging` | -- | -- | The logging options. |
| `logging.dir` | String | `./greptimedb_data/logs` | The directory to store the log files. If set to empty, logs will not be written to files. |
| `logging.dir` | String | `/tmp/greptimedb/logs` | The directory to store the log files. If set to empty, logs will not be written to files. |
| `logging.level` | String | Unset | The log level. Can be `info`/`debug`/`warn`/`error`. |
| `logging.enable_otlp_tracing` | Bool | `false` | Enable OTLP tracing. |
| `logging.otlp_endpoint` | String | `http://localhost:4318/v1/traces` | The OTLP tracing endpoint. |
| `logging.otlp_endpoint` | String | `http://localhost:4317` | The OTLP tracing endpoint. |
| `logging.append_stdout` | Bool | `true` | Whether to append logs to stdout. |
| `logging.log_format` | String | `text` | The log format. Can be `text`/`json`. |
| `logging.max_log_files` | Integer | `720` | The maximum amount of log files. |
| `logging.otlp_export_protocol` | String | `http` | The OTLP tracing export protocol. Can be `grpc`/`http`. |
| `logging.otlp_headers` | -- | -- | Additional OTLP headers, only valid when using OTLP http |
| `logging.tracing_sample_ratio` | -- | Unset | The percentage of tracing will be sampled and exported.<br/>Valid range `[0, 1]`, 1 means all traces are sampled, 0 means all traces are not sampled, the default value is 1.<br/>ratio > 1 are treated as 1. Fractions < 0 are treated as 0 |
| `logging.tracing_sample_ratio` | -- | -- | The percentage of tracing will be sampled and exported.<br/>Valid range `[0, 1]`, 1 means all traces are sampled, 0 means all traces are not sampled, the default value is 1.<br/>ratio > 1 are treated as 1. Fractions < 0 are treated as 0 |
| `logging.tracing_sample_ratio.default_ratio` | Float | `1.0` | -- |
| `logging.slow_query` | -- | -- | The slow query log options. |
| `logging.slow_query.enable` | Bool | `false` | Whether to enable slow query log. |
| `logging.slow_query.threshold` | String | Unset | The threshold of slow query. |
| `logging.slow_query.sample_ratio` | Float | Unset | The sampling ratio of slow query log. The value should be in the range of (0, 1]. |
| `export_metrics` | -- | -- | The datanode can export its metrics and send to Prometheus compatible service (e.g. send to `greptimedb` itself) from remote-write API.<br/>This is only used for `greptimedb` to export its own metrics internally. It's different from prometheus scrape. |
| `export_metrics.enable` | Bool | `false` | whether enable export metrics. |
| `export_metrics.write_interval` | String | `30s` | The interval of export metrics. |
| `export_metrics.self_import` | -- | -- | For `standalone` mode, `self_import` is recommend to collect metrics generated by itself<br/>You must create the database before enabling it. |
| `export_metrics.self_import.db` | String | Unset | -- |
| `export_metrics.remote_write` | -- | -- | -- |
| `export_metrics.remote_write.url` | String | `""` | The url the metrics send to. The url example can be: `http://127.0.0.1:4000/v1/prometheus/write?db=greptime_metrics`. |
| `export_metrics.remote_write.headers` | InlineTable | -- | HTTP headers of Prometheus remote-write carry. |
| `tracing` | -- | -- | The tracing options. Only effect when compiled with `tokio-console` feature. |
| `tracing.tokio_console_addr` | String | Unset | The tokio console address. |
| `memory` | -- | -- | The memory options. |
| `memory.enable_heap_profiling` | Bool | `true` | Whether to enable heap profiling activation during startup.<br/>When enabled, heap profiling will be activated if the `MALLOC_CONF` environment variable<br/>is set to "prof:true,prof_active:false". The official image adds this env variable.<br/>Default is true. |
### Flownode
| Key | Type | Default | Descriptions |
| --- | -----| ------- | ----------- |
| `mode` | String | `distributed` | The running mode of the flownode. It can be `standalone` or `distributed`. |
| `node_id` | Integer | Unset | The flownode identifier and should be unique in the cluster. |
| `flow` | -- | -- | flow engine options. |
| `flow.num_workers` | Integer | `0` | The number of flow worker in flownode.<br/>Not setting(or set to 0) this value will use the number of CPU cores divided by 2. |
| `flow.batching_mode` | -- | -- | -- |
| `flow.batching_mode.query_timeout` | String | `600s` | The default batching engine query timeout is 10 minutes. |
| `flow.batching_mode.slow_query_threshold` | String | `60s` | will output a warn log for any query that runs for more that this threshold |
| `flow.batching_mode.experimental_min_refresh_duration` | String | `5s` | The minimum duration between two queries execution by batching mode task |
| `flow.batching_mode.grpc_conn_timeout` | String | `5s` | The gRPC connection timeout |
| `flow.batching_mode.experimental_grpc_max_retries` | Integer | `3` | The gRPC max retry number |
| `flow.batching_mode.experimental_frontend_scan_timeout` | String | `30s` | Flow wait for available frontend timeout,<br/>if failed to find available frontend after frontend_scan_timeout elapsed, return error<br/>which prevent flownode from starting |
| `flow.batching_mode.experimental_frontend_activity_timeout` | String | `60s` | Frontend activity timeout<br/>if frontend is down(not sending heartbeat) for more than frontend_activity_timeout,<br/>it will be removed from the list that flownode use to connect |
| `flow.batching_mode.experimental_max_filter_num_per_query` | Integer | `20` | Maximum number of filters allowed in a single query |
| `flow.batching_mode.experimental_time_window_merge_threshold` | Integer | `3` | Time window merge distance |
| `flow.batching_mode.read_preference` | String | `Leader` | Read preference of the Frontend client. |
| `flow.batching_mode.frontend_tls` | -- | -- | -- |
| `flow.batching_mode.frontend_tls.enabled` | Bool | `false` | Whether to enable TLS for client. |
| `flow.batching_mode.frontend_tls.server_ca_cert_path` | String | Unset | Server Certificate file path. |
| `flow.batching_mode.frontend_tls.client_cert_path` | String | Unset | Client Certificate file path. |
| `flow.batching_mode.frontend_tls.client_key_path` | String | Unset | Client Private key file path. |
| `grpc` | -- | -- | The gRPC server options. |
| `grpc.bind_addr` | String | `127.0.0.1:6800` | The address to bind the gRPC server. |
| `grpc.server_addr` | String | `127.0.0.1:6800` | The address advertised to the metasrv,<br/>and used for connections from outside the host |
@@ -635,11 +563,12 @@
| `grpc.max_send_message_size` | String | `512MB` | The maximum send message size for gRPC server. |
| `http` | -- | -- | The HTTP server options. |
| `http.addr` | String | `127.0.0.1:4000` | The address to bind the HTTP server. |
| `http.timeout` | String | `0s` | HTTP request timeout. Set to 0 to disable timeout. |
| `http.timeout` | String | `30s` | HTTP request timeout. Set to 0 to disable timeout. |
| `http.body_limit` | String | `64MB` | HTTP request body limit.<br/>The following units are supported: `B`, `KB`, `KiB`, `MB`, `MiB`, `GB`, `GiB`, `TB`, `TiB`, `PB`, `PiB`.<br/>Set to 0 to disable limit. |
| `meta_client` | -- | -- | The metasrv client options. |
| `meta_client.metasrv_addrs` | Array | -- | The addresses of the metasrv. |
| `meta_client.timeout` | String | `3s` | Operation timeout. |
| `meta_client.heartbeat_timeout` | String | `500ms` | Heartbeat timeout. |
| `meta_client.ddl_timeout` | String | `10s` | DDL timeout. |
| `meta_client.connect_timeout` | String | `1s` | Connect server timeout. |
| `meta_client.tcp_nodelay` | Bool | `true` | `TCP_NODELAY` option for accepted connections. |
@@ -650,21 +579,18 @@
| `heartbeat.interval` | String | `3s` | Interval for sending heartbeat messages to the metasrv. |
| `heartbeat.retry_interval` | String | `3s` | Interval for retrying to send heartbeat messages to the metasrv. |
| `logging` | -- | -- | The logging options. |
| `logging.dir` | String | `./greptimedb_data/logs` | The directory to store the log files. If set to empty, logs will not be written to files. |
| `logging.dir` | String | `/tmp/greptimedb/logs` | The directory to store the log files. If set to empty, logs will not be written to files. |
| `logging.level` | String | Unset | The log level. Can be `info`/`debug`/`warn`/`error`. |
| `logging.enable_otlp_tracing` | Bool | `false` | Enable OTLP tracing. |
| `logging.otlp_endpoint` | String | `http://localhost:4318/v1/traces` | The OTLP tracing endpoint. |
| `logging.otlp_endpoint` | String | `http://localhost:4317` | The OTLP tracing endpoint. |
| `logging.append_stdout` | Bool | `true` | Whether to append logs to stdout. |
| `logging.log_format` | String | `text` | The log format. Can be `text`/`json`. |
| `logging.max_log_files` | Integer | `720` | The maximum amount of log files. |
| `logging.otlp_export_protocol` | String | `http` | The OTLP tracing export protocol. Can be `grpc`/`http`. |
| `logging.otlp_headers` | -- | -- | Additional OTLP headers, only valid when using OTLP http |
| `logging.tracing_sample_ratio` | -- | Unset | The percentage of tracing will be sampled and exported.<br/>Valid range `[0, 1]`, 1 means all traces are sampled, 0 means all traces are not sampled, the default value is 1.<br/>ratio > 1 are treated as 1. Fractions < 0 are treated as 0 |
| `logging.tracing_sample_ratio` | -- | -- | The percentage of tracing will be sampled and exported.<br/>Valid range `[0, 1]`, 1 means all traces are sampled, 0 means all traces are not sampled, the default value is 1.<br/>ratio > 1 are treated as 1. Fractions < 0 are treated as 0 |
| `logging.tracing_sample_ratio.default_ratio` | Float | `1.0` | -- |
| `logging.slow_query` | -- | -- | The slow query log options. |
| `logging.slow_query.enable` | Bool | `false` | Whether to enable slow query log. |
| `logging.slow_query.threshold` | String | Unset | The threshold of slow query. |
| `logging.slow_query.sample_ratio` | Float | Unset | The sampling ratio of slow query log. The value should be in the range of (0, 1]. |
| `tracing` | -- | -- | The tracing options. Only effect when compiled with `tokio-console` feature. |
| `tracing.tokio_console_addr` | String | Unset | The tokio console address. |
| `query` | -- | -- | -- |
| `query.parallelism` | Integer | `1` | Parallelism of the query engine for query sent by flownode.<br/>Default to 1, so it won't use too much cpu or memory |
| `query.memory_pool_size` | String | `50%` | Memory pool size for query execution operators (aggregation, sorting, join).<br/>Supports absolute size (e.g., "1GB", "2GB") or percentage of system memory (e.g., "20%").<br/>Setting it to 0 disables the limit (unbounded, default behavior).<br/>When this limit is reached, queries will fail with ResourceExhausted error.<br/>NOTE: This does NOT limit memory used by table scans. |
| `memory` | -- | -- | The memory options. |
| `memory.enable_heap_profiling` | Bool | `true` | Whether to enable heap profiling activation during startup.<br/>When enabled, heap profiling will be activated if the `MALLOC_CONF` environment variable<br/>is set to "prof:true,prof_active:false". The official image adds this env variable.<br/>Default is true. |

View File

@@ -1,11 +1,10 @@
## The running mode of the datanode. It can be `standalone` or `distributed`.
mode = "standalone"
## The datanode identifier and should be unique in the cluster.
## @toml2docs:none-default
node_id = 42
## The default column prefix for auto-created time index and value columns.
## @toml2docs:none-default
default_column_prefix = "greptime"
## Start services after regions have obtained leases.
## It will block the datanode start if it can't receive leases in the heartbeat from metasrv.
require_lease_before_startup = false
@@ -18,9 +17,6 @@ init_regions_in_background = false
init_regions_parallelism = 16
## The maximum current queries allowed to be executed. Zero means unlimited.
## NOTE: This setting affects scan_memory_limit's privileged tier allocation.
## When set, 70% of queries get privileged memory access (full scan_memory_limit).
## The remaining 30% get standard tier access (70% of scan_memory_limit).
max_concurrent_queries = 0
## Enable telemetry to collect anonymous usage data. Enabled by default.
@@ -31,7 +27,7 @@ max_concurrent_queries = 0
## The address to bind the HTTP server.
addr = "127.0.0.1:4000"
## HTTP request timeout. Set to 0 to disable timeout.
timeout = "0s"
timeout = "30s"
## HTTP request body limit.
## The following units are supported: `B`, `KB`, `KiB`, `MB`, `MiB`, `GB`, `GiB`, `TB`, `TiB`, `PB`, `PiB`.
## Set to 0 to disable limit.
@@ -51,13 +47,6 @@ runtime_size = 8
max_recv_message_size = "512MB"
## The maximum send message size for gRPC server.
max_send_message_size = "512MB"
## Compression mode for datanode side Arrow IPC service. Available options:
## - `none`: disable all compression
## - `transport`: only enable gRPC transport compression (zstd)
## - `arrow_ipc`: only enable Arrow IPC compression (lz4)
## - `all`: enable all compression.
## Default to `none`
flight_compression = "arrow_ipc"
## gRPC server TLS options, see `mysql.tls` section.
[grpc.tls]
@@ -99,6 +88,9 @@ metasrv_addrs = ["127.0.0.1:3002"]
## Operation timeout.
timeout = "3s"
## Heartbeat timeout.
heartbeat_timeout = "500ms"
## DDL timeout.
ddl_timeout = "10s"
@@ -122,23 +114,22 @@ metadata_cache_tti = "5m"
## The provider of the WAL.
## - `raft_engine`: the wal is stored in the local file system by raft-engine.
## - `kafka`: it's remote wal that data is stored in Kafka.
## - `noop`: it's a no-op WAL provider that does not store any WAL data.<br/>**Notes: any unflushed data will be lost when the datanode is shutdown.**
provider = "raft_engine"
## The directory to store the WAL files.
## **It's only used when the provider is `raft_engine`**.
## @toml2docs:none-default
dir = "./greptimedb_data/wal"
dir = "/tmp/greptimedb/wal"
## The size of the WAL segment file.
## **It's only used when the provider is `raft_engine`**.
file_size = "128MB"
## The threshold of the WAL size to trigger a purge.
## The threshold of the WAL size to trigger a flush.
## **It's only used when the provider is `raft_engine`**.
purge_threshold = "1GB"
## The interval to trigger a purge.
## The interval to trigger a flush.
## **It's only used when the provider is `raft_engine`**.
purge_interval = "1m"
@@ -169,14 +160,6 @@ recovery_parallelism = 2
## **It's only used when the provider is `kafka`**.
broker_endpoints = ["127.0.0.1:9092"]
## The connect timeout for kafka client.
## **It's only used when the provider is `kafka`**.
#+ connect_timeout = "3s"
## The timeout for kafka client.
## **It's only used when the provider is `kafka`**.
#+ timeout = "3s"
## The max size of a single producer batch.
## Warning: Kafka has a default limit of 1MB per message in a topic.
## **It's only used when the provider is `kafka`**.
@@ -186,6 +169,22 @@ max_batch_bytes = "1MB"
## **It's only used when the provider is `kafka`**.
consumer_wait_timeout = "100ms"
## The initial backoff delay.
## **It's only used when the provider is `kafka`**.
backoff_init = "500ms"
## The maximum backoff delay.
## **It's only used when the provider is `kafka`**.
backoff_max = "10s"
## The exponential backoff rate, i.e. next backoff = base * current backoff.
## **It's only used when the provider is `kafka`**.
backoff_base = 2
## The deadline of retries.
## **It's only used when the provider is `kafka`**.
backoff_deadline = "5mins"
## Whether to enable WAL index creation.
## **It's only used when the provider is `kafka`**.
create_index = true
@@ -233,7 +232,6 @@ overwrite_entry_start_id = false
# endpoint = "https://s3.amazonaws.com"
# region = "us-west-2"
# enable_virtual_host_style = false
# disable_ec2_metadata = false
# Example of using Oss as the storage.
# [storage]
@@ -264,23 +262,10 @@ overwrite_entry_start_id = false
# credential = "base64-credential"
# endpoint = "https://storage.googleapis.com"
## The query engine options.
[query]
## Parallelism of the query engine.
## Default to 0, which means the number of CPU cores.
parallelism = 0
## Memory pool size for query execution operators (aggregation, sorting, join).
## Supports absolute size (e.g., "2GB", "4GB") or percentage of system memory (e.g., "20%").
## Setting it to 0 disables the limit (unbounded, default behavior).
## When this limit is reached, queries will fail with ResourceExhausted error.
## NOTE: This does NOT limit memory used by table scans.
memory_pool_size = "50%"
## The data storage options.
[storage]
## The working home directory.
data_home = "./greptimedb_data"
data_home = "/tmp/greptimedb/"
## The storage type used to store the data.
## - `File`: the data is stored in the local file system.
@@ -290,6 +275,15 @@ data_home = "./greptimedb_data"
## - `Oss`: the data is stored in the Aliyun OSS.
type = "File"
## Read cache configuration for object storage such as 'S3' etc, it's configured by default when using object storage. It is recommended to configure it when using object storage for better performance.
## A local file directory, defaults to `{data_home}`. An empty string means disabling.
## @toml2docs:none-default
#+ cache_path = ""
## The local file cache capacity in bytes. If your disk space is sufficient, it is recommended to set it larger.
## @toml2docs:none-default
cache_capacity = "5GiB"
## The S3 bucket name.
## **It's only used when the storage type is `S3`, `Oss` and `Gcs`**.
## @toml2docs:none-default
@@ -379,10 +373,6 @@ timeout = "30s"
## The timeout for idle sockets being kept-alive.
pool_idle_timeout = "90s"
## To skip the ssl verification
## **Security Notice**: Setting `skip_ssl_validation = true` disables certificate verification, making connections vulnerable to man-in-the-middle attacks. Only use this in development or trusted private networks.
skip_ssl_validation = false
# Custom storage options
# [[storage.providers]]
# name = "S3"
@@ -421,19 +411,6 @@ worker_request_batch_size = 64
## Number of meta action updated to trigger a new checkpoint for the manifest.
manifest_checkpoint_distance = 10
## Number of removed files to keep in manifest's `removed_files` field before also
## remove them from `removed_files`. Mostly for debugging purpose.
## If set to 0, it will only use `keep_removed_file_ttl` to decide when to remove files
## from `removed_files` field.
experimental_manifest_keep_removed_file_count = 256
## How long to keep removed files in the `removed_files` field of manifest
## after they are removed from manifest.
## files will only be removed from `removed_files` field
## if both `keep_removed_file_count` and `keep_removed_file_ttl` is reached.
experimental_manifest_keep_removed_file_ttl = "1h"
## Whether to compress manifest and checkpoint file by gzip (default false).
compress_manifest = false
@@ -449,15 +426,6 @@ compress_manifest = false
## @toml2docs:none-default="Auto"
#+ max_background_purges = 8
## Memory budget for compaction tasks. Setting it to 0 or "unlimited" disables the limit.
## @toml2docs:none-default="0"
#+ experimental_compaction_memory_limit = "0"
## Behavior when compaction cannot acquire memory from the budget.
## Options: "wait" (default, 10s), "wait(<duration>)", "fail"
## @toml2docs:none-default="wait"
#+ experimental_compaction_on_exhausted = "wait"
## Interval to auto flush a region if it has not flushed yet.
auto_flush_interval = "1h"
@@ -502,51 +470,19 @@ write_cache_size = "5GiB"
## @toml2docs:none-default
write_cache_ttl = "8h"
## Preload index (puffin) files into cache on region open (default: true).
## When enabled, index files are loaded into the write cache during region initialization,
## which can improve query performance at the cost of longer startup times.
preload_index_cache = true
## Percentage of write cache capacity allocated for index (puffin) files (default: 20).
## The remaining capacity is used for data (parquet) files.
## Must be between 0 and 100 (exclusive). For example, with a 5GiB write cache and 20% allocation,
## 1GiB is reserved for index files and 4GiB for data files.
index_cache_percent = 20
## Enable refilling cache on read operations (default: true).
## When disabled, cache refilling on read won't happen.
enable_refill_cache_on_read = true
## Capacity for manifest cache (default: 256MB).
manifest_cache_size = "256MB"
## Buffer size for SST writing.
sst_write_buffer_size = "8MB"
## Capacity of the channel to send data from parallel scan tasks to the main task.
parallel_scan_channel_size = 32
## Maximum number of SST files to scan concurrently.
max_concurrent_scan_files = 384
## Whether to allow stale WAL entries read during replay.
allow_stale_entries = false
## Memory limit for table scans across all queries.
## Supports absolute size (e.g., "2GB") or percentage of system memory (e.g., "20%").
## Setting it to 0 disables the limit.
## NOTE: Works with max_concurrent_queries for tiered memory allocation.
## - If max_concurrent_queries is set: 70% of queries get full access, 30% get 70% access.
## - If max_concurrent_queries is 0 (unlimited): first 20 queries get full access, rest get 70% access.
scan_memory_limit = "50%"
## Minimum time interval between two compactions.
## To align with the old behavior, the default value is 0 (no restrictions).
min_compaction_interval = "0m"
## Whether to enable experimental flat format as the default format.
default_experimental_flat_format = false
## The options for index in Mito engine.
[region_engine.mito.index]
@@ -576,9 +512,6 @@ content_cache_size = "128MiB"
## Page size for inverted index content cache.
content_cache_page_size = "64KiB"
## Cache size for index result.
result_cache_size = "128MiB"
## The options for inverted index in Mito engine.
[region_engine.mito.inverted_index]
@@ -679,13 +612,13 @@ fork_dictionary_bytes = "1GiB"
[[region_engine]]
## Metric engine options.
[region_engine.metric]
## Whether to use sparse primary key encoding.
sparse_primary_key_encoding = true
## Whether to enable the experimental sparse primary key encoding.
experimental_sparse_primary_key_encoding = false
## The logging options.
[logging]
## The directory to store the log files. If set to empty, logs will not be written to files.
dir = "./greptimedb_data/logs"
dir = "/tmp/greptimedb/logs"
## The log level. Can be `info`/`debug`/`warn`/`error`.
## @toml2docs:none-default
@@ -695,7 +628,7 @@ level = "info"
enable_otlp_tracing = false
## The OTLP tracing endpoint.
otlp_endpoint = "http://localhost:4318/v1/traces"
otlp_endpoint = "http://localhost:4317"
## Whether to append logs to stdout.
append_stdout = true
@@ -706,32 +639,50 @@ log_format = "text"
## The maximum amount of log files.
max_log_files = 720
## The OTLP tracing export protocol. Can be `grpc`/`http`.
otlp_export_protocol = "http"
## Additional OTLP headers, only valid when using OTLP http
[logging.otlp_headers]
## @toml2docs:none-default
#Authorization = "Bearer my-token"
## @toml2docs:none-default
#Database = "My database"
## The percentage of tracing will be sampled and exported.
## Valid range `[0, 1]`, 1 means all traces are sampled, 0 means all traces are not sampled, the default value is 1.
## ratio > 1 are treated as 1. Fractions < 0 are treated as 0
[logging.tracing_sample_ratio]
default_ratio = 1.0
## The slow query log options.
[logging.slow_query]
## Whether to enable slow query log.
enable = false
## The threshold of slow query.
## @toml2docs:none-default
threshold = "10s"
## The sampling ratio of slow query log. The value should be in the range of (0, 1].
## @toml2docs:none-default
sample_ratio = 1.0
## The datanode can export its metrics and send to Prometheus compatible service (e.g. send to `greptimedb` itself) from remote-write API.
## This is only used for `greptimedb` to export its own metrics internally. It's different from prometheus scrape.
[export_metrics]
## whether enable export metrics.
enable = false
## The interval of export metrics.
write_interval = "30s"
## For `standalone` mode, `self_import` is recommend to collect metrics generated by itself
## You must create the database before enabling it.
[export_metrics.self_import]
## @toml2docs:none-default
db = "greptime_metrics"
[export_metrics.remote_write]
## The url the metrics send to. The url example can be: `http://127.0.0.1:4000/v1/prometheus/write?db=greptime_metrics`.
url = ""
## HTTP headers of Prometheus remote-write carry.
headers = { }
## The tracing options. Only effect when compiled with `tokio-console` feature.
#+ [tracing]
## The tokio console address.
## @toml2docs:none-default
#+ tokio_console_addr = "127.0.0.1"
## The memory options.
[memory]
## Whether to enable heap profiling activation during startup.
## When enabled, heap profiling will be activated if the `MALLOC_CONF` environment variable
## is set to "prof:true,prof_active:false". The official image adds this env variable.
## Default is true.
enable_heap_profiling = true

View File

@@ -1,3 +1,6 @@
## The running mode of the flownode. It can be `standalone` or `distributed`.
mode = "distributed"
## The flownode identifier and should be unique in the cluster.
## @toml2docs:none-default
node_id = 14
@@ -7,43 +10,6 @@ node_id = 14
## The number of flow worker in flownode.
## Not setting(or set to 0) this value will use the number of CPU cores divided by 2.
#+num_workers=0
[flow.batching_mode]
## The default batching engine query timeout is 10 minutes.
#+query_timeout="600s"
## will output a warn log for any query that runs for more that this threshold
#+slow_query_threshold="60s"
## The minimum duration between two queries execution by batching mode task
#+experimental_min_refresh_duration="5s"
## The gRPC connection timeout
#+grpc_conn_timeout="5s"
## The gRPC max retry number
#+experimental_grpc_max_retries=3
## Flow wait for available frontend timeout,
## if failed to find available frontend after frontend_scan_timeout elapsed, return error
## which prevent flownode from starting
#+experimental_frontend_scan_timeout="30s"
## Frontend activity timeout
## if frontend is down(not sending heartbeat) for more than frontend_activity_timeout,
## it will be removed from the list that flownode use to connect
#+experimental_frontend_activity_timeout="60s"
## Maximum number of filters allowed in a single query
#+experimental_max_filter_num_per_query=20
## Time window merge distance
#+experimental_time_window_merge_threshold=3
## Read preference of the Frontend client.
#+read_preference="Leader"
[flow.batching_mode.frontend_tls]
## Whether to enable TLS for client.
#+enabled=false
## Server Certificate file path.
## @toml2docs:none-default
#+server_ca_cert_path=""
## Client Certificate file path.
## @toml2docs:none-default
#+client_cert_path=""
## Client Private key file path.
## @toml2docs:none-default
#+client_key_path=""
## The gRPC server options.
[grpc]
@@ -64,7 +30,7 @@ max_send_message_size = "512MB"
## The address to bind the HTTP server.
addr = "127.0.0.1:4000"
## HTTP request timeout. Set to 0 to disable timeout.
timeout = "0s"
timeout = "30s"
## HTTP request body limit.
## The following units are supported: `B`, `KB`, `KiB`, `MB`, `MiB`, `GB`, `GiB`, `TB`, `TiB`, `PB`, `PiB`.
## Set to 0 to disable limit.
@@ -78,6 +44,9 @@ metasrv_addrs = ["127.0.0.1:3002"]
## Operation timeout.
timeout = "3s"
## Heartbeat timeout.
heartbeat_timeout = "500ms"
## DDL timeout.
ddl_timeout = "10s"
@@ -107,7 +76,7 @@ retry_interval = "3s"
## The logging options.
[logging]
## The directory to store the log files. If set to empty, logs will not be written to files.
dir = "./greptimedb_data/logs"
dir = "/tmp/greptimedb/logs"
## The log level. Can be `info`/`debug`/`warn`/`error`.
## @toml2docs:none-default
@@ -117,7 +86,7 @@ level = "info"
enable_otlp_tracing = false
## The OTLP tracing endpoint.
otlp_endpoint = "http://localhost:4318/v1/traces"
otlp_endpoint = "http://localhost:4317"
## Whether to append logs to stdout.
append_stdout = true
@@ -128,44 +97,28 @@ log_format = "text"
## The maximum amount of log files.
max_log_files = 720
## The OTLP tracing export protocol. Can be `grpc`/`http`.
otlp_export_protocol = "http"
## Additional OTLP headers, only valid when using OTLP http
[logging.otlp_headers]
## @toml2docs:none-default
#Authorization = "Bearer my-token"
## @toml2docs:none-default
#Database = "My database"
## The percentage of tracing will be sampled and exported.
## Valid range `[0, 1]`, 1 means all traces are sampled, 0 means all traces are not sampled, the default value is 1.
## ratio > 1 are treated as 1. Fractions < 0 are treated as 0
[logging.tracing_sample_ratio]
default_ratio = 1.0
## The slow query log options.
[logging.slow_query]
## Whether to enable slow query log.
enable = false
## The threshold of slow query.
## @toml2docs:none-default
threshold = "10s"
## The sampling ratio of slow query log. The value should be in the range of (0, 1].
## @toml2docs:none-default
sample_ratio = 1.0
## The tracing options. Only effect when compiled with `tokio-console` feature.
#+ [tracing]
## The tokio console address.
## @toml2docs:none-default
#+ tokio_console_addr = "127.0.0.1"
[query]
## Parallelism of the query engine for query sent by flownode.
## Default to 1, so it won't use too much cpu or memory
parallelism = 1
## Memory pool size for query execution operators (aggregation, sorting, join).
## Supports absolute size (e.g., "1GB", "2GB") or percentage of system memory (e.g., "20%").
## Setting it to 0 disables the limit (unbounded, default behavior).
## When this limit is reached, queries will fail with ResourceExhausted error.
## NOTE: This does NOT limit memory used by table scans.
memory_pool_size = "50%"
## The memory options.
[memory]
## Whether to enable heap profiling activation during startup.
## When enabled, heap profiling will be activated if the `MALLOC_CONF` environment variable
## is set to "prof:true,prof_active:false". The official image adds this env variable.
## Default is true.
enable_heap_profiling = true

View File

@@ -2,10 +2,6 @@
## @toml2docs:none-default
default_timezone = "UTC"
## The default column prefix for auto-created time index and value columns.
## @toml2docs:none-default
default_column_prefix = "greptime"
## The maximum in-flight write bytes.
## @toml2docs:none-default
#+ max_in_flight_write_bytes = "500MB"
@@ -30,27 +26,17 @@ retry_interval = "3s"
## The address to bind the HTTP server.
addr = "127.0.0.1:4000"
## HTTP request timeout. Set to 0 to disable timeout.
timeout = "0s"
timeout = "30s"
## HTTP request body limit.
## The following units are supported: `B`, `KB`, `KiB`, `MB`, `MiB`, `GB`, `GiB`, `TB`, `TiB`, `PB`, `PiB`.
## Set to 0 to disable limit.
body_limit = "64MB"
## Maximum total memory for all concurrent HTTP request bodies.
## Set to 0 to disable the limit. Default: "0" (unlimited)
## @toml2docs:none-default
#+ max_total_body_memory = "1GB"
## HTTP CORS support, it's turned on by default
## This allows browser to access http APIs without CORS restrictions
enable_cors = true
## Customize allowed origins for HTTP CORS.
## @toml2docs:none-default
cors_allowed_origins = ["https://example.com"]
## Whether to enable validation for Prometheus remote write requests.
## Available options:
## - strict: deny invalid UTF-8 strings (default).
## - lossy: allow invalid UTF-8 strings, replace invalid characters with REPLACEMENT_CHARACTER(U+FFFD).
## - unchecked: do not valid strings.
prom_validation_mode = "strict"
## The gRPC server options.
[grpc]
@@ -62,22 +48,6 @@ bind_addr = "127.0.0.1:4001"
server_addr = "127.0.0.1:4001"
## The number of server worker threads.
runtime_size = 8
## Maximum total memory for all concurrent gRPC request messages.
## Set to 0 to disable the limit. Default: "0" (unlimited)
## @toml2docs:none-default
#+ max_total_message_memory = "1GB"
## Compression mode for frontend side Arrow IPC service. Available options:
## - `none`: disable all compression
## - `transport`: only enable gRPC transport compression (zstd)
## - `arrow_ipc`: only enable Arrow IPC compression (lz4)
## - `all`: enable all compression.
## Default to `none`
flight_compression = "arrow_ipc"
## The maximum connection age for gRPC connection.
## The value can be a human-readable time string. For example: `10m` for ten minutes or `1h` for one hour.
## Refer to https://grpc.io/docs/guides/keepalive/ for more details.
## @toml2docs:none-default
#+ max_connection_age = "10m"
## gRPC server TLS options, see `mysql.tls` section.
[grpc.tls]
@@ -96,41 +66,6 @@ key_path = ""
## For now, gRPC tls config does not support auto reload.
watch = false
## The internal gRPC server options. Internal gRPC port for nodes inside cluster to access frontend.
[internal_grpc]
## The address to bind the gRPC server.
bind_addr = "127.0.0.1:4010"
## The address advertised to the metasrv, and used for connections from outside the host.
## If left empty or unset, the server will automatically use the IP address of the first network interface
## on the host, with the same port number as the one specified in `grpc.bind_addr`.
server_addr = "127.0.0.1:4010"
## The number of server worker threads.
runtime_size = 8
## Compression mode for frontend side Arrow IPC service. Available options:
## - `none`: disable all compression
## - `transport`: only enable gRPC transport compression (zstd)
## - `arrow_ipc`: only enable Arrow IPC compression (lz4)
## - `all`: enable all compression.
## Default to `none`
flight_compression = "arrow_ipc"
## internal gRPC server TLS options, see `mysql.tls` section.
[internal_grpc.tls]
## TLS mode.
mode = "disable"
## Certificate file path.
## @toml2docs:none-default
cert_path = ""
## Private key file path.
## @toml2docs:none-default
key_path = ""
## Watch for Certificate and key file change and auto reload.
## For now, gRPC tls config does not support auto reload.
watch = false
## MySQL server options.
[mysql]
## Whether to enable.
@@ -142,8 +77,6 @@ runtime_size = 2
## Server-side keep-alive time.
## Set to 0 (default) to disable.
keep_alive = "0s"
## Maximum entries in the MySQL prepared statement cache; default is 10,000.
prepared_stmt_cache_size = 10000
# MySQL server TLS options.
[mysql.tls]
@@ -225,6 +158,9 @@ metasrv_addrs = ["127.0.0.1:3002"]
## Operation timeout.
timeout = "3s"
## Heartbeat timeout.
heartbeat_timeout = "500ms"
## DDL timeout.
ddl_timeout = "10s"
@@ -243,22 +179,6 @@ metadata_cache_ttl = "10m"
# TTI of the metadata cache.
metadata_cache_tti = "5m"
## The query engine options.
[query]
## Parallelism of the query engine.
## Default to 0, which means the number of CPU cores.
parallelism = 0
## Whether to allow query fallback when push down optimize fails.
## Default to false, meaning when push down optimize failed, return error msg
allow_query_fallback = false
## Memory pool size for query execution operators (aggregation, sorting, join).
## Supports absolute size (e.g., "4GB", "8GB") or percentage of system memory (e.g., "30%").
## Setting it to 0 disables the limit (unbounded, default behavior).
## When this limit is reached, queries will fail with ResourceExhausted error.
## NOTE: This does NOT limit memory used by table scans (only applies to datanodes).
memory_pool_size = "50%"
## Datanode options.
[datanode]
## Datanode client options.
@@ -269,7 +189,7 @@ tcp_nodelay = true
## The logging options.
[logging]
## The directory to store the log files. If set to empty, logs will not be written to files.
dir = "./greptimedb_data/logs"
dir = "/tmp/greptimedb/logs"
## The log level. Can be `info`/`debug`/`warn`/`error`.
## @toml2docs:none-default
@@ -279,7 +199,7 @@ level = "info"
enable_otlp_tracing = false
## The OTLP tracing endpoint.
otlp_endpoint = "http://localhost:4318/v1/traces"
otlp_endpoint = "http://localhost:4317"
## Whether to append logs to stdout.
append_stdout = true
@@ -290,16 +210,6 @@ log_format = "text"
## The maximum amount of log files.
max_log_files = 720
## The OTLP tracing export protocol. Can be `grpc`/`http`.
otlp_export_protocol = "http"
## Additional OTLP headers, only valid when using OTLP http
[logging.otlp_headers]
## @toml2docs:none-default
#Authorization = "Bearer my-token"
## @toml2docs:none-default
#Database = "My database"
## The percentage of tracing will be sampled and exported.
## Valid range `[0, 1]`, 1 means all traces are sampled, 0 means all traces are not sampled, the default value is 1.
## ratio > 1 are treated as 1. Fractions < 0 are treated as 0
@@ -307,39 +217,43 @@ otlp_export_protocol = "http"
default_ratio = 1.0
## The slow query log options.
[slow_query]
[logging.slow_query]
## Whether to enable slow query log.
enable = true
enable = false
## The record type of slow queries. It can be `system_table` or `log`.
## If `system_table` is selected, the slow queries will be recorded in a system table `greptime_private.slow_queries`.
## If `log` is selected, the slow queries will be logged in a log file `greptimedb-slow-queries.*`.
record_type = "system_table"
## The threshold of slow query.
## @toml2docs:none-default
threshold = "10s"
## The threshold of slow query. It can be human readable time string, for example: `10s`, `100ms`, `1s`.
threshold = "30s"
## The sampling ratio of slow query log. The value should be in the range of (0, 1]. For example, `0.1` means 10% of the slow queries will be logged and `1.0` means all slow queries will be logged.
## The sampling ratio of slow query log. The value should be in the range of (0, 1].
## @toml2docs:none-default
sample_ratio = 1.0
## The TTL of the `slow_queries` system table. Default is `90d` when `record_type` is `system_table`.
ttl = "90d"
## The datanode can export its metrics and send to Prometheus compatible service (e.g. send to `greptimedb` itself) from remote-write API.
## This is only used for `greptimedb` to export its own metrics internally. It's different from prometheus scrape.
[export_metrics]
## whether enable export metrics.
enable = false
## The interval of export metrics.
write_interval = "30s"
## For `standalone` mode, `self_import` is recommend to collect metrics generated by itself
## You must create the database before enabling it.
[export_metrics.self_import]
## @toml2docs:none-default
db = "greptime_metrics"
[export_metrics.remote_write]
## The url the metrics send to. The url example can be: `http://127.0.0.1:4000/v1/prometheus/write?db=greptime_metrics`.
url = ""
## HTTP headers of Prometheus remote-write carry.
headers = { }
## The tracing options. Only effect when compiled with `tokio-console` feature.
#+ [tracing]
## The tokio console address.
## @toml2docs:none-default
#+ tokio_console_addr = "127.0.0.1"
## The memory options.
[memory]
## Whether to enable heap profiling activation during startup.
## When enabled, heap profiling will be activated if the `MALLOC_CONF` environment variable
## is set to "prof:true,prof_active:false". The official image adds this env variable.
## Default is true.
enable_heap_profiling = true
## Configuration options for the event recorder.
[event_recorder]
## TTL for the events table that will be used to store the events. Default is `90d`.
ttl = "90d"

View File

@@ -1,19 +1,19 @@
## The working home directory.
data_home = "./greptimedb_data"
data_home = "/tmp/metasrv/"
## Store server address(es). The format depends on the selected backend.
##
## For etcd: a list of "host:port" endpoints.
## e.g. ["192.168.1.1:2379", "192.168.1.2:2379"]
##
## For PostgreSQL: a connection string in libpq format or URI.
## e.g.
## - "host=localhost port=5432 user=postgres password=<PASSWORD> dbname=postgres"
## - "postgresql://user:password@localhost:5432/mydb?connect_timeout=10"
## The detail see: https://docs.rs/tokio-postgres/latest/tokio_postgres/config/struct.Config.html
##
## For mysql store, the format is a MySQL connection URL.
## e.g. "mysql://user:password@localhost:3306/greptime_meta?ssl-mode=VERIFY_CA&ssl-ca=/path/to/ca.pem"
## The bind address of metasrv.
bind_addr = "127.0.0.1:3002"
## The communication server address for the frontend and datanode to connect to metasrv.
## If left empty or unset, the server will automatically use the IP address of the first network interface
## on the host, with the same port number as the one specified in `bind_addr`.
server_addr = "127.0.0.1:3002"
## Store server address default to etcd store.
## For postgres store, the format is:
## "password=password dbname=postgres user=postgres host=localhost port=5432"
## For etcd store, the format is:
## "127.0.0.1:2379"
store_addrs = ["127.0.0.1:2379"]
## If it's not empty, the metasrv will store all data with this key prefix.
@@ -24,21 +24,12 @@ store_key_prefix = ""
## - `etcd_store` (default value)
## - `memory_store`
## - `postgres_store`
## - `mysql_store`
backend = "etcd_store"
## Table name in RDS to store metadata. Effect when using a RDS kvbackend.
## **Only used when backend is `postgres_store`.**
meta_table_name = "greptime_metakv"
## Optional PostgreSQL schema for metadata table and election table name qualification.
## When PostgreSQL public schema is not writable (e.g., PostgreSQL 15+ with restricted public),
## set this to a writable schema. GreptimeDB will use `meta_schema_name`.`meta_table_name`.
## GreptimeDB will NOT create the schema automatically; please ensure it exists or the user has permission.
## **Only used when backend is `postgres_store`.**
meta_schema_name = "greptime_schema"
## Advisory lock id in PostgreSQL for election. Effect when using PostgreSQL as kvbackend
## Only used when backend is `postgres_store`.
meta_election_lock_id = 1
@@ -59,25 +50,9 @@ use_memory_store = false
## - Using shared storage (e.g., s3).
enable_region_failover = false
## The delay before starting region failure detection.
## This delay helps prevent Metasrv from triggering unnecessary region failovers before all Datanodes are fully started.
## Especially useful when the cluster is not deployed with GreptimeDB Operator and maintenance mode is not enabled.
region_failure_detector_initialization_delay = '10m'
## Whether to allow region failover on local WAL.
## **This option is not recommended to be set to true, because it may lead to data loss during failover.**
allow_region_failover_on_local_wal = false
## Max allowed idle time before removing node info from metasrv memory.
node_max_idle_time = "24hours"
## Base heartbeat interval for calculating distributed time constants.
## The frontend heartbeat interval is 6 times of the base heartbeat interval.
## The flownode/datanode heartbeat interval is 1 times of the base heartbeat interval.
## e.g., If the base heartbeat interval is 3s, the frontend heartbeat interval is 18s, the flownode/datanode heartbeat interval is 3s.
## If you change this value, you need to change the heartbeat interval of the flownode/frontend/datanode accordingly.
#+ heartbeat_interval = "3s"
## Whether to enable greptimedb telemetry. Enabled by default.
#+ enable_telemetry = true
@@ -88,74 +63,6 @@ node_max_idle_time = "24hours"
## The number of threads to execute the runtime for global write operations.
#+ compact_rt_size = 4
## TLS configuration for kv store backend (applicable for etcd, PostgreSQL, and MySQL backends)
## When using etcd, PostgreSQL, or MySQL as metadata store, you can configure TLS here
##
## Note: if TLS is configured in both this section and the `store_addrs` connection string, the
## settings here will override the TLS settings in `store_addrs`.
[backend_tls]
## TLS mode, refer to https://www.postgresql.org/docs/current/libpq-ssl.html
## - "disable" - No TLS
## - "prefer" (default) - Try TLS, fallback to plain
## - "require" - Require TLS
## - "verify_ca" - Require TLS and verify CA
## - "verify_full" - Require TLS and verify hostname
mode = "prefer"
## Path to client certificate file (for client authentication)
## Like "/path/to/client.crt"
cert_path = ""
## Path to client private key file (for client authentication)
## Like "/path/to/client.key"
key_path = ""
## Path to CA certificate file (for server certificate verification)
## Required when using custom CAs or self-signed certificates
## Leave empty to use system root certificates only
## Like "/path/to/ca.crt"
ca_cert_path = ""
## The backend client options.
## Currently, only applicable when using etcd as the metadata store.
#+ [backend_client]
## The keep alive timeout for backend client.
#+ keep_alive_timeout = "3s"
## The keep alive interval for backend client.
#+ keep_alive_interval = "10s"
## The connect timeout for backend client.
#+ connect_timeout = "3s"
## The gRPC server options.
[grpc]
## The address to bind the gRPC server.
bind_addr = "127.0.0.1:3002"
## The communication server address for the frontend and datanode to connect to metasrv.
## If left empty or unset, the server will automatically use the IP address of the first network interface
## on the host, with the same port number as the one specified in `bind_addr`.
server_addr = "127.0.0.1:3002"
## The number of server worker threads.
runtime_size = 8
## The maximum receive message size for gRPC server.
max_recv_message_size = "512MB"
## The maximum send message size for gRPC server.
max_send_message_size = "512MB"
## The server side HTTP/2 keep-alive interval
#+ http2_keep_alive_interval = "10s"
## The server side HTTP/2 keep-alive timeout.
#+ http2_keep_alive_timeout = "3s"
## The HTTP server options.
[http]
## The address to bind the HTTP server.
addr = "127.0.0.1:4000"
## HTTP request timeout. Set to 0 to disable timeout.
timeout = "0s"
## HTTP request body limit.
## The following units are supported: `B`, `KB`, `KiB`, `MB`, `MiB`, `GB`, `GiB`, `TB`, `TiB`, `PB`, `PiB`.
## Set to 0 to disable limit.
body_limit = "64MB"
## Procedure storage options.
[procedure]
@@ -172,24 +79,21 @@ retry_delay = "500ms"
## Comments out the `max_metadata_value_size`, for don't split large value (no limit).
max_metadata_value_size = "1500KiB"
## Max running procedures.
## The maximum number of procedures that can be running at the same time.
## If the number of running procedures exceeds this limit, the procedure will be rejected.
max_running_procedures = 128
# Failure detectors options.
# GreptimeDB uses the Phi Accrual Failure Detector algorithm to detect datanode failures.
[failure_detector]
## Maximum acceptable φ before the peer is treated as failed.
## Lower values react faster but yield more false positives.
## The threshold value used by the failure detector to determine failure conditions.
threshold = 8.0
## The minimum standard deviation of the heartbeat intervals.
## So tiny variations dont make φ explode. Prevents hypersensitivity when heartbeat intervals barely vary.
## The minimum standard deviation of the heartbeat intervals, used to calculate acceptable variations.
min_std_deviation = "100ms"
## The acceptable pause duration between heartbeats.
## Additional extra grace period to the learned mean interval before φ rises, absorbing temporary network hiccups or GC pauses.
## The acceptable pause duration between heartbeats, used to determine if a heartbeat interval is acceptable.
acceptable_heartbeat_pause = "10000ms"
## The initial estimate of the heartbeat interval used by the failure detector.
first_heartbeat_estimate = "1000ms"
## Datanode options.
[datanode]
@@ -211,70 +115,46 @@ tcp_nodelay = true
# - `kafka`: metasrv **have to be** configured with kafka wal config when using kafka wal provider in datanode.
provider = "raft_engine"
# Kafka wal config.
## The broker endpoints of the Kafka cluster.
##
## **It's only used when the provider is `kafka`**.
broker_endpoints = ["127.0.0.1:9092"]
## Automatically create topics for WAL.
## Set to `true` to automatically create topics for WAL.
## Otherwise, use topics named `topic_name_prefix_[0..num_topics)`
## **It's only used when the provider is `kafka`**.
auto_create_topics = true
## Interval of automatically WAL pruning.
## Set to `0s` to disable automatically WAL pruning which delete unused remote WAL entries periodically.
## **It's only used when the provider is `kafka`**.
auto_prune_interval = "30m"
## Estimated size threshold to trigger a flush when using Kafka remote WAL.
## Since multiple regions may share a Kafka topic, the estimated size is calculated as:
## (latest_entry_id - flushed_entry_id) * avg_record_size
## MetaSrv triggers a flush for a region when this estimated size exceeds `flush_trigger_size`.
## - `latest_entry_id`: The latest entry ID in the topic.
## - `flushed_entry_id`: The last flushed entry ID for the region.
## Set to "0" to let the system decide the flush trigger size.
## **It's only used when the provider is `kafka`**.
flush_trigger_size = "512MB"
## Estimated size threshold to trigger a checkpoint when using Kafka remote WAL.
## The estimated size is calculated as:
## (latest_entry_id - last_checkpoint_entry_id) * avg_record_size
## MetaSrv triggers a checkpoint for a region when this estimated size exceeds `checkpoint_trigger_size`.
## Set to "0" to let the system decide the checkpoint trigger size.
## **It's only used when the provider is `kafka`**.
checkpoint_trigger_size = "128MB"
## Concurrent task limit for automatically WAL pruning.
## **It's only used when the provider is `kafka`**.
auto_prune_parallelism = 10
## Number of topics used for remote WAL.
## **It's only used when the provider is `kafka`**.
## Number of topics.
num_topics = 64
## Topic selector type.
## Available selector types:
## - `round_robin` (default)
## **It's only used when the provider is `kafka`**.
selector_type = "round_robin"
## A Kafka topic is constructed by concatenating `topic_name_prefix` and `topic_id`.
## Only accepts strings that match the following regular expression pattern:
## [a-zA-Z_:-][a-zA-Z0-9_:\-\.@#]*
## i.g., greptimedb_wal_topic_0, greptimedb_wal_topic_1.
## **It's only used when the provider is `kafka`**.
topic_name_prefix = "greptimedb_wal_topic"
## Expected number of replicas of each partition.
## **It's only used when the provider is `kafka`**.
replication_factor = 1
## The timeout for creating a Kafka topic.
## **It's only used when the provider is `kafka`**.
## Above which a topic creation operation will be cancelled.
create_topic_timeout = "30s"
## The initial backoff for kafka clients.
backoff_init = "500ms"
## The maximum backoff for kafka clients.
backoff_max = "10s"
## Exponential backoff rate, i.e. next backoff = base * current backoff.
backoff_base = 2
## Stop reconnecting if the total wait time reaches the deadline. If this config is missing, the reconnecting won't terminate.
backoff_deadline = "5mins"
# The Kafka SASL configuration.
# **It's only used when the provider is `kafka`**.
@@ -294,27 +174,10 @@ create_topic_timeout = "30s"
# client_cert_path = "/path/to/client_cert"
# client_key_path = "/path/to/key"
## Configuration options for the event recorder.
[event_recorder]
## TTL for the events table that will be used to store the events. Default is `90d`.
ttl = "90d"
## Configuration options for the stats persistence.
[stats_persistence]
## TTL for the stats table that will be used to store the stats.
## Set to `0s` to disable stats persistence.
## Default is `0s`.
## If you want to enable stats persistence, set the TTL to a value greater than 0.
## It is recommended to set a small value, e.g., `3h`.
ttl = "0s"
## The interval to persist the stats. Default is `10m`.
## The minimum value is `10m`, if the value is less than `10m`, it will be overridden to `10m`.
interval = "10m"
## The logging options.
[logging]
## The directory to store the log files. If set to empty, logs will not be written to files.
dir = "./greptimedb_data/logs"
dir = "/tmp/greptimedb/logs"
## The log level. Can be `info`/`debug`/`warn`/`error`.
## @toml2docs:none-default
@@ -324,7 +187,7 @@ level = "info"
enable_otlp_tracing = false
## The OTLP tracing endpoint.
otlp_endpoint = "http://localhost:4318/v1/traces"
otlp_endpoint = "http://localhost:4317"
## Whether to append logs to stdout.
append_stdout = true
@@ -335,33 +198,50 @@ log_format = "text"
## The maximum amount of log files.
max_log_files = 720
## The OTLP tracing export protocol. Can be `grpc`/`http`.
otlp_export_protocol = "http"
## Additional OTLP headers, only valid when using OTLP http
[logging.otlp_headers]
## @toml2docs:none-default
#Authorization = "Bearer my-token"
## @toml2docs:none-default
#Database = "My database"
## The percentage of tracing will be sampled and exported.
## Valid range `[0, 1]`, 1 means all traces are sampled, 0 means all traces are not sampled, the default value is 1.
## ratio > 1 are treated as 1. Fractions < 0 are treated as 0
[logging.tracing_sample_ratio]
default_ratio = 1.0
## The slow query log options.
[logging.slow_query]
## Whether to enable slow query log.
enable = false
## The threshold of slow query.
## @toml2docs:none-default
threshold = "10s"
## The sampling ratio of slow query log. The value should be in the range of (0, 1].
## @toml2docs:none-default
sample_ratio = 1.0
## The datanode can export its metrics and send to Prometheus compatible service (e.g. send to `greptimedb` itself) from remote-write API.
## This is only used for `greptimedb` to export its own metrics internally. It's different from prometheus scrape.
[export_metrics]
## whether enable export metrics.
enable = false
## The interval of export metrics.
write_interval = "30s"
## For `standalone` mode, `self_import` is recommend to collect metrics generated by itself
## You must create the database before enabling it.
[export_metrics.self_import]
## @toml2docs:none-default
db = "greptime_metrics"
[export_metrics.remote_write]
## The url the metrics send to. The url example can be: `http://127.0.0.1:4000/v1/prometheus/write?db=greptime_metrics`.
url = ""
## HTTP headers of Prometheus remote-write carry.
headers = { }
## The tracing options. Only effect when compiled with `tokio-console` feature.
#+ [tracing]
## The tokio console address.
## @toml2docs:none-default
#+ tokio_console_addr = "127.0.0.1"
## The memory options.
[memory]
## Whether to enable heap profiling activation during startup.
## When enabled, heap profiling will be activated if the `MALLOC_CONF` environment variable
## is set to "prof:true,prof_active:false". The official image adds this env variable.
## Default is true.
enable_heap_profiling = true

View File

@@ -1,11 +1,10 @@
## The running mode of the datanode. It can be `standalone` or `distributed`.
mode = "standalone"
## The default timezone of the server.
## @toml2docs:none-default
default_timezone = "UTC"
## The default column prefix for auto-created time index and value columns.
## @toml2docs:none-default
default_column_prefix = "greptime"
## Initialize all regions in the background during the startup.
## By default, it provides services after all regions have been initialized.
init_regions_in_background = false
@@ -14,9 +13,6 @@ init_regions_in_background = false
init_regions_parallelism = 16
## The maximum current queries allowed to be executed. Zero means unlimited.
## NOTE: This setting affects scan_memory_limit's privileged tier allocation.
## When set, 70% of queries get privileged memory access (full scan_memory_limit).
## The remaining 30% get standard tier access (70% of scan_memory_limit).
max_concurrent_queries = 0
## Enable telemetry to collect anonymous usage data. Enabled by default.
@@ -38,15 +34,11 @@ max_concurrent_queries = 0
## The address to bind the HTTP server.
addr = "127.0.0.1:4000"
## HTTP request timeout. Set to 0 to disable timeout.
timeout = "0s"
timeout = "30s"
## HTTP request body limit.
## The following units are supported: `B`, `KB`, `KiB`, `MB`, `MiB`, `GB`, `GiB`, `TB`, `TiB`, `PB`, `PiB`.
## Set to 0 to disable limit.
body_limit = "64MB"
## Maximum total memory for all concurrent HTTP request bodies.
## Set to 0 to disable the limit. Default: "0" (unlimited)
## @toml2docs:none-default
#+ max_total_body_memory = "1GB"
## HTTP CORS support, it's turned on by default
## This allows browser to access http APIs without CORS restrictions
enable_cors = true
@@ -54,28 +46,12 @@ enable_cors = true
## @toml2docs:none-default
cors_allowed_origins = ["https://example.com"]
## Whether to enable validation for Prometheus remote write requests.
## Available options:
## - strict: deny invalid UTF-8 strings (default).
## - lossy: allow invalid UTF-8 strings, replace invalid characters with REPLACEMENT_CHARACTER(U+FFFD).
## - unchecked: do not valid strings.
prom_validation_mode = "strict"
## The gRPC server options.
[grpc]
## The address to bind the gRPC server.
bind_addr = "127.0.0.1:4001"
## The number of server worker threads.
runtime_size = 8
## Maximum total memory for all concurrent gRPC request messages.
## Set to 0 to disable the limit. Default: "0" (unlimited)
## @toml2docs:none-default
#+ max_total_message_memory = "1GB"
## The maximum connection age for gRPC connection.
## The value can be a human-readable time string. For example: `10m` for ten minutes or `1h` for one hour.
## Refer to https://grpc.io/docs/guides/keepalive/ for more details.
## @toml2docs:none-default
#+ max_connection_age = "10m"
## gRPC server TLS options, see `mysql.tls` section.
[grpc.tls]
@@ -105,8 +81,7 @@ runtime_size = 2
## Server-side keep-alive time.
## Set to 0 (default) to disable.
keep_alive = "0s"
## Maximum entries in the MySQL prepared statement cache; default is 10,000.
prepared_stmt_cache_size= 10000
# MySQL server TLS options.
[mysql.tls]
@@ -189,7 +164,7 @@ provider = "raft_engine"
## The directory to store the WAL files.
## **It's only used when the provider is `raft_engine`**.
## @toml2docs:none-default
dir = "./greptimedb_data/wal"
dir = "/tmp/greptimedb/wal"
## The size of the WAL segment file.
## **It's only used when the provider is `raft_engine`**.
@@ -230,14 +205,6 @@ recovery_parallelism = 2
## **It's only used when the provider is `kafka`**.
broker_endpoints = ["127.0.0.1:9092"]
## The connect timeout for kafka client.
## **It's only used when the provider is `kafka`**.
#+ connect_timeout = "3s"
## The timeout for kafka client.
## **It's only used when the provider is `kafka`**.
#+ timeout = "3s"
## Automatically create topics for WAL.
## Set to `true` to automatically create topics for WAL.
## Otherwise, use topics named `topic_name_prefix_[0..num_topics)`
@@ -275,6 +242,22 @@ max_batch_bytes = "1MB"
## **It's only used when the provider is `kafka`**.
consumer_wait_timeout = "100ms"
## The initial backoff delay.
## **It's only used when the provider is `kafka`**.
backoff_init = "500ms"
## The maximum backoff delay.
## **It's only used when the provider is `kafka`**.
backoff_max = "10s"
## The exponential backoff rate, i.e. next backoff = base * current backoff.
## **It's only used when the provider is `kafka`**.
backoff_base = 2
## The deadline of retries.
## **It's only used when the provider is `kafka`**.
backoff_deadline = "5mins"
## Ignore missing entries during read WAL.
## **It's only used when the provider is `kafka`**.
##
@@ -319,10 +302,6 @@ purge_interval = "1m"
max_retry_times = 3
## Initial retry delay of procedures, increases exponentially
retry_delay = "500ms"
## Max running procedures.
## The maximum number of procedures that can be running at the same time.
## If the number of running procedures exceeds this limit, the procedure will be rejected.
max_running_procedures = 128
## flow engine options.
[flow]
@@ -340,7 +319,6 @@ max_running_procedures = 128
# endpoint = "https://s3.amazonaws.com"
# region = "us-west-2"
# enable_virtual_host_style = false
# disable_ec2_metadata = false
# Example of using Oss as the storage.
# [storage]
@@ -371,23 +349,10 @@ max_running_procedures = 128
# credential = "base64-credential"
# endpoint = "https://storage.googleapis.com"
## The query engine options.
[query]
## Parallelism of the query engine.
## Default to 0, which means the number of CPU cores.
parallelism = 0
## Memory pool size for query execution operators (aggregation, sorting, join).
## Supports absolute size (e.g., "2GB", "4GB") or percentage of system memory (e.g., "20%").
## Setting it to 0 disables the limit (unbounded, default behavior).
## When this limit is reached, queries will fail with ResourceExhausted error.
## NOTE: This does NOT limit memory used by table scans.
memory_pool_size = "50%"
## The data storage options.
[storage]
## The working home directory.
data_home = "./greptimedb_data"
data_home = "/tmp/greptimedb/"
## The storage type used to store the data.
## - `File`: the data is stored in the local file system.
@@ -397,6 +362,15 @@ data_home = "./greptimedb_data"
## - `Oss`: the data is stored in the Aliyun OSS.
type = "File"
## Read cache configuration for object storage such as 'S3' etc, it's configured by default when using object storage. It is recommended to configure it when using object storage for better performance.
## A local file directory, defaults to `{data_home}`. An empty string means disabling.
## @toml2docs:none-default
#+ cache_path = ""
## The local file cache capacity in bytes. If your disk space is sufficient, it is recommended to set it larger.
## @toml2docs:none-default
cache_capacity = "5GiB"
## The S3 bucket name.
## **It's only used when the storage type is `S3`, `Oss` and `Gcs`**.
## @toml2docs:none-default
@@ -486,10 +460,6 @@ timeout = "30s"
## The timeout for idle sockets being kept-alive.
pool_idle_timeout = "90s"
## To skip the ssl verification
## **Security Notice**: Setting `skip_ssl_validation = true` disables certificate verification, making connections vulnerable to man-in-the-middle attacks. Only use this in development or trusted private networks.
skip_ssl_validation = false
# Custom storage options
# [[storage.providers]]
# name = "S3"
@@ -543,15 +513,6 @@ compress_manifest = false
## @toml2docs:none-default="Auto"
#+ max_background_purges = 8
## Memory budget for compaction tasks. Setting it to 0 or "unlimited" disables the limit.
## @toml2docs:none-default="0"
#+ experimental_compaction_memory_limit = "0"
## Behavior when compaction cannot acquire memory from the budget.
## Options: "wait" (default, 10s), "wait(<duration>)", "fail"
## @toml2docs:none-default="wait"
#+ experimental_compaction_on_exhausted = "wait"
## Interval to auto flush a region if it has not flushed yet.
auto_flush_interval = "1h"
@@ -596,51 +557,19 @@ write_cache_size = "5GiB"
## @toml2docs:none-default
write_cache_ttl = "8h"
## Preload index (puffin) files into cache on region open (default: true).
## When enabled, index files are loaded into the write cache during region initialization,
## which can improve query performance at the cost of longer startup times.
preload_index_cache = true
## Percentage of write cache capacity allocated for index (puffin) files (default: 20).
## The remaining capacity is used for data (parquet) files.
## Must be between 0 and 100 (exclusive). For example, with a 5GiB write cache and 20% allocation,
## 1GiB is reserved for index files and 4GiB for data files.
index_cache_percent = 20
## Enable refilling cache on read operations (default: true).
## When disabled, cache refilling on read won't happen.
enable_refill_cache_on_read = true
## Capacity for manifest cache (default: 256MB).
manifest_cache_size = "256MB"
## Buffer size for SST writing.
sst_write_buffer_size = "8MB"
## Capacity of the channel to send data from parallel scan tasks to the main task.
parallel_scan_channel_size = 32
## Maximum number of SST files to scan concurrently.
max_concurrent_scan_files = 384
## Whether to allow stale WAL entries read during replay.
allow_stale_entries = false
## Memory limit for table scans across all queries.
## Supports absolute size (e.g., "2GB") or percentage of system memory (e.g., "20%").
## Setting it to 0 disables the limit.
## NOTE: Works with max_concurrent_queries for tiered memory allocation.
## - If max_concurrent_queries is set: 70% of queries get full access, 30% get 70% access.
## - If max_concurrent_queries is 0 (unlimited): first 20 queries get full access, rest get 70% access.
scan_memory_limit = "50%"
## Minimum time interval between two compactions.
## To align with the old behavior, the default value is 0 (no restrictions).
min_compaction_interval = "0m"
## Whether to enable experimental flat format as the default format.
default_experimental_flat_format = false
## The options for index in Mito engine.
[region_engine.mito.index]
@@ -670,9 +599,6 @@ content_cache_size = "128MiB"
## Page size for inverted index content cache.
content_cache_page_size = "64KiB"
## Cache size for index result.
result_cache_size = "128MiB"
## The options for inverted index in Mito engine.
[region_engine.mito.inverted_index]
@@ -773,13 +699,13 @@ fork_dictionary_bytes = "1GiB"
[[region_engine]]
## Metric engine options.
[region_engine.metric]
## Whether to use sparse primary key encoding.
sparse_primary_key_encoding = true
## Whether to enable the experimental sparse primary key encoding.
experimental_sparse_primary_key_encoding = false
## The logging options.
[logging]
## The directory to store the log files. If set to empty, logs will not be written to files.
dir = "./greptimedb_data/logs"
dir = "/tmp/greptimedb/logs"
## The log level. Can be `info`/`debug`/`warn`/`error`.
## @toml2docs:none-default
@@ -789,7 +715,7 @@ level = "info"
enable_otlp_tracing = false
## The OTLP tracing endpoint.
otlp_endpoint = "http://localhost:4318/v1/traces"
otlp_endpoint = "http://localhost:4317"
## Whether to append logs to stdout.
append_stdout = true
@@ -800,16 +726,6 @@ log_format = "text"
## The maximum amount of log files.
max_log_files = 720
## The OTLP tracing export protocol. Can be `grpc`/`http`.
otlp_export_protocol = "http"
## Additional OTLP headers, only valid when using OTLP http
[logging.otlp_headers]
## @toml2docs:none-default
#Authorization = "Bearer my-token"
## @toml2docs:none-default
#Database = "My database"
## The percentage of tracing will be sampled and exported.
## Valid range `[0, 1]`, 1 means all traces are sampled, 0 means all traces are not sampled, the default value is 1.
## ratio > 1 are treated as 1. Fractions < 0 are treated as 0
@@ -817,32 +733,43 @@ otlp_export_protocol = "http"
default_ratio = 1.0
## The slow query log options.
[slow_query]
[logging.slow_query]
## Whether to enable slow query log.
#+ enable = false
## The record type of slow queries. It can be `system_table` or `log`.
## @toml2docs:none-default
#+ record_type = "system_table"
enable = false
## The threshold of slow query.
## @toml2docs:none-default
#+ threshold = "10s"
threshold = "10s"
## The sampling ratio of slow query log. The value should be in the range of (0, 1].
## @toml2docs:none-default
#+ sample_ratio = 1.0
sample_ratio = 1.0
## The datanode can export its metrics and send to Prometheus compatible service (e.g. send to `greptimedb` itself) from remote-write API.
## This is only used for `greptimedb` to export its own metrics internally. It's different from prometheus scrape.
[export_metrics]
## whether enable export metrics.
enable = false
## The interval of export metrics.
write_interval = "30s"
## For `standalone` mode, `self_import` is recommended to collect metrics generated by itself
## You must create the database before enabling it.
[export_metrics.self_import]
## @toml2docs:none-default
db = "greptime_metrics"
[export_metrics.remote_write]
## The url the metrics send to. The url example can be: `http://127.0.0.1:4000/v1/prometheus/write?db=greptime_metrics`.
url = ""
## HTTP headers of Prometheus remote-write carry.
headers = { }
## The tracing options. Only effect when compiled with `tokio-console` feature.
#+ [tracing]
## The tokio console address.
## @toml2docs:none-default
#+ tokio_console_addr = "127.0.0.1"
## The memory options.
[memory]
## Whether to enable heap profiling activation during startup.
## When enabled, heap profiling will be activated if the `MALLOC_CONF` environment variable
## is set to "prof:true,prof_active:false". The official image adds this env variable.
## Default is true.
enable_heap_profiling = true

View File

@@ -0,0 +1,75 @@
/*
* Copyright 2023 Greptime Team
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
import * as core from "@actions/core";
import {obtainClient} from "@/common";
async function triggerWorkflow(workflowId: string, version: string) {
const docsClient = obtainClient("DOCS_REPO_TOKEN")
try {
await docsClient.rest.actions.createWorkflowDispatch({
owner: "GreptimeTeam",
repo: "docs",
workflow_id: workflowId,
ref: "main",
inputs: {
version,
},
});
console.log(`Successfully triggered ${workflowId} workflow with version ${version}`);
} catch (error) {
core.setFailed(`Failed to trigger workflow: ${error.message}`);
}
}
function determineWorkflow(version: string): [string, string] {
// Check if it's a nightly version
if (version.includes('nightly')) {
return ['bump-nightly-version.yml', version];
}
const parts = version.split('.');
if (parts.length !== 3) {
throw new Error('Invalid version format');
}
// If patch version (last number) is 0, it's a major version
// Return only major.minor version
if (parts[2] === '0') {
return ['bump-version.yml', `${parts[0]}.${parts[1]}`];
}
// Otherwise it's a patch version, use full version
return ['bump-patch-version.yml', version];
}
const version = process.env.VERSION;
if (!version) {
core.setFailed("VERSION environment variable is required");
process.exit(1);
}
// Remove 'v' prefix if exists
const cleanVersion = version.startsWith('v') ? version.slice(1) : version;
try {
const [workflowId, apiVersion] = determineWorkflow(cleanVersion);
triggerWorkflow(workflowId, apiVersion);
} catch (error) {
core.setFailed(`Error processing version: ${error.message}`);
process.exit(1);
}

View File

@@ -1,156 +0,0 @@
/*
* Copyright 2023 Greptime Team
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
import * as core from "@actions/core";
import {obtainClient} from "@/common";
interface RepoConfig {
tokenEnv: string;
repo: string;
workflowLogic: (version: string) => [string, string] | null;
}
const REPO_CONFIGS: Record<string, RepoConfig> = {
website: {
tokenEnv: "WEBSITE_REPO_TOKEN",
repo: "website",
workflowLogic: (version: string) => {
// Skip nightly versions for website
if (version.includes('nightly')) {
console.log('Nightly version detected for website, skipping workflow trigger.');
return null;
}
return ['bump-patch-version.yml', version];
}
},
demo: {
tokenEnv: "DEMO_REPO_TOKEN",
repo: "demo-scene",
workflowLogic: (version: string) => {
// Skip nightly versions for demo
if (version.includes('nightly')) {
console.log('Nightly version detected for demo, skipping workflow trigger.');
return null;
}
return ['bump-patch-version.yml', version];
}
},
docs: {
tokenEnv: "DOCS_REPO_TOKEN",
repo: "docs",
workflowLogic: (version: string) => {
// Check if it's a nightly version
if (version.includes('nightly')) {
return ['bump-nightly-version.yml', version];
}
const parts = version.split('.');
if (parts.length !== 3) {
throw new Error('Invalid version format');
}
// If patch version (last number) is 0, it's a major version
// Return only major.minor version
if (parts[2] === '0') {
return ['bump-version.yml', `${parts[0]}.${parts[1]}`];
}
// Otherwise it's a patch version, use full version
return ['bump-patch-version.yml', version];
}
}
};
async function triggerWorkflow(repoConfig: RepoConfig, workflowId: string, version: string) {
const client = obtainClient(repoConfig.tokenEnv);
try {
await client.rest.actions.createWorkflowDispatch({
owner: "GreptimeTeam",
repo: repoConfig.repo,
workflow_id: workflowId,
ref: "main",
inputs: {
version,
},
});
console.log(`Successfully triggered ${workflowId} workflow for ${repoConfig.repo} with version ${version}`);
} catch (error) {
core.setFailed(`Failed to trigger workflow for ${repoConfig.repo}: ${error.message}`);
throw error;
}
}
async function processRepo(repoName: string, version: string) {
const repoConfig = REPO_CONFIGS[repoName];
if (!repoConfig) {
throw new Error(`Unknown repository: ${repoName}`);
}
try {
const workflowResult = repoConfig.workflowLogic(version);
if (workflowResult === null) {
// Skip this repo (e.g., nightly version for website)
return;
}
const [workflowId, apiVersion] = workflowResult;
await triggerWorkflow(repoConfig, workflowId, apiVersion);
} catch (error) {
core.setFailed(`Error processing ${repoName} with version ${version}: ${error.message}`);
throw error;
}
}
async function main() {
const version = process.env.VERSION;
if (!version) {
core.setFailed("VERSION environment variable is required");
process.exit(1);
}
// Remove 'v' prefix if exists
const cleanVersion = version.startsWith('v') ? version.slice(1) : version;
// Get target repositories from environment variable
// Default to both if not specified
const targetRepos = process.env.TARGET_REPOS?.split(',').map(repo => repo.trim()) || ['website', 'docs'];
console.log(`Processing version ${cleanVersion} for repositories: ${targetRepos.join(', ')}`);
const errors: string[] = [];
// Process each repository
for (const repo of targetRepos) {
try {
await processRepo(repo, cleanVersion);
} catch (error) {
errors.push(`${repo}: ${error.message}`);
}
}
if (errors.length > 0) {
core.setFailed(`Failed to process some repositories: ${errors.join('; ')}`);
process.exit(1);
}
console.log('All repositories processed successfully');
}
// Execute main function
main().catch((error) => {
core.setFailed(`Unexpected error: ${error.message}`);
process.exit(1);
});

View File

@@ -55,25 +55,12 @@ async function main() {
await client.rest.issues.addLabels({
owner, repo, issue_number: number, labels: [labelDocsRequired],
})
// Get available assignees for the docs repo
const assigneesResponse = await docsClient.rest.issues.listAssignees({
owner: 'GreptimeTeam',
repo: 'docs',
})
const validAssignees = assigneesResponse.data.map(assignee => assignee.login)
core.info(`Available assignees: ${validAssignees.join(', ')}`)
// Check if the actor is a valid assignee, otherwise fallback to fengjiachun
const assignee = validAssignees.includes(actor) ? actor : 'fengjiachun'
core.info(`Assigning issue to: ${assignee}`)
await docsClient.rest.issues.create({
owner: 'GreptimeTeam',
repo: 'docs',
title: `Update docs for ${title}`,
body: `A document change request is generated from ${html_url}`,
assignee: assignee,
assignee: actor,
}).then((res) => {
core.info(`Created issue ${res.data}`)
})

View File

@@ -1,10 +1,10 @@
FROM centos:7 AS builder
FROM centos:7 as builder
ARG CARGO_PROFILE
ARG FEATURES
ARG OUTPUT_DIR
ENV LANG=en_US.utf8
ENV LANG en_US.utf8
WORKDIR /greptimedb
# Install dependencies
@@ -22,7 +22,7 @@ RUN unzip protoc-3.15.8-linux-x86_64.zip -d /usr/local/
# Install Rust
SHELL ["/bin/bash", "-c"]
RUN curl --proto '=https' --tlsv1.2 -sSf https://sh.rustup.rs | sh -s -- --no-modify-path --default-toolchain none -y
ENV PATH=/usr/local/bin:/root/.cargo/bin/:$PATH
ENV PATH /usr/local/bin:/root/.cargo/bin/:$PATH
# Build the project in release mode.
RUN --mount=target=.,rw \
@@ -33,7 +33,7 @@ RUN --mount=target=.,rw \
TARGET_DIR=/out/target
# Export the binary to the clean image.
FROM centos:7 AS base
FROM centos:7 as base
ARG OUTPUT_DIR
@@ -45,8 +45,6 @@ RUN yum install -y epel-release \
WORKDIR /greptime
COPY --from=builder /out/target/${OUTPUT_DIR}/greptime /greptime/bin/
ENV PATH=/greptime/bin/:$PATH
ENV MALLOC_CONF="prof:true,prof_active:false"
ENV PATH /greptime/bin/:$PATH
ENTRYPOINT ["greptime"]

View File

@@ -1,65 +0,0 @@
FROM ubuntu:22.04 AS builder
ARG CARGO_PROFILE
ARG FEATURES
ARG OUTPUT_DIR
ENV LANG=en_US.utf8
WORKDIR /greptimedb
RUN apt-get update && \
DEBIAN_FRONTEND=noninteractive apt-get install -y software-properties-common
# Install dependencies.
RUN --mount=type=cache,target=/var/cache/apt \
apt-get update && apt-get install -y \
libssl-dev \
protobuf-compiler \
curl \
git \
build-essential \
pkg-config
# Install Rust.
SHELL ["/bin/bash", "-c"]
RUN curl --proto '=https' --tlsv1.2 -sSf https://sh.rustup.rs | sh -s -- --no-modify-path --default-toolchain none -y
ENV PATH=/root/.cargo/bin/:$PATH
# Build the project in release mode.
RUN --mount=target=. \
--mount=type=cache,target=/root/.cargo/registry \
make build \
CARGO_PROFILE=${CARGO_PROFILE} \
FEATURES=${FEATURES} \
TARGET_DIR=/out/target
FROM ubuntu:22.04 AS libs
ARG TARGETARCH
# Copy required library dependencies based on architecture
RUN if [ "$TARGETARCH" = "amd64" ]; then \
cp /lib/x86_64-linux-gnu/libz.so.1.2.11 /lib/x86_64-linux-gnu/libz.so.1; \
elif [ "$TARGETARCH" = "arm64" ]; then \
cp /lib/aarch64-linux-gnu/libz.so.1.2.11 /lib/aarch64-linux-gnu/libz.so.1; \
else \
echo "Unsupported architecture: $TARGETARCH" && exit 1; \
fi
# Export the binary to the clean distroless image.
FROM gcr.io/distroless/cc-debian12:latest AS base
ARG OUTPUT_DIR
ARG TARGETARCH
# Copy required library dependencies
COPY --from=libs /lib /lib
COPY --from=busybox:stable /bin/busybox /bin/busybox
WORKDIR /greptime
COPY --from=builder /out/target/${OUTPUT_DIR}/greptime /greptime/bin/greptime
ENV PATH=/greptime/bin/:$PATH
ENV MALLOC_CONF="prof:true,prof_active:false"
ENTRYPOINT ["greptime"]

View File

@@ -1,10 +1,10 @@
FROM ubuntu:22.04 AS builder
FROM ubuntu:22.04 as builder
ARG CARGO_PROFILE
ARG FEATURES
ARG OUTPUT_DIR
ENV LANG=en_US.utf8
ENV LANG en_US.utf8
WORKDIR /greptimedb
RUN apt-get update && \
@@ -23,7 +23,7 @@ RUN --mount=type=cache,target=/var/cache/apt \
# Install Rust.
SHELL ["/bin/bash", "-c"]
RUN curl --proto '=https' --tlsv1.2 -sSf https://sh.rustup.rs | sh -s -- --no-modify-path --default-toolchain none -y
ENV PATH=/root/.cargo/bin/:$PATH
ENV PATH /root/.cargo/bin/:$PATH
# Build the project in release mode.
RUN --mount=target=. \
@@ -35,7 +35,7 @@ RUN --mount=target=. \
# Export the binary to the clean image.
# TODO(zyy17): Maybe should use the more secure container image.
FROM ubuntu:22.04 AS base
FROM ubuntu:22.04 as base
ARG OUTPUT_DIR
@@ -45,8 +45,6 @@ RUN apt-get update && DEBIAN_FRONTEND=noninteractive apt-get \
WORKDIR /greptime
COPY --from=builder /out/target/${OUTPUT_DIR}/greptime /greptime/bin/
ENV PATH=/greptime/bin/:$PATH
ENV MALLOC_CONF="prof:true,prof_active:false"
ENV PATH /greptime/bin/:$PATH
ENTRYPOINT ["greptime"]

View File

@@ -13,8 +13,6 @@ ARG TARGETARCH
ADD $TARGETARCH/greptime /greptime/bin/
ENV PATH=/greptime/bin/:$PATH
ENV MALLOC_CONF="prof:true,prof_active:false"
ENV PATH /greptime/bin/:$PATH
ENTRYPOINT ["greptime"]

View File

@@ -1,40 +0,0 @@
FROM ubuntu:22.04 AS libs
ARG TARGETARCH
# Copy required library dependencies based on architecture
# TARGETARCH values: amd64, arm64
# Ubuntu library paths: x86_64-linux-gnu, aarch64-linux-gnu
RUN if [ "$TARGETARCH" = "amd64" ]; then \
mkdir -p /output/x86_64-linux-gnu && \
cp /lib/x86_64-linux-gnu/libz.so.1.2.11 /output/x86_64-linux-gnu/libz.so.1; \
elif [ "$TARGETARCH" = "arm64" ]; then \
mkdir -p /output/aarch64-linux-gnu && \
cp /lib/aarch64-linux-gnu/libz.so.1.2.11 /output/aarch64-linux-gnu/libz.so.1; \
else \
echo "Unsupported architecture: $TARGETARCH" && exit 1; \
fi
FROM gcr.io/distroless/cc-debian12:latest
# The root path under which contains all the dependencies to build this Dockerfile.
ARG DOCKER_BUILD_ROOT=.
# The binary name of GreptimeDB executable.
# Defaults to "greptime", but sometimes in other projects it might be different.
ARG TARGET_BIN=greptime
ARG TARGETARCH
# Copy required library dependencies
COPY --from=libs /output /lib
COPY --from=busybox:stable /bin/busybox /bin/busybox
ADD $TARGETARCH/$TARGET_BIN /greptime/bin/
ENV PATH=/greptime/bin/:$PATH
ENV TARGET_BIN=$TARGET_BIN
ENV MALLOC_CONF="prof:true,prof_active:false"
ENTRYPOINT ["greptime"]

View File

@@ -14,10 +14,8 @@ ARG TARGETARCH
ADD $TARGETARCH/$TARGET_BIN /greptime/bin/
ENV PATH=/greptime/bin/:$PATH
ENV PATH /greptime/bin/:$PATH
ENV TARGET_BIN=$TARGET_BIN
ENV MALLOC_CONF="prof:true,prof_active:false"
ENTRYPOINT ["sh", "-c", "exec $TARGET_BIN \"$@\"", "--"]

View File

@@ -13,8 +13,7 @@ RUN apt-get update && apt-get install -y \
git \
unzip \
build-essential \
pkg-config \
openssh-client
pkg-config
# Install protoc
ARG PROTOBUF_VERSION=29.3

View File

@@ -19,7 +19,7 @@ ARG PROTOBUF_VERSION=29.3
RUN curl -OL https://github.com/protocolbuffers/protobuf/releases/download/v${PROTOBUF_VERSION}/protoc-${PROTOBUF_VERSION}-linux-x86_64.zip && \
unzip protoc-${PROTOBUF_VERSION}-linux-x86_64.zip -d protoc3;
RUN mv protoc3/bin/* /usr/local/bin/
RUN mv protoc3/include/* /usr/local/include/

View File

@@ -25,7 +25,7 @@ services:
- --initial-cluster-state=new
- *etcd_initial_cluster_token
volumes:
- ./greptimedb-cluster-docker-compose/etcd0:/var/lib/etcd
- /tmp/greptimedb-cluster-docker-compose/etcd0:/var/lib/etcd
healthcheck:
test: [ "CMD", "etcdctl", "--endpoints=http://etcd0:2379", "endpoint", "health" ]
interval: 5s
@@ -34,48 +34,6 @@ services:
networks:
- greptimedb
etcd-tls:
<<: *etcd_common_settings
container_name: etcd-tls
ports:
- 2378:2378
- 2381:2381
command:
- --name=etcd-tls
- --data-dir=/var/lib/etcd
- --initial-advertise-peer-urls=https://etcd-tls:2381
- --listen-peer-urls=https://0.0.0.0:2381
- --listen-client-urls=https://0.0.0.0:2378
- --advertise-client-urls=https://etcd-tls:2378
- --heartbeat-interval=250
- --election-timeout=1250
- --initial-cluster=etcd-tls=https://etcd-tls:2381
- --initial-cluster-state=new
- --initial-cluster-token=etcd-tls-cluster
- --cert-file=/certs/server.crt
- --key-file=/certs/server-key.pem
- --peer-cert-file=/certs/server.crt
- --peer-key-file=/certs/server-key.pem
- --trusted-ca-file=/certs/ca.crt
- --peer-trusted-ca-file=/certs/ca.crt
- --client-cert-auth
- --peer-client-cert-auth
volumes:
- ./greptimedb-cluster-docker-compose/etcd-tls:/var/lib/etcd
- ./greptimedb-cluster-docker-compose/certs:/certs:ro
environment:
- ETCDCTL_API=3
- ETCDCTL_CACERT=/certs/ca.crt
- ETCDCTL_CERT=/certs/server.crt
- ETCDCTL_KEY=/certs/server-key.pem
healthcheck:
test: [ "CMD", "etcdctl", "--endpoints=https://etcd-tls:2378", "--cacert=/certs/ca.crt", "--cert=/certs/server.crt", "--key=/certs/server-key.pem", "endpoint", "health" ]
interval: 10s
timeout: 5s
retries: 5
networks:
- greptimedb
metasrv:
image: *greptimedb_image
container_name: metasrv
@@ -110,13 +68,12 @@ services:
- datanode
- start
- --node-id=0
- --data-home=/greptimedb_data
- --rpc-bind-addr=0.0.0.0:3001
- --rpc-server-addr=datanode0:3001
- --metasrv-addrs=metasrv:3002
- --http-addr=0.0.0.0:5000
volumes:
- ./greptimedb-cluster-docker-compose/datanode0:/greptimedb_data
- /tmp/greptimedb-cluster-docker-compose/datanode0:/tmp/greptimedb
healthcheck:
test: [ "CMD", "curl", "-fv", "http://datanode0:5000/health" ]
interval: 5s

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@@ -48,4 +48,4 @@ Please refer to [SQL query](./query.sql) for GreptimeDB and Clickhouse, and [que
## Addition
- You can tune GreptimeDB's configuration to get better performance.
- You can setup GreptimeDB to use S3 as storage, see [here](https://docs.greptime.com/user-guide/deployments-administration/configuration#storage-options).
- You can setup GreptimeDB to use S3 as storage, see [here](https://docs.greptime.com/user-guide/deployments/configuration#storage-options).

View File

@@ -11,21 +11,6 @@ And database will reply with something like:
Log Level changed from Some("info") to "trace,flow=debug"%
```
The data is a string in the format of `global_level,module1=level1,module2=level2,...` that follows the same rule of `RUST_LOG`.
The data is a string in the format of `global_level,module1=level1,module2=level2,...` that follow the same rule of `RUST_LOG`.
The module is the module name of the log, and the level is the log level. The log level can be one of the following: `trace`, `debug`, `info`, `warn`, `error`, `off`(case insensitive).
# Enable/Disable Trace on the Fly
## HTTP API
example:
```bash
curl --data "true" 127.0.0.1:4000/debug/enable_trace
```
And database will reply with something like:
```
trace enabled%
```
Possible values are "true" or "false".
The module is the module name of the log, and the level is the log level. The log level can be one of the following: `trace`, `debug`, `info`, `warn`, `error`, `off`(case insensitive).

View File

@@ -14,7 +14,7 @@ impl SqlQueryHandler for Instance {
```
Normally, when a SQL query arrives at GreptimeDB, the `do_query` method will be called. After some parsing work, the SQL
will be fed into `StatementExecutor`:
will be feed into `StatementExecutor`:
```rust
// in Frontend Instance:
@@ -27,7 +27,7 @@ an example.
Now, what if the statements should be handled differently for GreptimeDB Standalone and Cluster? You can see there's
a `SqlStatementExecutor` field in `StatementExecutor`. Each GreptimeDB Standalone and Cluster has its own implementation
of `SqlStatementExecutor`. If you are going to implement the statements differently in the two modes (
of `SqlStatementExecutor`. If you are going to implement the statements differently in the two mode (
like `CREATE TABLE`), you have to implement them in their own `SqlStatementExecutor`s.
Summarize as the diagram below:

View File

@@ -1,6 +1,6 @@
# Profile memory usage of GreptimeDB
This crate provides an easy approach to dump memory profiling info. A set of ready to use scripts is provided in [docs/how-to/memory-profile-scripts](./memory-profile-scripts/scripts).
This crate provides an easy approach to dump memory profiling info.
## Prerequisites
### jemalloc
@@ -30,8 +30,6 @@ curl https://raw.githubusercontent.com/brendangregg/FlameGraph/master/flamegraph
## Profiling
### Enable memory profiling for greptimedb binary
Start GreptimeDB instance with environment variables:
```bash
@@ -42,56 +40,10 @@ MALLOC_CONF=prof:true ./target/debug/greptime standalone start
_RJEM_MALLOC_CONF=prof:true ./target/debug/greptime standalone start
```
### Memory profiling for greptimedb docker image
We have memory profiling enabled and activated by default in our official docker
image.
This behavior is controlled by configuration `enable_heap_profiling`:
```toml
[memory]
# Whether to enable heap profiling activation during startup.
# Default is true.
enable_heap_profiling = true
```
To disable memory profiling, set `enable_heap_profiling` to `false`.
### Memory profiling control
You can control heap profiling activation using the new HTTP APIs:
```bash
# Check current profiling status
curl -X GET localhost:4000/debug/prof/mem/status
# Activate heap profiling (if not already active)
curl -X POST localhost:4000/debug/prof/mem/activate
# Deactivate heap profiling
curl -X POST localhost:4000/debug/prof/mem/deactivate
# Activate gdump feature that dumps memory profiling data every time virtual memory usage exceeds previous maximum value.
curl -X POST localhost:4000/debug/prof/mem/gdump -d 'activate=true'
# Deactivate gdump.
curl -X POST localhost:4000/debug/prof/mem/gdump -d 'activate=false'
# Retrieve current gdump status.
curl -X GET localhost:4000/debug/prof/mem/gdump
```
### Dump memory profiling data
Dump memory profiling data through HTTP API:
```bash
curl -X POST localhost:4000/debug/prof/mem > greptime.hprof
# or output flamegraph directly
curl -X POST "localhost:4000/debug/prof/mem?output=flamegraph" > greptime.svg
# or output pprof format
curl -X POST "localhost:4000/debug/prof/mem?output=proto" > greptime.pprof
```
You can periodically dump profiling data and compare them to find the delta memory usage.

View File

@@ -0,0 +1,72 @@
Currently, our query engine is based on DataFusion, so all aggregate function is executed by DataFusion, through its UDAF interface. You can find DataFusion's UDAF example [here](https://github.com/apache/arrow-datafusion/blob/arrow2/datafusion-examples/examples/simple_udaf.rs). Basically, we provide the same way as DataFusion to write aggregate functions: both are centered in a struct called "Accumulator" to accumulates states along the way in aggregation.
However, DataFusion's UDAF implementation has a huge restriction, that it requires user to provide a concrete "Accumulator". Take `Median` aggregate function for example, to aggregate a `u32` datatype column, you have to write a `MedianU32`, and use `SELECT MEDIANU32(x)` in SQL. `MedianU32` cannot be used to aggregate a `i32` datatype column. Or, there's another way: you can use a special type that can hold all kinds of data (like our `Value` enum or Arrow's `ScalarValue`), and `match` all the way up to do aggregate calculations. It might work, though rather tedious. (But I think it's DataFusion's prefer way to write UDAF.)
So is there a way we can make an aggregate function that automatically match the input data's type? For example, a `Median` aggregator that can work on both `u32` column and `i32`? The answer is yes until we found a way to bypassing DataFusion's restriction, a restriction that DataFusion simply don't pass the input data's type when creating an Accumulator.
> There's an example in `my_sum_udaf_example.rs`, take that as quick start.
# 1. Impl `AggregateFunctionCreator` trait for your accumulator creator.
You must first define a struct that will be used to create your accumulator. For example,
```Rust
#[as_aggr_func_creator]
#[derive(Debug, AggrFuncTypeStore)]
struct MySumAccumulatorCreator {}
```
Attribute macro `#[as_aggr_func_creator]` and derive macro `#[derive(Debug, AggrFuncTypeStore)]` must both annotated on the struct. They work together to provide a storage of aggregate function's input data types, which are needed for creating generic accumulator later.
> Note that the `as_aggr_func_creator` macro will add fields to the struct, so the struct cannot be defined as an empty struct without field like `struct Foo;`, neither as a new type like `struct Foo(bar)`.
Then impl `AggregateFunctionCreator` trait on it. The definition of the trait is:
```Rust
pub trait AggregateFunctionCreator: Send + Sync + Debug {
fn creator(&self) -> AccumulatorCreatorFunction;
fn output_type(&self) -> ConcreteDataType;
fn state_types(&self) -> Vec<ConcreteDataType>;
}
```
You can use input data's type in methods that return output type and state types (just invoke `input_types()`).
The output type is aggregate function's output data's type. For example, `SUM` aggregate function's output type is `u64` for a `u32` datatype column. The state types are accumulator's internal states' types. Take `AVG` aggregate function on a `i32` column as example, it's state types are `i64` (for sum) and `u64` (for count).
The `creator` function is where you define how an accumulator (that will be used in DataFusion) is created. You define "how" to create the accumulator (instead of "what" to create), using the input data's type as arguments. With input datatype known, you can create accumulator generically.
# 2. Impl `Accumulator` trait for you accumulator.
The accumulator is where you store the aggregate calculation states and evaluate a result. You must impl `Accumulator` trait for it. The trait's definition is:
```Rust
pub trait Accumulator: Send + Sync + Debug {
fn state(&self) -> Result<Vec<Value>>;
fn update_batch(&mut self, values: &[VectorRef]) -> Result<()>;
fn merge_batch(&mut self, states: &[VectorRef]) -> Result<()>;
fn evaluate(&self) -> Result<Value>;
}
```
The DataFusion basically execute aggregate like this:
1. Partitioning all input data for aggregate. Create an accumulator for each part.
2. Call `update_batch` on each accumulator with partitioned data, to let you update your aggregate calculation.
3. Call `state` to get each accumulator's internal state, the medial calculation result.
4. Call `merge_batch` to merge all accumulator's internal state to one.
5. Execute `evaluate` on the chosen one to get the final calculation result.
Once you know the meaning of each method, you can easily write your accumulator. You can refer to `Median` accumulator or `SUM` accumulator defined in file `my_sum_udaf_example.rs` for more details.
# 3. Register your aggregate function to our query engine.
You can call `register_aggregate_function` method in query engine to register your aggregate function. To do that, you have to new an instance of struct `AggregateFunctionMeta`. The struct has three fields, first is the name of your aggregate function's name. The function name is case-sensitive due to DataFusion's restriction. We strongly recommend using lowercase for your name. If you have to use uppercase name, wrap your aggregate function with quotation marks. For example, if you define an aggregate function named "my_aggr", you can use "`SELECT MY_AGGR(x)`"; if you define "my_AGGR", you have to use "`SELECT "my_AGGR"(x)`".
The second field is arg_counts ,the count of the arguments. Like accumulator `percentile`, calculating the p_number of the column. We need to input the value of column and the value of p to cacalate, and so the count of the arguments is two.
The third field is a function about how to create your accumulator creator that you defined in step 1 above. Create creator, that's a bit intertwined, but it is how we make DataFusion use a newly created aggregate function each time it executes a SQL, preventing the stored input types from affecting each other. The key detail can be starting looking at our `DfContextProviderAdapter` struct's `get_aggregate_meta` method.
# (Optional) 4. Make your aggregate function automatically registered.
If you've written a great aggregate function that want to let everyone use it, you can make it automatically registered to our query engine at start time. It's quick simple, just refer to the `AggregateFunctions::register` function in `common/function/src/scalars/aggregate/mod.rs`.

View File

@@ -3,7 +3,7 @@
This document introduces how to write fuzz tests in GreptimeDB.
## What is a fuzz test
Fuzz test is tool that leverages deterministic random generation to assist in finding bugs. The goal of fuzz tests is to identify inputs generated by the fuzzer that cause system panics, crashes, or unexpected behaviors to occur. And we are using the [cargo-fuzz](https://github.com/rust-fuzz/cargo-fuzz) to run our fuzz test targets.
Fuzz test is tool that leverage deterministic random generation to assist in finding bugs. The goal of fuzz tests is to identify inputs generated by the fuzzer that cause system panics, crashes, or unexpected behaviors to occur. And we are using the [cargo-fuzz](https://github.com/rust-fuzz/cargo-fuzz) to run our fuzz test targets.
## Why we need them
- Find bugs by leveraging random generation
@@ -13,7 +13,7 @@ Fuzz test is tool that leverages deterministic random generation to assist in fi
All fuzz test-related resources are located in the `/tests-fuzz` directory.
There are two types of resources: (1) fundamental components and (2) test targets.
### Fundamental components
### Fundamental components
They are located in the `/tests-fuzz/src` directory. The fundamental components define how to generate SQLs (including dialects for different protocols) and validate execution results (e.g., column attribute validation), etc.
### Test targets
@@ -21,25 +21,25 @@ They are located in the `/tests-fuzz/targets` directory, with each file represen
Figure 1 illustrates the fundamental components of the fuzz test provide the ability to generate random SQLs. It utilizes a Random Number Generator (Rng) to generate the Intermediate Representation (IR), then employs a DialectTranslator to produce specified dialects for different protocols. Finally, the fuzz tests send the generated SQL via the specified protocol and verify that the execution results meet expectations.
```
Rng
|
|
v
ExprGenerator
|
|
v
Intermediate representation (IR)
|
|
+----------------------+----------------------+
| | |
v v v
Rng
|
|
v
ExprGenerator
|
|
v
Intermediate representation (IR)
|
|
+----------------------+----------------------+
| | |
v v v
MySQLTranslator PostgreSQLTranslator OtherDialectTranslator
| | |
| | |
v v v
SQL(MySQL Dialect) ..... .....
| | |
| | |
v v v
SQL(MySQL Dialect) ..... .....
|
|
v
@@ -133,4 +133,4 @@ fuzz_target!(|input: FuzzInput| {
cargo fuzz run <fuzz-target> --fuzz-dir tests-fuzz
```
For more details, please refer to this [document](/tests-fuzz/README.md).
For more details, please refer to this [document](/tests-fuzz/README.md).

View File

@@ -1,52 +0,0 @@
# Memory Analysis Process
This section will guide you through the process of analyzing memory usage for greptimedb.
1. Get the `jeprof` tool script, see the next section("Getting the `jeprof` tool") for details.
2. After starting `greptimedb`(with env var `MALLOC_CONF=prof:true`), execute the `dump.sh` script with the PID of the `greptimedb` process as an argument. This continuously monitors memory usage and captures profiles when exceeding thresholds (e.g. +20MB within 10 minutes). Outputs `greptime-{timestamp}.gprof` files.
3. With 2-3 gprof files, run `gen_flamegraph.sh` in the same environment to generate flame graphs showing memory allocation call stacks.
4. **NOTE:** The `gen_flamegraph.sh` script requires `jeprof` and optionally `flamegraph.pl` to be in the current directory. If needed to gen flamegraph now, run the `get_flamegraph_tool.sh` script, which downloads the flame graph generation tool `flamegraph.pl` to the current directory.
The usage of `gen_flamegraph.sh` is:
`Usage: ./gen_flamegraph.sh <binary_path> <gprof_directory>`
where `<binary_path>` is the path to the greptimedb binary, `<gprof_directory>` is the directory containing the gprof files(the directory `dump.sh` is dumping profiles to).
Example call: `./gen_flamegraph.sh ./greptime .`
Generating the flame graph might take a few minutes. The generated flame graphs are located in the `<gprof_directory>/flamegraphs` directory. Or if no `flamegraph.pl` is found, it will only contain `.collapse` files which is also fine.
5. You can send the generated flame graphs(the entire folder of `<gprof_directory>/flamegraphs`) to developers for further analysis.
## Getting the `jeprof` tool
there are three ways to get `jeprof`, list in here from simple to complex, using any one of those methods is ok, as long as it's the same environment as the `greptimedb` will be running on:
1. If you are compiling greptimedb from source, then `jeprof` is already produced during compilation. After running `cargo build`, execute `find_compiled_jeprof.sh`. This will copy `jeprof` to the current directory.
2. Or, if you have the Rust toolchain installed locally, simply follow these commands:
```bash
cargo new get_jeprof
cd get_jeprof
```
Then add this line to `Cargo.toml`:
```toml
[dependencies]
tikv-jemalloc-ctl = { version = "0.6", features = ["use_std", "stats"] }
```
then run:
```bash
cargo build
```
after that the `jeprof` tool is produced. Now run `find_compiled_jeprof.sh` in current directory, it will copy the `jeprof` tool to the current directory.
3. compile jemalloc from source
you can first clone this repo, and checkout to this commit:
```bash
git clone https://github.com/tikv/jemalloc.git
cd jemalloc
git checkout e13ca993e8ccb9ba9847cc330696e02839f328f7
```
then run:
```bash
./configure
make
```
and `jeprof` is in `.bin/` directory. Copy it to the current directory.

View File

@@ -1,78 +0,0 @@
#!/bin/bash
# Monitors greptime process memory usage every 10 minutes
# Triggers memory profile capture via `curl -X POST localhost:4000/debug/prof/mem > greptime-{timestamp}.gprof`
# when memory increases by more than 20MB since last check
# Generated profiles can be analyzed using flame graphs as described in `how-to-profile-memory.md`
# (jeprof is compiled with the database - see documentation)
# Alternative: Share binaries + profiles for analysis (Docker images preferred)
# Threshold in Kilobytes (20 MB)
threshold_kb=$((20 * 1024))
sleep_interval=$((10 * 60))
# Variable to store the last measured memory usage in KB
last_mem_kb=0
echo "Starting memory monitoring for 'greptime' process..."
while true; do
# Check if PID is provided as an argument
if [ -z "$1" ]; then
echo "$(date): PID must be provided as a command-line argument."
exit 1
fi
pid="$1"
# Validate that the PID is a number
if ! [[ "$pid" =~ ^[0-9]+$ ]]; then
echo "$(date): Invalid PID: '$pid'. PID must be a number."
exit 1
fi
# Get the current Resident Set Size (RSS) in Kilobytes
current_mem_kb=$(ps -o rss= -p "$pid")
# Check if ps command was successful and returned a number
if ! [[ "$current_mem_kb" =~ ^[0-9]+$ ]]; then
echo "$(date): Failed to get memory usage for PID $pid. Skipping check."
# Keep last_mem_kb to avoid false positives if the process briefly becomes unreadable.
continue
fi
echo "$(date): Current memory usage for PID $pid: ${current_mem_kb} KB"
# Compare with the last measurement
# if it's the first run, also do a baseline dump just to make sure we can dump
diff_kb=$((current_mem_kb - last_mem_kb))
echo "$(date): Memory usage change since last check: ${diff_kb} KB"
if [ "$diff_kb" -gt "$threshold_kb" ]; then
echo "$(date): Memory increase (${diff_kb} KB) exceeded threshold (${threshold_kb} KB). Dumping profile..."
timestamp=$(date +%Y%m%d%H%M%S)
profile_file="greptime-${timestamp}.gprof"
# Execute curl and capture output to file
if curl -sf -X POST localhost:4000/debug/prof/mem > "$profile_file"; then
echo "$(date): Memory profile saved to $profile_file"
else
echo "$(date): Failed to dump memory profile (curl exit code: $?)."
# Remove the potentially empty/failed profile file
rm -f "$profile_file"
fi
else
echo "$(date): Memory increase (${diff_kb} KB) is within the threshold (${threshold_kb} KB)."
fi
# Update the last memory usage
last_mem_kb=$current_mem_kb
# Wait for 5 minutes
echo "$(date): Sleeping for $sleep_interval seconds..."
sleep $sleep_interval
done
echo "Memory monitoring script stopped." # This line might not be reached in normal operation

View File

@@ -1,15 +0,0 @@
#!/bin/bash
# Locates compiled jeprof binary (memory analysis tool) after cargo build
# Copies it to current directory from target/ build directories
JPROF_PATH=$(find . -name 'jeprof' -print -quit)
if [ -n "$JPROF_PATH" ]; then
echo "Found jeprof at $JPROF_PATH"
cp "$JPROF_PATH" .
chmod +x jeprof
echo "Copied jeprof to current directory and made it executable."
else
echo "jeprof not found"
exit 1
fi

View File

@@ -1,89 +0,0 @@
#!/bin/bash
# Generate flame graphs from a series of `.gprof` files
# First argument: Path to the binary executable
# Second argument: Path to directory containing gprof files
# Requires `jeprof` and `flamegraph.pl` in current directory
# What this script essentially does is:
# ./jeprof <binary> <gprof> --collapse | ./flamegraph.pl > <output>
# For differential analysis between consecutive profiles:
# ./jeprof <binary> --base <gprof1> <gprof2> --collapse | ./flamegraph.pl > <output_diff>
set -e # Exit immediately if a command exits with a non-zero status.
# Check for required tools
if [ ! -f "./jeprof" ]; then
echo "Error: jeprof not found in the current directory."
exit 1
fi
if [ ! -f "./flamegraph.pl" ]; then
echo "Error: flamegraph.pl not found in the current directory."
exit 1
fi
# Check arguments
if [ "$#" -ne 2 ]; then
echo "Usage: $0 <binary_path> <gprof_directory>"
exit 1
fi
BINARY_PATH=$1
GPROF_DIR=$2
OUTPUT_DIR="${GPROF_DIR}/flamegraphs" # Store outputs in a subdirectory
if [ ! -f "$BINARY_PATH" ]; then
echo "Error: Binary file not found at $BINARY_PATH"
exit 1
fi
if [ ! -d "$GPROF_DIR" ]; then
echo "Error: gprof directory not found at $GPROF_DIR"
exit 1
fi
mkdir -p "$OUTPUT_DIR"
echo "Generating flamegraphs in $OUTPUT_DIR"
# Find and sort gprof files
# Use find + sort -V for natural sort of version numbers if present in filenames
# Use null-terminated strings for safety with find/xargs/sort
mapfile -d $'\0' gprof_files < <(find "$GPROF_DIR" -maxdepth 1 -name '*.gprof' -print0 | sort -zV)
if [ ${#gprof_files[@]} -eq 0 ]; then
echo "No .gprof files found in $GPROF_DIR"
exit 0
fi
prev_gprof=""
# Generate flamegraphs
for gprof_file in "${gprof_files[@]}"; do
# Skip empty entries if any
if [ -z "$gprof_file" ]; then
continue
fi
filename=$(basename "$gprof_file" .gprof)
output_collapse="${OUTPUT_DIR}/${filename}.collapse"
output_svg="${OUTPUT_DIR}/${filename}.svg"
echo "Generating collapse file for $gprof_file -> $output_collapse"
./jeprof "$BINARY_PATH" "$gprof_file" --collapse > "$output_collapse"
echo "Generating flamegraph for $gprof_file -> $output_svg"
./flamegraph.pl "$output_collapse" > "$output_svg" || true
# Generate diff flamegraph if not the first file
if [ -n "$prev_gprof" ]; then
prev_filename=$(basename "$prev_gprof" .gprof)
diff_output_collapse="${OUTPUT_DIR}/${prev_filename}_vs_${filename}_diff.collapse"
diff_output_svg="${OUTPUT_DIR}/${prev_filename}_vs_${filename}_diff.svg"
echo "Generating diff collapse file for $prev_gprof vs $gprof_file -> $diff_output_collapse"
./jeprof "$BINARY_PATH" --base "$prev_gprof" "$gprof_file" --collapse > "$diff_output_collapse"
echo "Generating diff flamegraph for $prev_gprof vs $gprof_file -> $diff_output_svg"
./flamegraph.pl "$diff_output_collapse" > "$diff_output_svg" || true
fi
prev_gprof="$gprof_file"
done
echo "Flamegraph generation complete."

View File

@@ -1,44 +0,0 @@
#!/bin/bash
# Generate flame graphs from .collapse files
# Argument: Path to directory containing collapse files
# Requires `flamegraph.pl` in current directory
# Check if flamegraph.pl exists
if [ ! -f "./flamegraph.pl" ]; then
echo "Error: flamegraph.pl not found in the current directory."
exit 1
fi
# Check if directory argument is provided
if [ -z "$1" ]; then
echo "Usage: $0 <collapse_directory>"
exit 1
fi
COLLAPSE_DIR=$1
# Check if the provided argument is a directory
if [ ! -d "$COLLAPSE_DIR" ]; then
echo "Error: '$COLLAPSE_DIR' is not a valid directory."
exit 1
fi
echo "Generating flame graphs from collapse files in '$COLLAPSE_DIR'..."
# Find and process each .collapse file
find "$COLLAPSE_DIR" -maxdepth 1 -name "*.collapse" -print0 | while IFS= read -r -d $'\0' collapse_file; do
if [ -f "$collapse_file" ]; then
# Construct the output SVG filename
svg_file="${collapse_file%.collapse}.svg"
echo "Generating $svg_file from $collapse_file..."
./flamegraph.pl "$collapse_file" > "$svg_file"
if [ $? -ne 0 ]; then
echo "Error generating flame graph for $collapse_file"
else
echo "Successfully generated $svg_file"
fi
fi
done
echo "Flame graph generation complete."

View File

@@ -1,6 +0,0 @@
#!/bin/bash
# Download flamegraph.pl to current directory - this is the flame graph generation tool script
curl https://raw.githubusercontent.com/brendangregg/FlameGraph/master/flamegraph.pl > ./flamegraph.pl
chmod +x ./flamegraph.pl

View File

@@ -76,7 +76,7 @@ pub trait CompactionStrategy {
```
The most suitable compaction strategy for time-series scenario would be
a hybrid strategy that combines time window compaction with size-tired compaction, just like [Cassandra](https://cassandra.apache.org/doc/latest/cassandra/managing/operating/compaction/twcs.html) and [ScyllaDB](https://docs.scylladb.com/stable/architecture/compaction/compaction-strategies.html#time-window-compaction-strategy-twcs) does.
a hybrid strategy that combines time window compaction with size-tired compaction, just like [Cassandra](https://cassandra.apache.org/doc/latest/cassandra/operating/compaction/twcs.html) and [ScyllaDB](https://docs.scylladb.com/stable/architecture/compaction/compaction-strategies.html#time-window-compaction-strategy-twcs) does.
We can first group SSTs in level n into buckets according to some predefined time window. Within that window,
SSTs are compacted in a size-tired manner (find SSTs with similar size and compact them to level n+1).

View File

@@ -28,7 +28,7 @@ In order to do those things while maintaining a low memory footprint, you need t
- Greptime Flow's is built on top of [Hydroflow](https://github.com/hydro-project/hydroflow).
- We have three choices for the Dataflow/Streaming process framework for our simple continuous aggregation feature:
1. Based on the timely/differential dataflow crate that [materialize](https://github.com/MaterializeInc/materialize) based on. Later, it's proved too obscure for a simple usage, and is hard to customize memory usage control.
2. Based on a simple dataflow framework that we write from ground up, like what [arroyo](https://www.arroyo.dev/) or [risingwave](https://www.risingwave.dev/) did, for example the core streaming logic of [arroyo](https://github.com/ArroyoSystems/arroyo/blob/master/crates/arroyo-datastream/src/lib.rs) only takes up to 2000 line of codes. However, it means maintaining another layer of dataflow framework, which might seem easy in the beginning, but I fear it might be too burdensome to maintain once we need more features.
2. Based on a simple dataflow framework that we write from ground up, like what [arroyo](https://www.arroyo.dev/) or [risingwave](https://www.risingwave.dev/) did, for example the core streaming logic of [arroyo](https://github.com/ArroyoSystems/arroyo/blob/master/arroyo-datastream/src/lib.rs) only takes up to 2000 line of codes. However, it means maintaining another layer of dataflow framework, which might seem easy in the beginning, but I fear it might be too burdensome to maintain once we need more features.
3. Based on a simple and lower level dataflow framework that someone else write, like [hydroflow](https://github.com/hydro-project/hydroflow), this approach combines the best of both worlds. Firstly, it boasts ease of comprehension and customization. Secondly, the dataflow framework offers precisely the necessary features for crafting uncomplicated single-node dataflow programs while delivering decent performance.
Hence, we choose the third option, and use a simple logical plan that's anagonistic to the underlying dataflow framework, as it only describe how the dataflow graph should be doing, not how it do that. And we built operator in hydroflow to execute the plan. And the result hydroflow graph is wrapped in a engine that only support data in/out and tick event to flush and compute the result. This provide a thin middle layer that's easy to maintain and allow switching to other dataflow framework if necessary.

View File

@@ -1,77 +0,0 @@
---
Feature Name: Remote WAL Purge
Tracking Issue: https://github.com/GreptimeTeam/greptimedb/issues/5474
Date: 2025-02-06
Author: "Yuhan Wang <profsyb@gmail.com>"
---
# Summary
This RFC proposes a method for purging remote WAL in the database.
# Motivation
Currently only local wal entries are purged when flushing, while remote wal does nothing.
# Details
```mermaid
sequenceDiagram
Region0->>Kafka: Last entry id of the topic in use
Region0->>WALPruner: Heartbeat with last entry id
WALPruner->>+WALPruner: Time Loop
WALPruner->>+ProcedureManager: Submit purge procedure
ProcedureManager->>Region0: Flush request
ProcedureManager->>Kafka: Prune WAL entries
Region0->>Region0: Flush
```
## Steps
### Before purge
Before purging remote WAL, metasrv needs to know:
1. `last_entry_id` of each region.
2. `kafka_topic_last_entry_id` which is the last entry id of the topic in use. Can be lazily updated and needed when region has empty memtable.
3. Kafka topics that each region uses.
The states are maintained through:
1. Heartbeat: Datanode sends `last_entry_id` to metasrv in heartbeat. As for regions with empty memtable, `last_entry_id` should equals to `kafka_topic_last_entry_id`.
2. Metasrv maintains a topic-region map to know which region uses which topic.
`kafka_topic_last_entry_id` will be maintained by the region itself. Region will update the value after `k` heartbeats if the memtable is empty.
### Purge procedure
We can better handle locks utilizing current procedure. It's quite similar to the region migration procedure.
After a period of time, metasrv will submit a purge procedure to ProcedureManager. The purge will apply to all topics.
The procedure is divided into following stages:
1. Preparation:
- Retrieve `last_entry_id` of each region kvbackend.
- Choose regions that have a relatively small `last_entry_id` as candidate regions, which means we need to send a flush request to these regions.
2. Communication:
- Send flush requests to candidate regions.
3. Purge:
- Choose proper entry id to delete for each topic. The entry should be the smallest `last_entry_id - 1` among all regions.
- Delete legacy entries in Kafka.
- Store the `last_purged_entry_id` in kvbackend. It should be locked to prevent other regions from replaying the purged entries.
### After purge
After purge, there may be some regions that have `last_entry_id` smaller than the entry we just deleted. It's legal since we only delete the entries that are not needed anymore.
When restarting a region, it should query the `last_purged_entry_id` from metasrv and replay from `min(last_entry_id, last_purged_entry_id)`.
### Error handling
No persisted states are needed since all states are maintained in kvbackend.
Retry when failed to retrieving metadata from kvbackend.
# Alternatives
Purge time can depend on the size of the WAL entries instead of a fixed period of time, which may be more efficient.

View File

@@ -1,154 +0,0 @@
---
Feature Name: Repartition
Tracking Issue: https://github.com/GreptimeTeam/greptimedb/issues/6558
Date: 2025-06-20
Author: "Ruihang Xia <waynestxia@gmail.com>"
---
# Summary
This RFC proposes a method for repartitioning a table, to adjust the partition rule and data distribution.
# Motivation
With time passing, the data distribution and skew pattern of a table might change. We need a way to repartition the table to suit the new pattern.
# Details
Here is a rough workflow diagram of the entire repartition process, each step is described in detail below.
```mermaid
sequenceDiagram
participant Frontend
participant Metasrv
participant Datanodes
participant Region0 as Region 0
Frontend->>Frontend: Process request, validation etc.
Frontend->>Metasrv: Submit procedure
Metasrv->>Metasrv: Compute diff and generate migration plan
Metasrv->>Metasrv: Allocate necessary region resources (with Paas)
Metasrv->>Datanodes: Stop compaction and snapshot
rect rgb(255, 225, 225)
note over Frontend, Region0: No Ingestion Period
Metasrv->>Frontend: Stop processing write requests
Metasrv->>Metasrv: Update metadata
Metasrv->>Frontend: Start processing read requests
end
Metasrv->>Datanodes: Update region rule, stage version changes from now on
Region0->>Region0: Compute new manifests for all regions
Region0->>Datanodes: Submit manifest changes
Metasrv->>Datanodes: Recover compaction and snapshot, make staged changes visible
note over Frontend, Datanodes: Reload Cache
Metasrv->>Metasrv: Release resources (with Paas)
Metasrv->>Metasrv: Schedule optional compaction (to remote compactor)
```
## Preprocessing
This phase is for static analysis of the new partition rule. The server can know whether the repartitioning is possible, how to do the repartitioning, and how much resources are needed.
In theory, the input and output partition rules for repartitioning can be completely unrelated. But in practice, to avoid a very large change set, we'll only allow two simple kinds of change. One splits one region into two regions (region split) and another merges two regions into one (region merge).
After validating the new partition rule using the same validation logic as table creation, we compute the difference between the old and new partition rules. The resulting diff may contain several independent groups of changes. During subsequent processing, each group of changes can be handled independently and can succeed or fail without affecting other groups or creating non-idempotently retryable scenarios.
Next, we generate a repartition plan for each group of changes. Each plan contains this information for all regions involved in that particular plan. And one target region will only be referenced by a single plan.
With those plans, we can determine the resource requirements for the repartition operation, where resources here primarily refer to Regions. Metasrv will coordinate with PaaS layer to pre-allocate the necessary regions at this stage. These new regions start completely empty, and their metadata and manifests will be populated during subsequent modification steps.
## Data Processing
This phase is primarily for region's change, including region's metadata (route table and the corresponding rule) and manifest.
Once we start processing one plan through a procedure, we'll first stop the region's compaction and snapshot. This is to avoid any states being removed due to compaction (which may removes old SST files) and snapshot (which may removes old manifest files).
Metasrv will trying to update the metadata of partition, or the region route table (related to `PartitionRuleManager`). This step is in the "no ingestion" scope, so no new data will be ingested. Since this won't take much time, the affection to the cluster is minimized. Metasrv will also update the region rule to corresponding regions on Datanodes.
Every regions and all the ingestion requests to the region server will have a version of region rule, to identify under which rule the request is processed. The version can be something like `hash(region_rule)`. Once the region rule on region server is updated, all ingestion request with old rule will be rejected, and all requests with new rule will be accepted but not visible. They can still be flushed to persisted storage, but their version change (new manifest) will be staged.
Then region 0 (or let metasrv to pick any operational region) will compute the new manifests for all target regions. This step is done by first reading all old manifests, and remapping the files with new partition rule, to get the content of new manifests. Notice this step only handles the manifests before region rule change on region server, and won't touch those staged manifests, as they are already with the new rule.
Those new manifest will be submitted to the corresponding target regions by region 0 via a `RegionEdit` request. If this request falls after a few retries, region 0 will try to rollback this change by directly overwriting the manifest on object storage. and report this failure to metasrv and let the entire repartition procedure to fail. And we can also optionally compute the new manifest for those staged version changes (like another repartition) and submit them to the target regions to make the also visible even if the repartition fails.
In the other hand, a successful `RegionEdit` request also acknowledges those staged version changes and make them visible.
After this step, the repartition is done in the data plane. We can start to process compaction and snapshot again.
## Postprocessing
After the main processing is done, we can do some extra postprocessing to reduce the performance impact of repartition. Including reloading caches in frontend's route table, metasrv's kv cache and datanode's read/write/page cache etc.
We can also schedule an optional compaction to reorganize all the data file under the new partition rule to reduce potential fragmentation or read amplification.
## Procedure
Here describe the repartition procedure step by step:
- <on frontend> Validating repartition request
- <on frontend> Initialize the repartition procedure
- Calculate rule diff and repartition plan group
- Allocate necessary new regions
- Lock the table key
- For each repartition subprocedure
- Stop compaction and snapshot
- Forbid new ingestion requests, update metadata, allow ingestion requests.
- Update region rule to regions
- Pick one region to calculate new manifest for all regions in this repartition group
- Let that region to apply new manifest to each region via `RegionEdit`
- If failed after some retries, revert this manifest change to other succeeded regions and mark this failure.
- If all succeeded, acknowledge those staged version changes and make them visible.
- Return result
- Collect results from subprocedure.
- For those who failed, we need to restart those regions to force reconstruct their status from manifests
- For those who succeeded, collect and merge their rule diff
- Unlock the table key
- Report the result to user.
- <in background> Reload cache
- <in background> Maybe trigger a special compaction
In addition of sequential step, rollback is also an important part of this procedure. There are three steps can be rolled back when unrecoverable failure occurs.
If the metadata update is not committed, we can overwrite the metadata to previous version. This step is scoped in the "no ingestion" period, so no new data will be ingested and the status of both datanode and metasrv will be consistent.
If the `RegionEdit` to other regions is not acknowledged, or partial acknowledged, we can directly overwrite the manifest on object storage from the central region (who computes the new manifest), and force region server to reload corresponding region to load its state from object storage to recover.
If the staged version changes are not acknowledged, we can re-compute manifest based on old rule for staged data, and apply them directly like above. This is like another smaller repartition for those staged data.
## Region rule validation and diff calculation
In the current codebase, the rule checker is not complete. It can't check uniqueness and completeness of the rule. This RFC also propose a new way to validate the rule.
The proposed validation way is based on a check-point system, which first generates a group of check-points from the rule, and then check if all the point is covered and only covered by one rule.
All the partition rule expressionis limited to be the form of `<column> <operator> <value>`, and the operator is limited to be comparison operators. Those expressions are allowed to be nested with `AND` and `OR` operators. Based on this, we can first extract all the unique values on each column, adding and subtracting a little epsilon to cover its left and right boundary.
Since we accept integer, float and string as the value type, compute on them directly is not convenient. So we'll first normalize them to a common type and only need to preserve the relative partial ordering. This also avoids the problem of "what is next/previous value" of string and "what's a good precision" for float.
After normalization, we get a set of scatter points for each column. Then we can generate a set of check-points by combining all the scatter points like building a cartesian product. This might bring a large number of check-points, so we can do an prune optimization to remove some of them by merging some of the expression zones. Those expressions who have identical N-1 edge sub-expressions with one adjacent edge can be merged together. This prune check is with a time complexity of O(N * M * log(M)), where N is the number of active dimensions and M is the number of expression zones. Diff calculation is also done by finding different expression zones between the old and new rule set, and check if we can transform one to another by merging some of the expression zones.
The step to validate the check-points set against expressions can be treated as a tiny expression of `PhysicalExpr`. This evaluation will give a boolean matrix of K*M shape, where K is the number of check-points. We then check in each row of the matrix, if there is one and only one true value.
## Compute and use new manifest
We can generate a new set of manifest file based on old manifest and two versions of rule. From abvoe rule processing part, we can tell how a new rule & region is from previous one. So a simple way to get the new manifest is also apply the step of change to manifest files. E.g., if region A is from region B and C, we simply combine all file IDs from B and C to generate the content of A.
If necessary, we can do this better by involving some metadata related to data, like min-max statistics of each file, and pre-evaluate over min-max to filter out unneeded files when generating new manifest.
The way to use new manifest needs one more extra step based on the current implementation. We'll need to record either in manifest or in file metadata, of what rule is used when generating (flush or compaction) a SST file. Then in every single read request, we need to append the current region rule as predicate to the read request, to ensure no data belong to other regions will be read. We can use the stored region rule to reduce the number of new predicates to apply, by removing the identical predicate between the current region rule and the stored region rule. So ideally in a table that has not been repartitioned recently, the overhead of checking region rule is minimal.
## Pre-required tasks
In above steps, we assume some functionalities are implemented. Here list them with where they are used and how to implement them.
### Cross-region read
The current data directory structure is `{table_id}/{region_id}/[data/metadata]/{file_id}`, every region can only access files under their own directory. After repartition, data file may be placed in other previous old regions. So we need to support cross-region read. This new access method allows region to access any file under the same table. Related tracking issue is <https://github.com/GreptimeTeam/greptimedb/issues/6409>.
### Global GC worker
This is to simplify state management of data files. As one file may be referenced in multiple manifests, or no manifest at all. After this, every region and the repartition process only need to care about generateing and using new files, without tracking whether a file should be deleted or not. Leaving the deletion to the global GC worker. This worker basically works by counting reference from manifest file, and remove unused one. Related tracking issue is **TBD**.
# Alternatives
In the "Data Processing" section, we can enlarge the "no ingestion" period to include almost all the steps. This can simplify the entire procedure by a lot, but will bring a longer time of ingestion pause which may not be acceptable.

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---
Feature Name: Compatibility Test Framework
Tracking Issue: TBD
Date: 2025-07-04
Author: "Ruihang Xia <waynestxia@gmail.com>"
---
# Summary
This RFC proposes a compatibility test framework for GreptimeDB to ensure backward/forward compatibility for different versions of GreptimeDB.
# Motivation
In current practice, we don't have a systematic way to test and ensure the compatibility of different versions of GreptimeDB. Each time we release a new version, we need to manually test the compatibility with ad-hoc cases. This is not only time-consuming, but also prone to errors and unmaintainable. Highly rely on the release manager to ensure the compatibility of different versions of GreptimeDB.
We don't have a detailed guide on the release SoP of how to test and ensure the compatibility of the new version. And has broken the compatibility of the new version many times (`v0.14.1` and `v0.15.1` are two examples, which are both released right after the major release).
# Details
This RFC proposes a compatibility test framework that is easy to maintain, extend and run. It can tell the compatibility between any given two versions of GreptimeDB, both backward and forward. It's based on the Sqlness library but used in a different way.
Generally speaking, the framework is composed of two parts:
1. Test cases: A set of test cases that are maintained dedicatedly for the compatibility test. Still in the `.sql` and `.result` format.
2. Test framework: A new sqlness runner that is used to run the test cases. With some new features that is not required by the integration sqlness test.
## Test Cases
### Structure
The case set is organized in three parts:
- `1.feature`: Use a new feature
- `2.verify`: Verify database behavior
- `3.cleanup`: Paired with `1.feature`, cleanup the test environment.
These three parts are organized in a tree structure, and should be run in sequence:
```
compatibility_test/
├── 1.feature/
│ ├── feature-a/
│ ├── feature-b/
│ └── feature-c/
├── 2.verify/
│ ├── verify-metadata/
│ ├── verify-data/
│ └── verify-schema/
└── 3.cleanup/
├── cleanup-a/
├── cleanup-b/
└── cleanup-c/
```
### Example
For example, for a new feature like adding new index option ([#6416](https://github.com/GreptimeTeam/greptimedb/pull/6416)), we (who implement the feature) create a new test case like this:
```sql
-- path: compatibility_test/1.feature/index-option/granularity_and_false_positive_rate.sql
-- SQLNESS ARG since=0.15.0
-- SQLNESS IGNORE_RESULT
CREATE TABLE granularity_and_false_positive_rate (ts timestamp time index, val double) with ("index.granularity" = "8192", "index.false_positive_rate" = "0.01");
```
And
```sql
-- path: compatibility_test/3.cleanup/index-option/granularity_and_false_positive_rate.sql
drop table granularity_and_false_positive_rate;
```
Since this new feature don't require some special way to verify the database behavior, we can reuse existing test cases in `2.verify/` to verify the database behavior. For example, we can reuse the `verify-metadata` test case to verify the metadata of the table.
```sql
-- path: compatibility_test/2.verify/verify-metadata/show-create-table.sql
-- SQLNESS TEMPLATE TABLE="SHOW TABLES";
SHOW CREATE TABLE $TABLE;
```
In this example, we use some new sqlness features that will be introduced in the next section (`since`, `IGNORE_RESULT`, `TEMPLATE`).
### Maintenance
Each time implement a new feature that should be covered by the compatibility test, we should create a new test case in `1.feature/` and `3.cleanup/` for them. And check if existing cases in `2.verify/` can be reused to verify the database behavior.
This simulates an enthusiastic user who uses all the new features at the first time. All the new Maintenance burden is on the feature implementer to write one more test case for the new feature, to "fixation" the behavior. And once there is a breaking change in the future, it can be detected by the compatibility test framework automatically.
Another topic is about deprecation. If a feature is deprecated, we should also mark it in the test case. Still use above example, assume we deprecate the `index.granularity` and `index.false_positive_rate` index options in `v0.99.0`, we can mark them as:
```sql
-- SQLNESS ARG since=0.15.0 till=0.99.0
...
```
This tells the framework to ignore this feature in version `v0.99.0` and later. Currently, we have so many experimental features that are scheduled to be broken in the future, this is a good way to mark them.
## Test Framework
This section is about new sqlness features required by this framework.
### Since and Till
Follows the `ARG` interceptor in sqlness, we can mark a feature is available between two given versions. Only the `since` is required:
```sql
-- SQLNESS ARG since=VERSION_STRING [till=VERSION_STRING]
```
### IGNORE_RESULT
`IGNORE_RESULT` is a new interceptor, it tells the runner to ignore the result of the query, only check whether the query is executed successfully.
This is useful to reduce the Maintenance burden of the test cases, unlike the integration sqlness test, in most cases we don't care about the result of the query, only need to make sure the query is executed successfully.
### TEMPLATE
`TEMPLATE` is another new interceptor, it can generate queries from a template based on a runtime data.
In above example, we need to run the `SHOW CREATE TABLE` query for all existing tables, so we can use the `TEMPLATE` interceptor to generate the query with a dynamic table list.
### RUNNER
There are also some extra requirement for the runner itself:
- It should run the test cases in sequence, first `1.feature/`, then `2.verify/`, and finally `3.cleanup/`.
- It should be able to fetch required version automatically to finish the test.
- It should handle the `since` and `till` properly.
On the `1.feature` phase, the runner needs to identify all features need to be tested by version number. And then restart with a new version (the `to` version) to run `2.verify/` and `3.cleanup/` phase.
## Test Report
Finally, we can run the compatibility test to verify the compatibility between any given two versions of GreptimeDB, for example:
```bash
# check backward compatibility between v0.15.0 and v0.16.0 when releasing v0.16.0
./sqlness run --from=0.15.0 --to=0.16.0
# check forward compatibility when downgrading from v0.15.0 to v0.13.0
./sqlness run --from=0.15.0 --to=0.13.0
```
We can also use a script to run the compatibility test for all the versions in a given range to give a quick report with all versions we need.
And we always bump the version in `Cargo.toml` to the next major release version, so the next major release version can be used as "latest" unpublished version for scenarios like local testing.
# Alternatives
There was a previous attempt to implement a compatibility test framework that was disabled due to some reasons [#3728](https://github.com/GreptimeTeam/greptimedb/issues/3728).

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---
Feature Name: "global-gc-worker"
Tracking Issue: https://github.com/GreptimeTeam/greptimedb/issues/6571
Date: 2025-07-23
Author: "discord9 <discord9@163.com>"
---
# Global GC Worker
## Summary
This RFC proposes the integration of a garbage collection (GC) mechanism within the Compaction process. This mechanism aims to manage and remove stale files that are no longer actively used by any system component, thereby reclaiming storage space.
## Motivation
With the introduction of features such as table repartitioning, a substantial number of Parquet files can become obsolete. Furthermore, failures during manifest updates may result in orphaned files that are never referenced by the system. Therefore, a periodic garbage collection mechanism is essential to reclaim storage space by systematically removing these unused files.
## Details
### Overview
The garbage collection process will be integrated directly into the Compaction process. Upon the completion of a Compaction for a given region, the GC worker will be automatically triggered. Its primary function will be to identify and subsequently delete obsolete files that have persisted beyond their designated retention period. This integration ensures that garbage collection is performed in close conjunction with data lifecycle management, effectively leveraging the compaction process's inherent knowledge of file states.
This design prioritizes correctness and safety by explicitly linking GC execution to a well-defined operational boundary: the successful completion of a compaction cycle.
### Terminology
- **Unused File**: Refers to a file present in the storage directory that has never been formally recorded in any manifest. A common scenario for this includes cases where a new SST file is successfully written to storage, but the subsequent update to the manifest fails, leaving the file unreferenced.
- **Obsolete File**: Denotes a file that was previously recorded in a manifest but has since been explicitly marked for removal. This typically occurs following operations such as data repartitioning or compaction.
### GC Worker Process
The GC worker operates as an integral part of the Compaction process. Once a Compaction for a specific region is completed, the GC worker is automatically triggered. Executing this process on a `datanode` is preferred to eliminate the overhead associated with having to set object storage configurations in the `metasrv`.
The detailed process is as follows:
1. **Invocation**: Upon the successful completion of a Compaction for a region, the GC worker is invoked.
2. **Manifest Reading**: The worker reads the region's primary manifest to obtain a comprehensive list of all files marked as obsolete. Concurrently, it reads any temporary manifests generated by long-running queries to identify files that are currently in active use, thereby preventing their premature deletion.
3. **Lingering Time Check (Obsolete Files)**: For each identified obsolete file, the GC worker evaluates its "lingering time." Which is the time passed after it had been removed from manifest.
4. **Deletion Marking (Obsolete Files)**: Files that have exceeded their maximum configurable lingering time and are not referenced by any active temporary manifests are marked for deletion.
5. **Lingering Time (Unused Files)**: Unused files (those never recorded in any manifest) are also subject to a configurable maximum lingering time before they are eligible for deletion.
Following flowchart illustrates the GC worker's process:
```mermaid
flowchart TD
A[Compaction Completed] --> B[Trigger GC Worker]
B --> C[Scan Region Manifest]
C --> D[Identify File Types]
D --> E[Unused Files<br/>Never recorded in manifest]
D --> F[Obsolete Files<br/>Previously in manifest<br/>but marked for removal]
E --> G[Check Lingering Time]
F --> G
G --> H{File exceeds<br/>configured lingering time?}
H -->|No| I[Skip deletion]
H -->|Yes| J[Check Temporary Manifest]
J --> K{File in use by<br/>active queries?}
K -->|Yes| L[Retain file<br/>Wait for next GC cycle]
K -->|No| M[Safely delete file]
I --> N[End GC cycle]
L --> N
M --> O[Update Manifest]
O --> N
N --> P[Wait for next Compaction]
P --> A
style A fill:#e1f5fe
style B fill:#f3e5f5
style M fill:#e8f5e8
style L fill:#fff3e0
```
#### Handling Obsolete Files
An obsolete file is permanently deleted only if two conditions are met:
1. The time elapsed since its removal from the manifest (its obsolescence timestamp) exceeds a configurable threshold.
2. It is not currently referenced by any active temporary manifests.
#### Handling Unused Files
With the integration of the GC worker into the Compaction process, the risk of accidentally deleting newly created SST files that have not yet been recorded in the manifest is significantly mitigated. Consequently, the concept of "Unused Files" as a distinct category primarily susceptible to accidental deletion is largely resolved. Any files that are genuinely "unused" (i.e., never referenced by any manifest, including temporary ones) can be safely deleted after a configurable maximum lingering time.
For debugging and auditing purposes, a comprehensive list of recently deleted files can be maintained.
### Ensuring Read Consistency
To prevent the GC worker from inadvertently deleting files that are actively being utilized by long-running analytical queries, a robust protection mechanism is introduced. This mechanism relies on temporary manifests that are actively kept "alive" by the queries using them.
When a long-running query is detected (e.g., by a slow query recorder), it will write a temporary manifest to the region's manifest directory. This manifest lists all files required for the query. However, simply creating this file is not enough, as a query runner might crash, leaving the temporary manifest orphaned and preventing garbage collection indefinitely.
To address this, the following "heartbeat" mechanism is implemented:
1. **Periodic Updates**: The process executing the long-running query is responsible for periodically updating the modification timestamp of its temporary manifest file (i.e., "touching" the file). This serves as a heartbeat, signaling that the query is still active.
2. **GC Worker Verification**: When the GC worker runs, it scans for temporary manifests. For each one it finds, it checks the file's last modification time.
3. **Stale File Handling**: If a temporary manifest's last modification time is older than a configurable threshold, the GC worker considers it stale (left over from a crashed or terminated query). The GC worker will then delete this stale temporary manifest. Files that were protected only by this stale manifest are no longer shielded from garbage collection.
This approach ensures that only files for genuinely active queries are protected. The lifecycle of the temporary manifest is managed dynamically: it is created when a long query starts, kept alive through periodic updates, and is either deleted by the query upon normal completion or automatically cleaned up by the GC worker if the query terminates unexpectedly.
This mechanism may be too complex to implement at once. We can consider a two-phased approach:
1. **Phase 1 (Simple Time-Based Deletion)**: Initially, implement a simpler GC strategy that deletes obsolete files based solely on a configurable lingering time. This provides a baseline for space reclamation without the complexity of temporary manifests.
2. **Phase 2 (Consistency-Aware GC)**: Based on the practical effectiveness and observed issues from Phase 1, we can then decide whether to implement the full temporary manifest and heartbeat mechanism to handle long-running queries. This iterative approach allows for a quicker initial implementation while gathering real-world data to justify the need for a more complex solution.
## Drawbacks
- **Dependency on Compaction Frequency**: The integration of the GC worker with Compaction means that GC cycles are directly tied to the frequency of compactions. In environments with infrequent compaction operations, obsolete files may accumulate for extended periods before being reclaimed, potentially leading to increased storage consumption.
- **Race Condition with Long-Running Queries**: A potential race condition exists if a long-running query initiates but haven't write its temporary manifest in time, while a compaction process simultaneously begins and marks files used by that query as obsolete. This scenario could lead to the premature deletion of files still required by the active query. To mitigate this, the threshold time for writing a temporary manifest should be significantly shorter than the lingering time configured for obsolete files, ensuring that next GC worker runs do not delete files that are now referenced by a temporary manifest if the query is still running.
Also the read replica shouldn't be later in manifest version for more than the lingering time of obsolete files, otherwise it might ref to files that are already deleted by the GC worker.
- need to upload tmp manifest to object storage, which may introduce additional complexity and potential performance overhead. But since long-running queries are typically not frequent, the performance impact is expected to be minimal.
one potential race condition with region-migration is illustrated below:
```mermaid
sequenceDiagram
participant gc_worker as GC Worker(same dn as region 1)
participant region1 as Region 1 (Leader → Follower)
participant region2 as Region 2 (Follower → Leader)
participant region_dir as Region Directory
gc_worker->>region1: Start GC, get region manifest
activate region1
region1-->>gc_worker: Region 1 manifest
deactivate region1
gc_worker->>region_dir: Scan region directory
Note over region1,region2: Region Migration Occurs
region1-->>region2: Downgrade to Follower
region2-->>region1: Becomes Leader
region2->>region_dir: Add new file
gc_worker->>region_dir: Continue scanning
gc_worker-->>region_dir: Discovers new file
Note over gc_worker: New file not in Region 1's manifest
gc_worker->>gc_worker: Mark file as orphan(incorrectly)
```
which could cause gc worker to incorrectly mark the new file as orphan and delete it, if config the lingering time for orphan files(files not mentioned anywhere(in used or unused)) is not long enough.
A good enough solution could be to use lock to prevent gc worker to happen on the region if region migration is happening on the region, and vise versa.
The race condition between gc worker and repartition also needs to be considered carefully. For now, acquiring lock for both region-migration and repartition during gc worker process could be a simple solution.
## Conclusion and Rationale
This section summarizes the key aspects and trade-offs of the proposed integrated GC worker, highlighting its advantages and potential challenges.
| Aspect | Current Proposal (Integrated GC) |
| :--- | :--- |
| **Implementation Complexity** | **Medium**. Requires careful integration with the compaction process and the slow query recorder for temporary manifest management. |
| **Reliability** | **High**. Integration with compaction and leveraging temporary manifests from long-running queries significantly mitigates the risk of incorrect deletion. Accurate management of lingering times for obsolete files and prevention of accidental deletion of newly created SSTs enhance data safety. |
| **Performance Overhead** | **Low to Medium**. The GC worker runs post-compaction, minimizing direct impact on write paths. Overhead from temporary manifest management by the slow query recorder is expected to be acceptable for long-running queries. |
| **Impact on Other Components** | **Moderate**. Requires modifications to the compaction process to trigger GC and the slow query recorder to manage temporary manifests. This introduces some coupling but enhances overall data safety. |
| **Deletion Strategy** | **State- and Time-Based**. Obsolete files are deleted based on a configurable lingering time, which is paused if the file is referenced by a temporary manifest. Unused files (never in a manifest) are also subject to a lingering time. |
## Unresolved Questions and Future Work
This section outlines key areas requiring further discussion and defines potential avenues for future development.
* **Slow Query Recorder Implementation**: Detailed specifications for modify slow query recorder's implementation and its precise interaction mechanisms with temporary manifests are needed.
* **Configurable Lingering Times**: Establish and make configurable the specific lingering times for both obsolete and unused files to optimize storage reclamation and data availability.
## Alternatives
### 1. Standalone GC Service
Instead of integrating the GC worker directly into the Compaction process, a standalone GC service could be implemented. This service would operate independently, periodically scanning the storage for obsolete and unused files based on manifest information and predefined retention policies.
**Pros:**
* **Decoupling**: Separates GC logic from compaction, allowing independent scaling and deployment.
* **Flexibility**: Can be configured to run at different frequencies and with different strategies than compaction.
**Cons:**
* **Increased Complexity**: Requires a separate service to manage, monitor, and coordinate with other components.
* **Potential for Redundancy**: May duplicate some file scanning logic already present in compaction.
* **Consistency Challenges**: Ensuring read consistency would require more complex coordination mechanisms between the standalone GC service and active queries, potentially involving a distributed lock manager or a more sophisticated temporary manifest system.
This alternative could be implemented in the future if the integrated GC worker proves insufficient or if there is a need for more advanced GC strategies.
### 2. Manifest-Driven Deletion (No Lingering Time)
This alternative would involve immediate deletion of files once they are removed from the manifest, without a lingering time.
**Pros:**
* **Simplicity**: Simplifies the GC logic by removing the need for lingering time management.
* **Immediate Space Reclamation**: Storage space is reclaimed as soon as files are marked for deletion.
**Cons:**
* **Increased Risk of Data Loss**: Higher risk of deleting files still in use by long-running queries or other processes if not perfectly synchronized.
* **Complex Read Consistency**: Requires extremely robust and immediate mechanisms to ensure that no active queries are referencing files marked for deletion, potentially leading to performance bottlenecks or complex error handling.
* **Debugging Challenges**: Difficult to debug issues related to premature file deletion due to the immediate nature of the operation.

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---
Feature Name: Async Index Build
Tracking Issue: https://github.com/GreptimeTeam/greptimedb/issues/6756
Date: 2025-08-16
Author: "SNC123 <sinhco@outlook.com>"
---
# Summary
This RFC proposes an asynchronous index build mechanism in the database, with a configuration option to choose between synchronous and asynchronous modes, aiming to improve flexibility and adapt to different workload requirements.
# Motivation
Currently, index creation is performed synchronously, which may lead to prolonged write suspension and impact business continuity. As data volume grows, the time required for index building increases significantly. An asynchronous solution is urgently needed to enhance user experience and system throughput.
# Details
## Overview
The following table highlights the difference between async and sync index approach:
| Approach | Trigger | Data Source | Additional Index Metadata Installation | Fine-grained `FileMeta` Index |
| :--- | :--- | :--- | :--- | :--- |
| Sync Index | On `write_sst` | Memory (on flush) / Disk (on compact) | Not required(already installed synchronously) | Not required |
| Async Index | 4 trigger types | Disk | Required | Required |
The index build mode (synchronous or asynchronous) can be selected via configuration file.
### Four Trigger Types
This RFC introduces four `IndexBuildType`s to trigger index building:
- **Manual Rebuild**: Triggered by the user via `ADMIN build_index("table_name")`, for scenarios like recovering from failed builds or migrating data. SST files whose `ColumnIndexMetadata` (see below) is already consistent with the `RegionMetadata` will be skipped.
- **Schema Change**: Automatically triggered when the schema of an indexed column is altered.
- **Flush**: Automatically builds indexes for new SST files created by a flush.
- **Compact**: Automatically builds indexes for new SST files created by a compaction.
### Additional Index Metadata Installation
Previously, index information in the in-memory `FileMeta` was updated synchronously. The async approach requires an explicit installation step.
A race condition can occur when compaction and index building run concurrently, leading to:
1. Building an index for a file that is about to be deleted by compaction.
2. Creating an unnecessary index file and an incorrect manifest record.
3. On restart, replaying the manifest could load metadata for a non-existent file.
To prevent this, the system checks if a file's `FileMeta` is in a `compacting` state before updating the manifest. If it is, the installation is aborted.
### Fine-grained `FileMeta` Index
The original `FileMeta` only stored file-level index information. However, manual rebuilds require column-level details to identify files inconsistent with the current DDL. Therefore, the `indexes` field in `FileMeta` is updated as follows:
```rust
struct FileMeta {
...
// From file-level:
// available_indexes: SmallVec<[IndexType; 4]>
// To column-level:
indexes: Vec<ColumnIndexMetadata>,
...
}
pub struct ColumnIndexMetadata {
pub column_id: ColumnId,
pub created_indexes: IndexTypes,
}
```
## Process
The index building process is similar to a flush and is illustrated below:
```mermaid
sequenceDiagram
Region0->>Region0: Triggered by one of 4 conditions, targets specific files
loop For each target file
Region0->>IndexBuildScheduler: Submits an index build task
end
IndexBuildScheduler->>IndexBuildTask: Executes the task
IndexBuildTask->>Storage Interfaces: Reads SST data from disk
IndexBuildTask->>IndexBuildTask: Builds the index file
alt Index file size > 0
IndexBuildTask->>Region0: Sends IndexBuildFinished notification
end
alt File exists in Version and is not compacting
Region0->>Storage Interfaces: Updates manifest and Version
end
```
### Task Triggering and Scheduling
The process starts with one of the four `IndexBuildType` triggers. In `handle_rebuild_index`, the `RegionWorkerLoop` identifies target SSTs from the request or the current region version. It then creates an `IndexBuildTask` for each file and submits it to the `index_build_scheduler`.
Similar to Flush and Compact operations, index build tasks are ultimately dispatched to the LocalScheduler. Resource usage can be adjusted via configuration files. Since asynchronous index tasks are both memory-intensive and IO-intensive but have lower priority, it is recommended to allocate fewer resources to them compared to compaction and flush tasks—for example, limiting them to 1/8 of the CPU cores.
### Index Building and Notification
The scheduled `IndexBuildTask` executes its `index_build` method. It uses an `indexer_builder` to create an `Indexer` that reads SST data and builds the index. If a new index file is created (`IndexOutput.file_size > 0`), the task sends an `IndexBuildFinished` notification back to the `RegionWorkerLoop`.
### Index Metadata Installation
Upon receiving the `IndexBuildFinished` notification in `handle_index_build_finished`, the `RegionWorkerLoop` verifies that the file still exists in the current `version` and is not being compacted. If the check passes, it calls `manifest_ctx.update_manifest` to apply a `RegionEdit` with the new index information, completing the installation.
# Drawbacks
Asynchronous index building may consume extra system resources, potentially affecting overall performance during peak periods.
There may be a delay before the new index becomes available for queries, which could impact certain use cases.
# Unresolved Questions and Future Work
**Resource Management and Throttling**: The resource consumption (CPU, I/O) of background index building can be managed and limited to some extent by configuring a dedicated background thread pool. However, this approach cannot fully eliminate resource contention, especially under heavy workloads or when I/O is highly competitive. Additional throttling mechanisms or dynamic prioritization may still be necessary to avoid impacting foreground operations.
# Alternatives
Instead of being triggered by events like Flush or Compact, index building could be performed in batches during scheduled maintenance windows. This offers predictable resource usage but delays index availability.

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@@ -1,463 +0,0 @@
---
Feature Name: "laminar-flow"
Tracking Issue: https://github.com/GreptimeTeam/greptimedb/issues/TBD
Date: 2025-09-08
Author: "discord9 <discord9@163.com>"
---
# laminar Flow
## Summary
This RFC proposes a redesign of the flow architecture where flownode becomes a lightweight in-memory state management node with an embedded frontend for direct computation. This approach optimizes resource utilization and improves scalability by eliminating network hops while maintaining clear separation between coordination and computation tasks.
## Motivation
The current flow architecture has several limitations:
1. **Resource Inefficiency**: Flownodes perform both state management and computation, leading to resource duplication and inefficient utilization.
2. **Scalability Constraints**: Computation resources are tied to flownode instances, limiting horizontal scaling capabilities.
3. **State Management Complexity**: Mixing computation with state management makes the system harder to maintain and debug.
4. **Network Overhead**: Additional network hops between flownode and separate frontend nodes add latency.
The laminar Flow architecture addresses these issues by:
- Consolidating computation within flownode through embedded frontend
- Eliminating network overhead by removing separate frontend node communication
- Simplifying state management by focusing flownode on its core responsibility
- Improving system scalability and maintainability
## Details
### Architecture Overview
The laminar Flow architecture transforms flownode into a lightweight coordinator that maintains flow state with an embedded frontend for computation. The key components involved are:
1. **Flownode**: Maintains in-memory state, coordinates computation, and includes an embedded frontend for query execution
2. **Embedded Frontend**: Executes **incremental** computations within the flownode
3. **Datanode**: Stores final results and source data
```mermaid
graph TB
subgraph "laminar Flow Architecture"
subgraph Flownode["Flownode (State Manager + Embedded Frontend)"]
StateMap["Flow State Map<br/>Map<Timestamp, (Map<Key, Value>, Sequence)>"]
Coordinator["Computation Coordinator"]
subgraph EmbeddedFrontend["Embedded Frontend"]
QueryEngine["Query Engine"]
AggrState["__aggr_state Executor"]
end
end
subgraph Datanode["Datanode"]
Storage["Data Storage"]
Results["Result Tables"]
end
end
Coordinator -->|Internal Query| EmbeddedFrontend
EmbeddedFrontend -->|Incremental States| Coordinator
Flownode -->|Incremental Results| Datanode
EmbeddedFrontend -.->|Read Data| Datanode
```
### Core Components
#### 1. Flow State Management
Flownode maintains a state map for each flow:
```rust
type FlowState = Map<Timestamp, (Map<Key, Value>, Sequence)>;
```
Where:
- **Timestamp**: Time window identifier for aggregation groups
- **Key**: Aggregation group expressions (`group_exprs`)
- **Value**: Aggregation expressions results (`aggr_exprs`)
- **Sequence**: Computation progress marker for incremental updates
#### 2. Incremental Computation Process
The computation process follows these steps:
1. **Trigger Evaluation**: Flownode determines when to trigger computation based on:
- Time intervals (periodic updates)
- Data volume thresholds
- Sequence progress requirements
2. **Query Execution**: Flownode executes `__aggr_state` queries using its embedded frontend with:
- Time window filters
- Sequence range constraints
3. **State Update**: Flownode receives partial state results and updates its internal state:
- Merges new values with existing aggregation state
- Updates sequence markers to track progress
- Identifies changed time windows for result computation
4. **Result Materialization**: Flownode computes final results using `__aggr_merge` operations:
- Processes only updated time windows(and time series) for efficiency
- Writes results back to datanode directly through its embedded frontend
### Detailed Workflow
#### Incremental State Query
```sql
-- Example incremental state query executed by embedded frontend
SELECT
__aggr_state(avg(value)) as state,
time_window,
group_key
FROM source_table
WHERE
timestamp >= :window_start
AND timestamp < :window_end
AND __sequence >= :last_sequence
AND __sequence < :current_sequence
-- sequence range is actually written in grpc header, but shown here for clarity
GROUP BY time_window, group_key;
```
#### State Merge Process
```mermaid
sequenceDiagram
participant F as Flownode (Coordinator)
participant EF as Embedded Frontend (Lightweight)
participant DN as Datanode (Heavy Computation)
F->>F: Evaluate trigger conditions
F->>EF: Execute __aggr_state query with sequence range
EF->>DN: Send query to datanode (Heavy scan & aggregation)
DN->>DN: Scan data and compute partial aggregation state (Heavy CPU/I/O)
DN->>EF: Return aggregated state results
EF->>F: Forward state results (Lightweight merge)
F->>F: Merge with existing state
F->>F: Update sequence markers (Lightweight)
F->>EF: Compute incremental results with __aggr_merge
EF->>DN: Write incremental results to datanode
```
### Refill Implementation and State Management
#### Refill Process
Refill is implemented as a straightforward `__aggr_state` query with time and sequence constraints:
```sql
-- Refill query for flow state recovery
SELECT
__aggr_state(aggregation_functions) as state,
time_window,
group_keys
FROM source_table
WHERE
timestamp >= :refill_start_time
AND timestamp < :refill_end_time
AND __sequence >= :start_sequence
AND __sequence < :end_sequence
-- sequence range is actually written in grpc header, but shown here for clarity
GROUP BY time_window, group_keys;
```
#### State Recovery Strategy
1. **Recent Data (Stream Mode)**: For recent time windows, flownode refills state using incremental queries
2. **Historical Data (Batch Mode)**: For older time windows, flownode triggers batch computation directly and no need to refill state
3. **Hybrid Approach**: Combines stream and batch processing based on data age and availability
#### Mirror Write Optimization
Mirror writes are simplified to only transmit timestamps to flownode:
```rust
struct MirrorWrite {
timestamps: Vec<Timestamp>,
// Removed: actual data payload
}
```
This optimization:
- Eliminates network overhead by using embedded frontend
- Enables flownode to track pending time windows efficiently
- Allows flownode to decide processing mode (stream vs batch) based on timestamp age
Another optimization could be just send dirty time windows range for each flow to flownode directly, no need to send timestamps one by one.
### Query Optimization Strategies
#### Sequence-Based Incremental Processing
The core optimization relies on sequence-constrained queries:
```sql
-- Optimized incremental query
SELECT __aggr_state(expr)
FROM table
WHERE time_range AND sequence_range
```
Benefits:
- **Reduced Scan Volume**: Only processes data since last computation
- **Efficient Resource Usage**: Minimizes CPU and I/O overhead
- **Predictable Performance**: Query cost scales with incremental data size
#### Time Window Partitioning
```mermaid
graph LR
subgraph "Time Windows"
W1["Window 1<br/>09:00-09:05"]
W2["Window 2<br/>09:05-09:10"]
W3["Window 3<br/>09:10-09:15"]
end
subgraph "Processing Strategy"
W1 --> Batch["Batch Mode<br/>(Old Data)"]
W2 --> Stream["Stream Mode<br/>(Recent Data)"]
W3 --> Stream2["Stream Mode<br/>(Current Data)"]
end
```
### Performance Characteristics
#### Memory Usage
- **Flownode**: O(active_time_windows × group_cardinality) for state storage
- **Embedded Frontend**: O(query_batch_size) for temporary computation
- **Overall**: Significantly reduced compared to current architecture
#### Computation Distribution
- **Direct Processing**: Queries processed directly within flownode's embedded frontend
- **Fault Tolerance**: Simplified error handling with fewer distributed components
- **Scalability**: Computation capacity scales with flownode instances
#### Network Optimization
- **Reduced Payload**: Mirror writes only contain timestamps
- **Efficient Queries**: Sequence constraints minimize data transfer
- **Result Caching**: State results cached in flownode memory
### Sequential Read Implementation for Incremental Queries
#### Sequence Management
Flow maintains two critical sequences to track incremental query progress for each region:
- **`memtable_last_seq`**: Tracks the latest sequence number read from the memtable
- **`sst_last_seq`**: Tracks the latest sequence number read from SST files
These sequences enable precise incremental data processing by defining the exact range of data to query in subsequent iterations.
#### Query Protocol
When executing incremental queries, flownode provides both sequence parameters to datanode:
```rust
struct GrpcHeader {
...
// Sequence tracking for incremental reads
memtable_last_seq: HashMap<RegionId, SequenceNumber>,
sst_last_seqs: HashMap<RegionId, SequenceNumber>,
}
```
The datanode processes these parameters to return only the data within the specified sequence ranges, ensuring efficient incremental processing.
#### Sequence Invalidation and Refill Mechanism
A critical challenge occurs when data referenced by `memtable_last_seq` gets flushed from memory to disk. Since SST files only maintain a single maximum sequence number for the entire file (rather than per-record sequence tracking), precise incremental queries become impossible for the affected time ranges.
**Detection of Invalidation:**
```rust
// When memtable_last_seq data has been flushed to SST
if memtable_last_seq_flushed_to_disk {
// Incremental query is no longer feasible
// Need to trigger refill for affected time ranges
}
```
**Refill Process:**
1. **Identify Affected Time Range**: Query the time range corresponding to the flushed `memtable_last_seq` data
2. **Full Recomputation**: Execute a complete aggregation query for the affected time windows
3. **State Replacement**: Replace the existing flow state for these time ranges with newly computed values
4. **Sequence Update**: Update `memtable_last_seq` to the current latest sequence, while `sst_last_seq` continues normal incremental updates
```sql
-- Refill query when memtable data has been flushed
SELECT
__aggr_state(aggregation_functions) as state,
time_window,
group_keys
FROM source_table
WHERE
timestamp >= :affected_time_start
AND timestamp < :affected_time_end
-- Full scan required since sequence precision is lost in SST
GROUP BY time_window, group_keys;
```
#### Datanode Implementation Requirements
Datanode must implement enhanced query processing capabilities to support sequence-based incremental reads:
**Input Processing:**
- Accept `memtable_last_seq` and `sst_last_seq` parameters in query requests
- Filter data based on sequence ranges across both memtable and SST storage layers
**Output Enhancement:**
```rust
struct OutputMeta {
pub plan: Option<Arc<dyn ExecutionPlan>>,
pub cost: OutputCost,
pub sequence_info: HashMap<RegionId, SequenceInfo>, // New field for sequence tracking per regions involved in the query
}
struct SequenceInfo {
// Sequence tracking for next iteration
max_memtable_seq: SequenceNumber, // Highest sequence from memtable in this result
max_sst_seq: SequenceNumber, // Highest sequence from SST in this result
}
```
**Sequence Tracking Logic:**
datanode already impl `max_sst_seq` in leader range read, can reuse similar logic for `max_memtable_seq`.
#### Sequence Update Strategy
**Normal Incremental Updates:**
- Update both `memtable_last_seq` and `sst_last_seq` after successful query execution
- Use returned `max_memtable_seq` and `max_sst_seq` values for next iteration
**Refill Scenario:**
- Reset `memtable_last_seq` to current maximum after refill completion
- Continue normal `sst_last_seq` updates based on successful query responses
- Maintain separate tracking to detect future flush events
#### Performance Considerations
**Sequence Range Optimization:**
- Minimize sequence range spans to reduce scan overhead
- Batch multiple small incremental updates when beneficial
- Balance between query frequency and processing efficiency
**Memory Management:**
- Monitor memtable flush frequency to predict refill requirements
- Implement adaptive query scheduling based on flush patterns
- Optimize state storage to handle frequent updates efficiently
This sequential read implementation ensures reliable incremental processing while gracefully handling the complexities of storage architecture, maintaining both correctness and performance in the face of background compaction and flush operations.
## Implementation Plan
### Phase 1: Core Infrastructure
1. **State Management**: Implement in-memory state map in flownode
2. **Query Interface**: Integrate `__aggr_state` query interface in embedded frontend(Already done in previous query pushdown optimizer work)
3. **Basic Coordination**: Implement query dispatch and result collection
4. **Sequence Tracking**: Implement sequence-based incremental processing(Can use similar interface which leader range read use)
After phase 1, the system should support basic flow operations with incremental updates.
### Phase 2: Optimization Features
1. **Refill Logic**: Develop state recovery mechanisms
2. **Mirror Write Optimization**: Simplify mirror write protocol
### Phase 3: Advanced Features
1. **Load Balancing**: Implement intelligent resource allocation for partitioned flow(Flow distributed executed on multiple flownodes)
2. **Fault Tolerance**: Add retry mechanisms and error handling
3. **Performance Tuning**: Optimize query batching and state management
## Drawbacks
### Reduced Network Communication
- **Eliminated Hops**: Direct communication between flownode and datanode through embedded frontend
- **Reduced Latency**: No separate frontend node communication overhead
- **Simplified Network Topology**: Fewer network dependencies and failure points
### Complexity in Error Handling
- **Distributed Failures**: Need to handle failures across multiple components
- **State Consistency**: Ensuring state consistency during partial failures
- **Recovery Complexity**: More complex recovery procedures
### Datanode Resource Requirements
- **Computation Load**: Datanode handles the heavy computational workload for flow queries
- **Query Interference**: Flow queries may impact regular query performance on datanode
- **Resource Contention**: Need careful resource management and isolation on datanode
## Alternatives
### Alternative 1: Enhanced Current Architecture
Keep computation in flownode but optimize through:
- Better resource management
- Improved query optimization
- Enhanced state persistence
**Pros:**
- Simpler architecture
- Fewer network hops
- Easier debugging
**Cons:**
- Limited scalability
- Resource inefficiency
- Harder to optimize computation distribution
### Alternative 2: Embedded Computation
Embed lightweight computation engines within flownode:
**Pros:**
- Reduced network communication
- Better performance for simple queries
- Simpler deployment
**Cons:**
- Limited scalability
- Resource constraints
- Harder to leverage existing frontend optimizations
## Future Work
### Advanced Query Optimization
- **Parallel Processing**: Enable parallel execution of flow queries
- **Query Caching**: Cache frequently executed query patterns
### Enhanced State Management
- **State Compression**: Implement efficient state serialization
- **Distributed State**: Support state distribution across multiple flownodes
- **State Persistence**: Add optional state persistence for durability
### Monitoring and Observability
- **Performance Metrics**: Track query execution times and resource usage
- **State Visualization**: Provide tools for state inspection and debugging
- **Health Monitoring**: Monitor system health and performance characteristics
### Integration Improvements
- **Embedded Frontend Optimization**: Optimize embedded frontend query planning and execution
- **Datanode Optimization**: Optimize result writing from flownode
- **Metasrv Coordination**: Enhanced metadata management and coordination
## Conclusion
The laminar Flow architecture represents a significant improvement over the current flow system by separating state management from computation execution. This design enables better resource utilization, improved scalability, and simplified maintenance while maintaining the core functionality of continuous aggregation.
The key benefits include:
1. **Improved Scalability**: Computation can scale independently of state management
2. **Better Resource Utilization**: Eliminates network overhead and leverages embedded frontend infrastructure
3. **Simplified Architecture**: Clear separation of concerns between components
4. **Enhanced Performance**: Sequence-based incremental processing reduces computational overhead
While the architecture introduces some complexity in terms of distributed coordination and error handling, the benefits significantly outweigh the drawbacks, making it a compelling evolution of the flow system.

20
flake.lock generated
View File

@@ -8,11 +8,11 @@
"rust-analyzer-src": "rust-analyzer-src"
},
"locked": {
"lastModified": 1765252472,
"narHash": "sha256-byMt/uMi7DJ8tRniFopDFZMO3leSjGp6GS4zWOFT+uQ=",
"lastModified": 1737613896,
"narHash": "sha256-ldqXIglq74C7yKMFUzrS9xMT/EVs26vZpOD68Sh7OcU=",
"owner": "nix-community",
"repo": "fenix",
"rev": "8456b985f6652e3eef0632ee9992b439735c5544",
"rev": "303a062fdd8e89f233db05868468975d17855d80",
"type": "github"
},
"original": {
@@ -41,16 +41,16 @@
},
"nixpkgs": {
"locked": {
"lastModified": 1764983851,
"narHash": "sha256-y7RPKl/jJ/KAP/VKLMghMgXTlvNIJMHKskl8/Uuar7o=",
"lastModified": 1737569578,
"narHash": "sha256-6qY0pk2QmUtBT9Mywdvif0i/CLVgpCjMUn6g9vB+f3M=",
"owner": "NixOS",
"repo": "nixpkgs",
"rev": "d9bc5c7dceb30d8d6fafa10aeb6aa8a48c218454",
"rev": "47addd76727f42d351590c905d9d1905ca895b82",
"type": "github"
},
"original": {
"owner": "NixOS",
"ref": "nixos-25.11",
"ref": "nixos-24.11",
"repo": "nixpkgs",
"type": "github"
}
@@ -65,11 +65,11 @@
"rust-analyzer-src": {
"flake": false,
"locked": {
"lastModified": 1765120009,
"narHash": "sha256-nG76b87rkaDzibWbnB5bYDm6a52b78A+fpm+03pqYIw=",
"lastModified": 1737581772,
"narHash": "sha256-t1P2Pe3FAX9TlJsCZbmJ3wn+C4qr6aSMypAOu8WNsN0=",
"owner": "rust-lang",
"repo": "rust-analyzer",
"rev": "5e3e9c4e61bba8a5e72134b9ffefbef8f531d008",
"rev": "582af7ee9c8d84f5d534272fc7de9f292bd849be",
"type": "github"
},
"original": {

View File

@@ -2,7 +2,7 @@
description = "Development environment flake";
inputs = {
nixpkgs.url = "github:NixOS/nixpkgs/nixos-25.11";
nixpkgs.url = "github:NixOS/nixpkgs/nixos-24.11";
fenix = {
url = "github:nix-community/fenix";
inputs.nixpkgs.follows = "nixpkgs";
@@ -15,11 +15,13 @@
let
pkgs = nixpkgs.legacyPackages.${system};
buildInputs = with pkgs; [
libgit2
libz
];
lib = nixpkgs.lib;
rustToolchain = fenix.packages.${system}.fromToolchainName {
name = (lib.importTOML ./rust-toolchain.toml).toolchain.channel;
sha256 = "sha256-GCGEXGZeJySLND0KU5TdtTrqFV76TF3UdvAHSUegSsk=";
sha256 = "sha256-f/CVA1EC61EWbh0SjaRNhLL0Ypx2ObupbzigZp8NmL4=";
};
in
{
@@ -48,8 +50,7 @@
gnuplot ## for cargo bench
];
buildInputs = buildInputs;
NIX_HARDENING_ENABLE = "";
LD_LIBRARY_PATH = pkgs.lib.makeLibraryPath buildInputs;
};
});
}

View File

@@ -1,122 +1,61 @@
# Grafana dashboards for GreptimeDB
Grafana dashboard for GreptimeDB
--------------------------------
## Overview
GreptimeDB's official Grafana dashboard.
This repository contains Grafana dashboards for visualizing metrics and logs of GreptimeDB instances running in either cluster or standalone mode. **The Grafana version should be greater than 9.0**.
Status notify: we are still working on this config. It's expected to change frequently in the recent days. Please feel free to submit your feedback and/or contribution to this dashboard 🤗
We highly recommend using the self-monitoring feature provided by [GreptimeDB Operator](https://github.com/GrepTimeTeam/greptimedb-operator) to automatically collect metrics and logs from your GreptimeDB instances and store them in a dedicated GreptimeDB instance.
- **Metrics Dashboards**
- `dashboards/metrics/cluster/dashboard.json`: The Grafana dashboard for the GreptimeDB cluster. Read the [dashboard.md](./dashboards/metrics/cluster/dashboard.md) for more details.
- `dashboards/metrics/standalone/dashboard.json`: The Grafana dashboard for the standalone GreptimeDB instance. **It's generated from the `cluster/dashboard.json` by removing the instance filter through the `make dashboards` command**. Read the [dashboard.md](./dashboards/metrics/standalone/dashboard.md) for more details.
- **Logs Dashboard**
The `dashboards/logs/dashboard.json` provides a comprehensive Grafana dashboard for visualizing GreptimeDB logs. To utilize this dashboard effectively, you need to collect logs in JSON format from your GreptimeDB instances and store them in a dedicated GreptimeDB instance.
For proper integration, the logs table must adhere to the following schema design with the table name `_gt_logs`:
```sql
CREATE TABLE IF NOT EXISTS `_gt_logs` (
`pod_ip` STRING NULL,
`namespace` STRING NULL,
`cluster` STRING NULL,
`file` STRING NULL,
`module_path` STRING NULL,
`level` STRING NULL,
`target` STRING NULL,
`role` STRING NULL,
`pod` STRING NULL SKIPPING INDEX WITH(granularity = '10240', type = 'BLOOM'),
`message` STRING NULL FULLTEXT INDEX WITH(analyzer = 'English', backend = 'bloom', case_sensitive = 'false'),
`err` STRING NULL FULLTEXT INDEX WITH(analyzer = 'English', backend = 'bloom', case_sensitive = 'false'),
`timestamp` TIMESTAMP(9) NOT NULL,
TIME INDEX (`timestamp`),
PRIMARY KEY (`level`, `target`, `role`)
)
ENGINE=mito
WITH (
append_mode = 'true'
)
```
## Development
As GreptimeDB evolves rapidly, metrics may change over time. We welcome your feedback and contributions to improve these dashboards 🤗
To modify the metrics dashboards, simply edit the `dashboards/metrics/cluster/dashboard.json` file and run the `make dashboards` command. This will automatically generate the updated `dashboards/metrics/standalone/dashboard.json` and other related files.
For easier dashboard maintenance, we utilize the [`dac`](https://github.com/zyy17/dac) tool to generate human-readable intermediate dashboards and documentation:
- `dashboards/metrics/cluster/dashboard.yaml`: The intermediate dashboard file for the GreptimeDB cluster.
- `dashboards/metrics/standalone/dashboard.yaml`: The intermediate dashboard file for standalone GreptimeDB instances.
## Data Sources
The following data sources are used to fetch metrics and logs:
- **`${metrics}`**: Prometheus data source for providing the GreptimeDB metrics.
- **`${logs}`**: MySQL data source for providing the GreptimeDB logs.
- **`${information_schema}`**: MySQL data source for providing the information schema of the current instance and used for the `overview` panel. It is the MySQL port of the current monitored instance.
## Instance Filters
To deploy the dashboards for multiple scenarios (K8s, bare metal, etc.), we prefer to use the `instance` label when filtering instances.
Additionally, we recommend including the `pod` label in the legend to make it easier to identify each instance, even though this field will be empty in bare metal scenarios.
For example, the following query is recommended:
```promql
sum(process_resident_memory_bytes{instance=~"$datanode"}) by (instance, pod)
```
And the legend will be like: `[{{instance}}]-[{{ pod }}]`.
## Deployment
### (Recommended) Helm Chart
If you use the [Helm Chart](https://github.com/GreptimeTeam/helm-charts) to deploy a GreptimeDB cluster, you can enable self-monitoring by setting the following values in your Helm chart:
If you use Helm [chart](https://github.com/GreptimeTeam/helm-charts) to deploy GreptimeDB cluster, you can enable self-monitoring by setting the following values in your Helm chart:
- `monitoring.enabled=true`: Deploys a standalone GreptimeDB instance dedicated to monitoring the cluster;
- `grafana.enabled=true`: Deploys Grafana and automatically imports the monitoring dashboard;
The standalone GreptimeDB instance will collect metrics from your cluster, and the dashboard will be available in the Grafana UI. For detailed deployment instructions, please refer to our [Kubernetes deployment guide](https://docs.greptime.com/user-guide/deployments-administration/deploy-on-kubernetes/overview).
The standalone GreptimeDB instance will collect metrics from your cluster and the dashboard will be available in the Grafana UI. For detailed deployment instructions, please refer to our [Kubernetes deployment guide](https://docs.greptime.com/nightly/user-guide/deployments/deploy-on-kubernetes/getting-started).
### Self-host Prometheus and import dashboards manually
# How to use
1. **Configure Prometheus to scrape the cluster**
## `greptimedb.json`
The following is an example configuration(**Please modify it according to your actual situation**):
Open Grafana Dashboard page, choose `New` -> `Import`. And upload `greptimedb.json` file.
```yml
# example config
# only to indicate how to assign labels to each target
# modify yours accordingly
scrape_configs:
- job_name: metasrv
static_configs:
- targets: ['<metasrv-ip>:<port>']
## `greptimedb-cluster.json`
- job_name: datanode
static_configs:
- targets: ['<datanode0-ip>:<port>', '<datanode1-ip>:<port>', '<datanode2-ip>:<port>']
This cluster dashboard provides a comprehensive view of incoming requests, response statuses, and internal activities such as flush and compaction, with a layered structure from frontend to datanode. Designed with a focus on alert functionality, its primary aim is to highlight any anomalies in metrics, allowing users to quickly pinpoint the cause of errors.
- job_name: frontend
static_configs:
- targets: ['<frontend-ip>:<port>']
```
We use Prometheus to scrape off metrics from nodes in GreptimeDB cluster, Grafana to visualize the diagram. Any compatible stack should work too.
2. **Configure the data sources in Grafana**
__Note__: This dashboard is still in an early stage of development. Any issue or advice on improvement is welcomed.
You need to add two data sources in Grafana:
### Configuration
- Prometheus: It is the Prometheus instance that scrapes the GreptimeDB metrics.
- Information Schema: It is the MySQL port of the current monitored instance. The dashboard will use this datasource to show the information schema of the current instance.
Please ensure the following configuration before importing the dashboard into Grafana.
3. **Import the dashboards based on your deployment scenario**
__1. Prometheus scrape config__
- **Cluster**: Import the `dashboards/metrics/cluster/dashboard.json` dashboard.
- **Standalone**: Import the `dashboards/metrics/standalone/dashboard.json` dashboard.
Configure Prometheus to scrape the cluster.
```yml
# example config
# only to indicate how to assign labels to each target
# modify yours accordingly
scrape_configs:
- job_name: metasrv
static_configs:
- targets: ['<metasrv-ip>:<port>']
- job_name: datanode
static_configs:
- targets: ['<datanode0-ip>:<port>', '<datanode1-ip>:<port>', '<datanode2-ip>:<port>']
- job_name: frontend
static_configs:
- targets: ['<frontend-ip>:<port>']
```
__2. Grafana config__
Create a Prometheus data source in Grafana before using this dashboard. We use `datasource` as a variable in Grafana dashboard so that multiple environments are supported.
### Usage
Use `datasource` or `instance` on the upper-left corner to filter data from certain node.

19
grafana/check.sh Executable file
View File

@@ -0,0 +1,19 @@
#!/usr/bin/env bash
BASEDIR=$(dirname "$0")
# Use jq to check for panels with empty or missing descriptions
invalid_panels=$(cat $BASEDIR/greptimedb-cluster.json | jq -r '
.panels[]
| select((.type == "stats" or .type == "timeseries") and (.description == "" or .description == null))
')
# Check if any invalid panels were found
if [[ -n "$invalid_panels" ]]; then
echo "Error: The following panels have empty or missing descriptions:"
echo "$invalid_panels"
exit 1
else
echo "All panels with type 'stats' or 'timeseries' have valid descriptions."
exit 0
fi

View File

@@ -1,292 +0,0 @@
{
"annotations": {
"list": [
{
"builtIn": 1,
"datasource": {
"type": "grafana",
"uid": "-- Grafana --"
},
"enable": true,
"hide": true,
"iconColor": "rgba(0, 211, 255, 1)",
"name": "Annotations & Alerts",
"type": "dashboard"
}
]
},
"editable": true,
"fiscalYearStartMonth": 0,
"graphTooltip": 0,
"id": 12,
"links": [],
"panels": [
{
"datasource": {
"default": false,
"type": "mysql",
"uid": "${datasource}"
},
"fieldConfig": {
"defaults": {},
"overrides": []
},
"gridPos": {
"h": 20,
"w": 24,
"x": 0,
"y": 0
},
"id": 1,
"options": {
"dedupStrategy": "none",
"enableInfiniteScrolling": true,
"enableLogDetails": true,
"prettifyLogMessage": false,
"showCommonLabels": false,
"showLabels": false,
"showTime": true,
"sortOrder": "Descending",
"wrapLogMessage": false
},
"pluginVersion": "11.6.0",
"targets": [
{
"dataset": "greptime_private",
"datasource": {
"type": "mysql",
"uid": "${datasource}"
},
"editorMode": "code",
"format": "table",
"rawQuery": true,
"rawSql": "SELECT `timestamp`, CONCAT('[', `level`, ']', ' ', '<', `target`, '>', ' ', `message`),\n `role`,\n `pod`,\n `pod_ip`,\n `namespace`,\n `cluster`,\n `err`,\n `file`,\n `module_path`\nFROM\n `_gt_logs`\nWHERE\n (\n \"$level\" = \"'all'\"\n OR `level` IN ($level)\n ) \n AND (\n \"$role\" = \"'all'\"\n OR `role` IN ($role)\n )\n AND (\n \"$pod\" = \"\"\n OR `pod` = '$pod'\n )\n AND (\n \"$target\" = \"\"\n OR `target` = '$target'\n )\n AND (\n \"$search\" = \"\"\n OR matches_term(`message`, '$search')\n )\n AND (\n \"$exclude\" = \"\"\n OR NOT matches_term(`message`, '$exclude')\n )\n AND $__timeFilter(`timestamp`)\nORDER BY `timestamp` DESC\nLIMIT $limit;\n",
"refId": "A",
"sql": {
"columns": [
{
"parameters": [],
"type": "function"
}
],
"groupBy": [
{
"property": {
"type": "string"
},
"type": "groupBy"
}
],
"limit": 50
}
}
],
"title": "Logs",
"type": "logs"
}
],
"preload": false,
"refresh": "",
"schemaVersion": 41,
"tags": [],
"templating": {
"list": [
{
"current": {
"text": "logs",
"value": "P98F38F12DB221A8C"
},
"includeAll": false,
"name": "datasource",
"options": [],
"query": "mysql",
"refresh": 1,
"regex": "",
"type": "datasource"
},
{
"allValue": "'all'",
"current": {
"text": [
"$__all"
],
"value": [
"$__all"
]
},
"includeAll": true,
"label": "level",
"multi": true,
"name": "level",
"options": [
{
"selected": false,
"text": "INFO",
"value": "INFO"
},
{
"selected": false,
"text": "ERROR",
"value": "ERROR"
},
{
"selected": false,
"text": "WARN",
"value": "WARN"
},
{
"selected": false,
"text": "DEBUG",
"value": "DEBUG"
},
{
"selected": false,
"text": "TRACE",
"value": "TRACE"
}
],
"query": "INFO,ERROR,WARN,DEBUG,TRACE",
"type": "custom"
},
{
"allValue": "'all'",
"current": {
"text": [
"$__all"
],
"value": [
"$__all"
]
},
"includeAll": true,
"label": "role",
"multi": true,
"name": "role",
"options": [
{
"selected": false,
"text": "datanode",
"value": "datanode"
},
{
"selected": false,
"text": "frontend",
"value": "frontend"
},
{
"selected": false,
"text": "meta",
"value": "meta"
}
],
"query": "datanode,frontend,meta",
"type": "custom"
},
{
"current": {
"text": "",
"value": ""
},
"label": "pod",
"name": "pod",
"options": [
{
"selected": true,
"text": "",
"value": ""
}
],
"query": "",
"type": "textbox"
},
{
"current": {
"text": "",
"value": ""
},
"label": "target",
"name": "target",
"options": [
{
"selected": true,
"text": "",
"value": ""
}
],
"query": "",
"type": "textbox"
},
{
"current": {
"text": "",
"value": ""
},
"label": "search",
"name": "search",
"options": [
{
"selected": true,
"text": "",
"value": ""
}
],
"query": "",
"type": "textbox"
},
{
"current": {
"text": "",
"value": ""
},
"label": "exclude",
"name": "exclude",
"options": [
{
"selected": true,
"text": "",
"value": ""
}
],
"query": "",
"type": "textbox"
},
{
"current": {
"text": "2000",
"value": "2000"
},
"includeAll": false,
"label": "limit",
"name": "limit",
"options": [
{
"selected": true,
"text": "2000",
"value": "2000"
},
{
"selected": false,
"text": "5000",
"value": "5000"
},
{
"selected": false,
"text": "8000",
"value": "8000"
}
],
"query": "2000,5000,8000",
"type": "custom"
}
]
},
"time": {
"from": "now-6h",
"to": "now"
},
"timepicker": {},
"timezone": "browser",
"title": "GreptimeDB Logs",
"uid": "edx5veo4rd3wge2",
"version": 1
}

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# Overview
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Uptime | `time() - process_start_time_seconds` | `stat` | The start time of GreptimeDB. | `prometheus` | `s` | `__auto` |
| Version | `SELECT pkg_version FROM information_schema.build_info` | `stat` | GreptimeDB version. | `mysql` | -- | -- |
| Total Ingestion Rate | `sum(rate(greptime_table_operator_ingest_rows[$__rate_interval]))` | `stat` | Total ingestion rate. | `prometheus` | `rowsps` | `__auto` |
| Total Storage Size | `select SUM(disk_size) from information_schema.region_statistics;` | `stat` | Total number of data file size. | `mysql` | `decbytes` | -- |
| Total Rows | `select SUM(region_rows) from information_schema.region_statistics;` | `stat` | Total number of data rows in the cluster. Calculated by sum of rows from each region. | `mysql` | `sishort` | -- |
| Deployment | `SELECT count(*) as datanode FROM information_schema.cluster_info WHERE peer_type = 'DATANODE';`<br/>`SELECT count(*) as frontend FROM information_schema.cluster_info WHERE peer_type = 'FRONTEND';`<br/>`SELECT count(*) as metasrv FROM information_schema.cluster_info WHERE peer_type = 'METASRV';`<br/>`SELECT count(*) as flownode FROM information_schema.cluster_info WHERE peer_type = 'FLOWNODE';` | `stat` | The deployment topology of GreptimeDB. | `mysql` | -- | -- |
| Database Resources | `SELECT COUNT(*) as databases FROM information_schema.schemata WHERE schema_name NOT IN ('greptime_private', 'information_schema')`<br/>`SELECT COUNT(*) as tables FROM information_schema.tables WHERE table_schema != 'information_schema'`<br/>`SELECT COUNT(region_id) as regions FROM information_schema.region_peers`<br/>`SELECT COUNT(*) as flows FROM information_schema.flows` | `stat` | The number of the key resources in GreptimeDB. | `mysql` | -- | -- |
| Data Size | `SELECT SUM(memtable_size) * 0.42825 as WAL FROM information_schema.region_statistics;`<br/>`SELECT SUM(index_size) as index FROM information_schema.region_statistics;`<br/>`SELECT SUM(manifest_size) as manifest FROM information_schema.region_statistics;` | `stat` | The data size of wal/index/manifest in the GreptimeDB. | `mysql` | `decbytes` | -- |
# Ingestion
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Total Ingestion Rate | `sum(rate(greptime_table_operator_ingest_rows{instance=~"$frontend"}[$__rate_interval]))` | `timeseries` | Total ingestion rate.<br/><br/>Here we listed 3 primary protocols:<br/><br/>- Prometheus remote write<br/>- Greptime's gRPC API (when using our ingest SDK)<br/>- Log ingestion http API<br/> | `prometheus` | `rowsps` | `ingestion` |
| Ingestion Rate by Type | `sum(rate(greptime_servers_http_logs_ingestion_counter[$__rate_interval]))`<br/>`sum(rate(greptime_servers_prometheus_remote_write_samples[$__rate_interval]))` | `timeseries` | Total ingestion rate.<br/><br/>Here we listed 3 primary protocols:<br/><br/>- Prometheus remote write<br/>- Greptime's gRPC API (when using our ingest SDK)<br/>- Log ingestion http API<br/> | `prometheus` | `rowsps` | `http-logs` |
# Queries
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Total Query Rate | `sum (rate(greptime_servers_mysql_query_elapsed_count{instance=~"$frontend"}[$__rate_interval]))`<br/>`sum (rate(greptime_servers_postgres_query_elapsed_count{instance=~"$frontend"}[$__rate_interval]))`<br/>`sum (rate(greptime_servers_http_promql_elapsed_counte{instance=~"$frontend"}[$__rate_interval]))` | `timeseries` | Total rate of query API calls by protocol. This metric is collected from frontends.<br/><br/>Here we listed 3 main protocols:<br/>- MySQL<br/>- Postgres<br/>- Prometheus API<br/><br/>Note that there are some other minor query APIs like /sql are not included | `prometheus` | `reqps` | `mysql` |
# Resources
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Datanode Memory per Instance | `sum(process_resident_memory_bytes{instance=~"$datanode"}) by (instance, pod)`<br/>`max(greptime_memory_limit_in_bytes{instance=~"$datanode"})` | `timeseries` | Current memory usage by instance | `prometheus` | `bytes` | `[{{instance}}]-[{{ pod }}]` |
| Datanode CPU Usage per Instance | `sum(rate(process_cpu_seconds_total{instance=~"$datanode"}[$__rate_interval]) * 1000) by (instance, pod)`<br/>`max(greptime_cpu_limit_in_millicores{instance=~"$datanode"})` | `timeseries` | Current cpu usage by instance | `prometheus` | `none` | `[{{ instance }}]-[{{ pod }}]` |
| Frontend Memory per Instance | `sum(process_resident_memory_bytes{instance=~"$frontend"}) by (instance, pod)`<br/>`max(greptime_memory_limit_in_bytes{instance=~"$frontend"})` | `timeseries` | Current memory usage by instance | `prometheus` | `bytes` | `[{{ instance }}]-[{{ pod }}]` |
| Frontend CPU Usage per Instance | `sum(rate(process_cpu_seconds_total{instance=~"$frontend"}[$__rate_interval]) * 1000) by (instance, pod)`<br/>`max(greptime_cpu_limit_in_millicores{instance=~"$frontend"})` | `timeseries` | Current cpu usage by instance | `prometheus` | `none` | `[{{ instance }}]-[{{ pod }}]-cpu` |
| Metasrv Memory per Instance | `sum(process_resident_memory_bytes{instance=~"$metasrv"}) by (instance, pod)`<br/>`max(greptime_memory_limit_in_bytes{instance=~"$metasrv"})` | `timeseries` | Current memory usage by instance | `prometheus` | `bytes` | `[{{ instance }}]-[{{ pod }}]-resident` |
| Metasrv CPU Usage per Instance | `sum(rate(process_cpu_seconds_total{instance=~"$metasrv"}[$__rate_interval]) * 1000) by (instance, pod)`<br/>`max(greptime_cpu_limit_in_millicores{instance=~"$metasrv"})` | `timeseries` | Current cpu usage by instance | `prometheus` | `none` | `[{{ instance }}]-[{{ pod }}]` |
| Flownode Memory per Instance | `sum(process_resident_memory_bytes{instance=~"$flownode"}) by (instance, pod)`<br/>`max(greptime_memory_limit_in_bytes{instance=~"$flownode"})` | `timeseries` | Current memory usage by instance | `prometheus` | `bytes` | `[{{ instance }}]-[{{ pod }}]` |
| Flownode CPU Usage per Instance | `sum(rate(process_cpu_seconds_total{instance=~"$flownode"}[$__rate_interval]) * 1000) by (instance, pod)`<br/>`max(greptime_cpu_limit_in_millicores{instance=~"$flownode"})` | `timeseries` | Current cpu usage by instance | `prometheus` | `none` | `[{{ instance }}]-[{{ pod }}]` |
# Frontend Requests
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| HTTP QPS per Instance | `sum by(instance, pod, path, method, code) (rate(greptime_servers_http_requests_elapsed_count{instance=~"$frontend",path!~"/health\|/metrics"}[$__rate_interval]))` | `timeseries` | HTTP QPS per Instance. | `prometheus` | `reqps` | `[{{instance}}]-[{{pod}}]-[{{path}}]-[{{method}}]-[{{code}}]` |
| HTTP P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, path, method, code) (rate(greptime_servers_http_requests_elapsed_bucket{instance=~"$frontend",path!~"/health\|/metrics"}[$__rate_interval])))` | `timeseries` | HTTP P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{path}}]-[{{method}}]-[{{code}}]-p99` |
| gRPC QPS per Instance | `sum by(instance, pod, path, code) (rate(greptime_servers_grpc_requests_elapsed_count{instance=~"$frontend"}[$__rate_interval]))` | `timeseries` | gRPC QPS per Instance. | `prometheus` | `reqps` | `[{{instance}}]-[{{pod}}]-[{{path}}]-[{{code}}]` |
| gRPC P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, path, code) (rate(greptime_servers_grpc_requests_elapsed_bucket{instance=~"$frontend"}[$__rate_interval])))` | `timeseries` | gRPC P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{path}}]-[{{method}}]-[{{code}}]-p99` |
| MySQL QPS per Instance | `sum by(pod, instance)(rate(greptime_servers_mysql_query_elapsed_count{instance=~"$frontend"}[$__rate_interval]))` | `timeseries` | MySQL QPS per Instance. | `prometheus` | `reqps` | `[{{instance}}]-[{{pod}}]` |
| MySQL P99 per Instance | `histogram_quantile(0.99, sum by(pod, instance, le) (rate(greptime_servers_mysql_query_elapsed_bucket{instance=~"$frontend"}[$__rate_interval])))` | `timeseries` | MySQL P99 per Instance. | `prometheus` | `s` | `[{{ instance }}]-[{{ pod }}]-p99` |
| PostgreSQL QPS per Instance | `sum by(pod, instance)(rate(greptime_servers_postgres_query_elapsed_count{instance=~"$frontend"}[$__rate_interval]))` | `timeseries` | PostgreSQL QPS per Instance. | `prometheus` | `reqps` | `[{{instance}}]-[{{pod}}]` |
| PostgreSQL P99 per Instance | `histogram_quantile(0.99, sum by(pod,instance,le) (rate(greptime_servers_postgres_query_elapsed_bucket{instance=~"$frontend"}[$__rate_interval])))` | `timeseries` | PostgreSQL P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-p99` |
# Frontend to Datanode
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Ingest Rows per Instance | `sum by(instance, pod)(rate(greptime_table_operator_ingest_rows{instance=~"$frontend"}[$__rate_interval]))` | `timeseries` | Ingestion rate by row as in each frontend | `prometheus` | `rowsps` | `[{{instance}}]-[{{pod}}]` |
| Region Call QPS per Instance | `sum by(instance, pod, request_type) (rate(greptime_grpc_region_request_count{instance=~"$frontend"}[$__rate_interval]))` | `timeseries` | Region Call QPS per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]-[{{request_type}}]` |
| Region Call P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, request_type) (rate(greptime_grpc_region_request_bucket{instance=~"$frontend"}[$__rate_interval])))` | `timeseries` | Region Call P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{request_type}}]` |
| Frontend Handle Bulk Insert Elapsed Time | `sum by(instance, pod, stage) (rate(greptime_table_operator_handle_bulk_insert_sum[$__rate_interval]))/sum by(instance, pod, stage) (rate(greptime_table_operator_handle_bulk_insert_count[$__rate_interval]))`<br/>`histogram_quantile(0.99, sum by(instance, pod, stage, le) (rate(greptime_table_operator_handle_bulk_insert_bucket[$__rate_interval])))` | `timeseries` | Per-stage time for frontend to handle bulk insert requests | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{stage}}]-AVG` |
# Mito Engine
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Request OPS per Instance | `sum by(instance, pod, type) (rate(greptime_mito_handle_request_elapsed_count{instance=~"$datanode"}[$__rate_interval]))` | `timeseries` | Request QPS per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]-[{{type}}]` |
| Request P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, type) (rate(greptime_mito_handle_request_elapsed_bucket{instance=~"$datanode"}[$__rate_interval])))` | `timeseries` | Request P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{type}}]` |
| Write Buffer per Instance | `greptime_mito_write_buffer_bytes{instance=~"$datanode"}` | `timeseries` | Write Buffer per Instance. | `prometheus` | `decbytes` | `[{{instance}}]-[{{pod}}]` |
| Write Rows per Instance | `sum by (instance, pod) (rate(greptime_mito_write_rows_total{instance=~"$datanode"}[$__rate_interval]))` | `timeseries` | Ingestion size by row counts. | `prometheus` | `rowsps` | `[{{instance}}]-[{{pod}}]` |
| Flush OPS per Instance | `sum by(instance, pod, reason) (rate(greptime_mito_flush_requests_total{instance=~"$datanode"}[$__rate_interval]))` | `timeseries` | Flush QPS per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]-[{{reason}}]` |
| Write Stall per Instance | `sum by(instance, pod) (greptime_mito_write_stall_total{instance=~"$datanode"})` | `timeseries` | Write Stall per Instance. | `prometheus` | -- | `[{{instance}}]-[{{pod}}]` |
| Read Stage OPS per Instance | `sum by(instance, pod) (rate(greptime_mito_read_stage_elapsed_count{instance=~"$datanode", stage="total"}[$__rate_interval]))` | `timeseries` | Read Stage OPS per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]` |
| Read Stage P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, stage) (rate(greptime_mito_read_stage_elapsed_bucket{instance=~"$datanode"}[$__rate_interval])))` | `timeseries` | Read Stage P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{stage}}]` |
| Write Stage P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, stage) (rate(greptime_mito_write_stage_elapsed_bucket{instance=~"$datanode"}[$__rate_interval])))` | `timeseries` | Write Stage P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{stage}}]` |
| Compaction OPS per Instance | `sum by(instance, pod) (rate(greptime_mito_compaction_total_elapsed_count{instance=~"$datanode"}[$__rate_interval]))` | `timeseries` | Compaction OPS per Instance. | `prometheus` | `ops` | `[{{ instance }}]-[{{pod}}]` |
| Compaction Elapsed Time per Instance by Stage | `histogram_quantile(0.99, sum by(instance, pod, le, stage) (rate(greptime_mito_compaction_stage_elapsed_bucket{instance=~"$datanode"}[$__rate_interval])))`<br/>`sum by(instance, pod, stage) (rate(greptime_mito_compaction_stage_elapsed_sum{instance=~"$datanode"}[$__rate_interval]))/sum by(instance, pod, stage) (rate(greptime_mito_compaction_stage_elapsed_count{instance=~"$datanode"}[$__rate_interval]))` | `timeseries` | Compaction latency by stage | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{stage}}]-p99` |
| Compaction P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le,stage) (rate(greptime_mito_compaction_total_elapsed_bucket{instance=~"$datanode"}[$__rate_interval])))` | `timeseries` | Compaction P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{stage}}]-compaction` |
| WAL write size | `histogram_quantile(0.95, sum by(le,instance, pod) (rate(raft_engine_write_size_bucket[$__rate_interval])))`<br/>`histogram_quantile(0.99, sum by(le,instance,pod) (rate(raft_engine_write_size_bucket[$__rate_interval])))`<br/>`sum by (instance, pod)(rate(raft_engine_write_size_sum[$__rate_interval]))` | `timeseries` | Write-ahead logs write size as bytes. This chart includes stats of p95 and p99 size by instance, total WAL write rate. | `prometheus` | `bytes` | `[{{instance}}]-[{{pod}}]-req-size-p95` |
| Cached Bytes per Instance | `greptime_mito_cache_bytes{instance=~"$datanode"}` | `timeseries` | Cached Bytes per Instance. | `prometheus` | `decbytes` | `[{{instance}}]-[{{pod}}]-[{{type}}]` |
| Inflight Compaction | `greptime_mito_inflight_compaction_count` | `timeseries` | Ongoing compaction task count | `prometheus` | `none` | `[{{instance}}]-[{{pod}}]` |
| WAL sync duration seconds | `histogram_quantile(0.99, sum by(le, type, node, instance, pod) (rate(raft_engine_sync_log_duration_seconds_bucket[$__rate_interval])))` | `timeseries` | Raft engine (local disk) log store sync latency, p99 | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-p99` |
| Log Store op duration seconds | `histogram_quantile(0.99, sum by(le,logstore,optype,instance, pod) (rate(greptime_logstore_op_elapsed_bucket[$__rate_interval])))` | `timeseries` | Write-ahead log operations latency at p99 | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{logstore}}]-[{{optype}}]-p99` |
| Inflight Flush | `greptime_mito_inflight_flush_count` | `timeseries` | Ongoing flush task count | `prometheus` | `none` | `[{{instance}}]-[{{pod}}]` |
| Compaction Input/Output Bytes | `sum by(instance, pod) (greptime_mito_compaction_input_bytes)`<br/>`sum by(instance, pod) (greptime_mito_compaction_output_bytes)` | `timeseries` | Compaction oinput output bytes | `prometheus` | `bytes` | `[{{instance}}]-[{{pod}}]-input` |
| Region Worker Handle Bulk Insert Requests | `histogram_quantile(0.95, sum by(le,instance, stage, pod) (rate(greptime_region_worker_handle_write_bucket[$__rate_interval])))`<br/>`sum by(instance, stage, pod) (rate(greptime_region_worker_handle_write_sum[$__rate_interval]))/sum by(instance, stage, pod) (rate(greptime_region_worker_handle_write_count[$__rate_interval]))` | `timeseries` | Per-stage elapsed time for region worker to handle bulk insert region requests. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{stage}}]-P95` |
| Active Series and Field Builders Count | `sum by(instance, pod) (greptime_mito_memtable_active_series_count)`<br/>`sum by(instance, pod) (greptime_mito_memtable_field_builder_count)` | `timeseries` | Compaction oinput output bytes | `prometheus` | `none` | `[{{instance}}]-[{{pod}}]-series` |
| Region Worker Convert Requests | `histogram_quantile(0.95, sum by(le, instance, stage, pod) (rate(greptime_datanode_convert_region_request_bucket[$__rate_interval])))`<br/>`sum by(le,instance, stage, pod) (rate(greptime_datanode_convert_region_request_sum[$__rate_interval]))/sum by(le,instance, stage, pod) (rate(greptime_datanode_convert_region_request_count[$__rate_interval]))` | `timeseries` | Per-stage elapsed time for region worker to decode requests. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{stage}}]-P95` |
| Cache Miss | `sum by (instance,pod, type) (rate(greptime_mito_cache_miss{instance=~"$datanode"}[$__rate_interval]))` | `timeseries` | The local cache miss of the datanode. | `prometheus` | -- | `[{{instance}}]-[{{pod}}]-[{{type}}]` |
# OpenDAL
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| QPS per Instance | `sum by(instance, pod, scheme, operation) (rate(opendal_operation_duration_seconds_count{instance=~"$datanode"}[$__rate_interval]))` | `timeseries` | QPS per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]` |
| Read QPS per Instance | `sum by(instance, pod, scheme, operation) (rate(opendal_operation_duration_seconds_count{instance=~"$datanode", operation=~"read\|Reader::read"}[$__rate_interval]))` | `timeseries` | Read QPS per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]` |
| Read P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, scheme, operation) (rate(opendal_operation_duration_seconds_bucket{instance=~"$datanode",operation=~"read\|Reader::read"}[$__rate_interval])))` | `timeseries` | Read P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]` |
| Write QPS per Instance | `sum by(instance, pod, scheme, operation) (rate(opendal_operation_duration_seconds_count{instance=~"$datanode", operation=~"write\|Writer::write\|Writer::close"}[$__rate_interval]))` | `timeseries` | Write QPS per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]` |
| Write P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, scheme, operation) (rate(opendal_operation_duration_seconds_bucket{instance=~"$datanode", operation =~ "Writer::write\|Writer::close\|write"}[$__rate_interval])))` | `timeseries` | Write P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]` |
| List QPS per Instance | `sum by(instance, pod, scheme) (rate(opendal_operation_duration_seconds_count{instance=~"$datanode", operation="list"}[$__rate_interval]))` | `timeseries` | List QPS per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]` |
| List P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, scheme) (rate(opendal_operation_duration_seconds_bucket{instance=~"$datanode", operation="list"}[$__rate_interval])))` | `timeseries` | List P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]` |
| Other Requests per Instance | `sum by(instance, pod, scheme, operation) (rate(opendal_operation_duration_seconds_count{instance=~"$datanode",operation!~"read\|write\|list\|stat"}[$__rate_interval]))` | `timeseries` | Other Requests per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]` |
| Other Request P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, scheme, operation) (rate(opendal_operation_duration_seconds_bucket{instance=~"$datanode", operation!~"read\|write\|list\|Writer::write\|Writer::close\|Reader::read"}[$__rate_interval])))` | `timeseries` | Other Request P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]` |
| Opendal traffic | `sum by(instance, pod, scheme, operation) (rate(opendal_operation_bytes_sum{instance=~"$datanode"}[$__rate_interval]))` | `timeseries` | Total traffic as in bytes by instance and operation | `prometheus` | `decbytes` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]` |
| OpenDAL errors per Instance | `sum by(instance, pod, scheme, operation, error) (rate(opendal_operation_errors_total{instance=~"$datanode", error!="NotFound"}[$__rate_interval]))` | `timeseries` | OpenDAL error counts per Instance. | `prometheus` | -- | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]-[{{error}}]` |
# Remote WAL
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Triggered region flush total | `meta_triggered_region_flush_total` | `timeseries` | Triggered region flush total | `prometheus` | `none` | `{{pod}}-{{topic_name}}` |
| Triggered region checkpoint total | `meta_triggered_region_checkpoint_total` | `timeseries` | Triggered region checkpoint total | `prometheus` | `none` | `{{pod}}-{{topic_name}}` |
| Topic estimated replay size | `meta_topic_estimated_replay_size` | `timeseries` | Topic estimated max replay size | `prometheus` | `bytes` | `{{pod}}-{{topic_name}}` |
| Kafka logstore's bytes traffic | `rate(greptime_logstore_kafka_client_bytes_total[$__rate_interval])` | `timeseries` | Kafka logstore's bytes traffic | `prometheus` | `bytes` | `{{pod}}-{{logstore}}` |
# Metasrv
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Region migration datanode | `greptime_meta_region_migration_stat{datanode_type="src"}`<br/>`greptime_meta_region_migration_stat{datanode_type="desc"}` | `status-history` | Counter of region migration by source and destination | `prometheus` | -- | `from-datanode-{{datanode_id}}` |
| Region migration error | `greptime_meta_region_migration_error` | `timeseries` | Counter of region migration error | `prometheus` | `none` | `{{pod}}-{{state}}-{{error_type}}` |
| Datanode load | `greptime_datanode_load` | `timeseries` | Gauge of load information of each datanode, collected via heartbeat between datanode and metasrv. This information is for metasrv to schedule workloads. | `prometheus` | `binBps` | `Datanode-{{datanode_id}}-writeload` |
| Rate of SQL Executions (RDS) | `rate(greptime_meta_rds_pg_sql_execute_elapsed_ms_count[$__rate_interval])` | `timeseries` | Displays the rate of SQL executions processed by the Meta service using the RDS backend. | `prometheus` | `none` | `{{pod}} {{op}} {{type}} {{result}} ` |
| SQL Execution Latency (RDS) | `histogram_quantile(0.90, sum by(pod, op, type, result, le) (rate(greptime_meta_rds_pg_sql_execute_elapsed_ms_bucket[$__rate_interval])))` | `timeseries` | Measures the response time of SQL executions via the RDS backend. | `prometheus` | `ms` | `{{pod}} {{op}} {{type}} {{result}} p90` |
| Handler Execution Latency | `histogram_quantile(0.90, sum by(pod, le, name) (
rate(greptime_meta_handler_execute_bucket[$__rate_interval])
))` | `timeseries` | Shows latency of Meta handlers by pod and handler name, useful for monitoring handler performance and detecting latency spikes.<br/> | `prometheus` | `s` | `{{pod}} {{name}} p90` |
| Heartbeat Packet Size | `histogram_quantile(0.9, sum by(pod, le) (greptime_meta_heartbeat_stat_memory_size_bucket))` | `timeseries` | Shows p90 heartbeat message sizes, helping track network usage and identify anomalies in heartbeat payload.<br/> | `prometheus` | `bytes` | `{{pod}}` |
| Meta Heartbeat Receive Rate | `rate(greptime_meta_heartbeat_rate[$__rate_interval])` | `timeseries` | Gauge of load information of each datanode, collected via heartbeat between datanode and metasrv. This information is for metasrv to schedule workloads. | `prometheus` | `s` | `{{pod}}` |
| Meta KV Ops Latency | `histogram_quantile(0.99, sum by(pod, le, op, target) (greptime_meta_kv_request_elapsed_bucket))` | `timeseries` | Gauge of load information of each datanode, collected via heartbeat between datanode and metasrv. This information is for metasrv to schedule workloads. | `prometheus` | `s` | `{{pod}}-{{op}} p99` |
| Rate of meta KV Ops | `rate(greptime_meta_kv_request_elapsed_count[$__rate_interval])` | `timeseries` | Gauge of load information of each datanode, collected via heartbeat between datanode and metasrv. This information is for metasrv to schedule workloads. | `prometheus` | `none` | `{{pod}}-{{op}} p99` |
| DDL Latency | `histogram_quantile(0.9, sum by(le, pod, step) (greptime_meta_procedure_create_tables_bucket))`<br/>`histogram_quantile(0.9, sum by(le, pod, step) (greptime_meta_procedure_create_table))`<br/>`histogram_quantile(0.9, sum by(le, pod, step) (greptime_meta_procedure_create_view))`<br/>`histogram_quantile(0.9, sum by(le, pod, step) (greptime_meta_procedure_create_flow))`<br/>`histogram_quantile(0.9, sum by(le, pod, step) (greptime_meta_procedure_drop_table))`<br/>`histogram_quantile(0.9, sum by(le, pod, step) (greptime_meta_procedure_alter_table))` | `timeseries` | Gauge of load information of each datanode, collected via heartbeat between datanode and metasrv. This information is for metasrv to schedule workloads. | `prometheus` | `s` | `CreateLogicalTables-{{step}} p90` |
| Reconciliation stats | `greptime_meta_reconciliation_stats` | `timeseries` | Reconciliation stats | `prometheus` | `s` | `{{pod}}-{{table_type}}-{{type}}` |
| Reconciliation steps | `histogram_quantile(0.9, greptime_meta_reconciliation_procedure_bucket)` | `timeseries` | Elapsed of Reconciliation steps | `prometheus` | `s` | `{{procedure_name}}-{{step}}-P90` |
# Flownode
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Flow Ingest / Output Rate | `sum by(instance, pod, direction) (rate(greptime_flow_processed_rows[$__rate_interval]))` | `timeseries` | Flow Ingest / Output Rate. | `prometheus` | -- | `[{{pod}}]-[{{instance}}]-[{{direction}}]` |
| Flow Ingest Latency | `histogram_quantile(0.95, sum(rate(greptime_flow_insert_elapsed_bucket[$__rate_interval])) by (le, instance, pod))`<br/>`histogram_quantile(0.99, sum(rate(greptime_flow_insert_elapsed_bucket[$__rate_interval])) by (le, instance, pod))` | `timeseries` | Flow Ingest Latency. | `prometheus` | -- | `[{{instance}}]-[{{pod}}]-p95` |
| Flow Operation Latency | `histogram_quantile(0.95, sum(rate(greptime_flow_processing_time_bucket[$__rate_interval])) by (le,instance,pod,type))`<br/>`histogram_quantile(0.99, sum(rate(greptime_flow_processing_time_bucket[$__rate_interval])) by (le,instance,pod,type))` | `timeseries` | Flow Operation Latency. | `prometheus` | -- | `[{{instance}}]-[{{pod}}]-[{{type}}]-p95` |
| Flow Buffer Size per Instance | `greptime_flow_input_buf_size` | `timeseries` | Flow Buffer Size per Instance. | `prometheus` | -- | `[{{instance}}]-[{{pod}]` |
| Flow Processing Error per Instance | `sum by(instance,pod,code) (rate(greptime_flow_errors[$__rate_interval]))` | `timeseries` | Flow Processing Error per Instance. | `prometheus` | -- | `[{{instance}}]-[{{pod}}]-[{{code}}]` |

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# Overview
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Uptime | `time() - process_start_time_seconds` | `stat` | The start time of GreptimeDB. | `prometheus` | `s` | `__auto` |
| Version | `SELECT pkg_version FROM information_schema.build_info` | `stat` | GreptimeDB version. | `mysql` | -- | -- |
| Total Ingestion Rate | `sum(rate(greptime_table_operator_ingest_rows[$__rate_interval]))` | `stat` | Total ingestion rate. | `prometheus` | `rowsps` | `__auto` |
| Total Storage Size | `select SUM(disk_size) from information_schema.region_statistics;` | `stat` | Total number of data file size. | `mysql` | `decbytes` | -- |
| Total Rows | `select SUM(region_rows) from information_schema.region_statistics;` | `stat` | Total number of data rows in the cluster. Calculated by sum of rows from each region. | `mysql` | `sishort` | -- |
| Deployment | `SELECT count(*) as datanode FROM information_schema.cluster_info WHERE peer_type = 'DATANODE';`<br/>`SELECT count(*) as frontend FROM information_schema.cluster_info WHERE peer_type = 'FRONTEND';`<br/>`SELECT count(*) as metasrv FROM information_schema.cluster_info WHERE peer_type = 'METASRV';`<br/>`SELECT count(*) as flownode FROM information_schema.cluster_info WHERE peer_type = 'FLOWNODE';` | `stat` | The deployment topology of GreptimeDB. | `mysql` | -- | -- |
| Database Resources | `SELECT COUNT(*) as databases FROM information_schema.schemata WHERE schema_name NOT IN ('greptime_private', 'information_schema')`<br/>`SELECT COUNT(*) as tables FROM information_schema.tables WHERE table_schema != 'information_schema'`<br/>`SELECT COUNT(region_id) as regions FROM information_schema.region_peers`<br/>`SELECT COUNT(*) as flows FROM information_schema.flows` | `stat` | The number of the key resources in GreptimeDB. | `mysql` | -- | -- |
| Data Size | `SELECT SUM(memtable_size) * 0.42825 as WAL FROM information_schema.region_statistics;`<br/>`SELECT SUM(index_size) as index FROM information_schema.region_statistics;`<br/>`SELECT SUM(manifest_size) as manifest FROM information_schema.region_statistics;` | `stat` | The data size of wal/index/manifest in the GreptimeDB. | `mysql` | `decbytes` | -- |
# Ingestion
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Total Ingestion Rate | `sum(rate(greptime_table_operator_ingest_rows{}[$__rate_interval]))` | `timeseries` | Total ingestion rate.<br/><br/>Here we listed 3 primary protocols:<br/><br/>- Prometheus remote write<br/>- Greptime's gRPC API (when using our ingest SDK)<br/>- Log ingestion http API<br/> | `prometheus` | `rowsps` | `ingestion` |
| Ingestion Rate by Type | `sum(rate(greptime_servers_http_logs_ingestion_counter[$__rate_interval]))`<br/>`sum(rate(greptime_servers_prometheus_remote_write_samples[$__rate_interval]))` | `timeseries` | Total ingestion rate.<br/><br/>Here we listed 3 primary protocols:<br/><br/>- Prometheus remote write<br/>- Greptime's gRPC API (when using our ingest SDK)<br/>- Log ingestion http API<br/> | `prometheus` | `rowsps` | `http-logs` |
# Queries
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Total Query Rate | `sum (rate(greptime_servers_mysql_query_elapsed_count{}[$__rate_interval]))`<br/>`sum (rate(greptime_servers_postgres_query_elapsed_count{}[$__rate_interval]))`<br/>`sum (rate(greptime_servers_http_promql_elapsed_counte{}[$__rate_interval]))` | `timeseries` | Total rate of query API calls by protocol. This metric is collected from frontends.<br/><br/>Here we listed 3 main protocols:<br/>- MySQL<br/>- Postgres<br/>- Prometheus API<br/><br/>Note that there are some other minor query APIs like /sql are not included | `prometheus` | `reqps` | `mysql` |
# Resources
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Datanode Memory per Instance | `sum(process_resident_memory_bytes{}) by (instance, pod)`<br/>`max(greptime_memory_limit_in_bytes{})` | `timeseries` | Current memory usage by instance | `prometheus` | `bytes` | `[{{instance}}]-[{{ pod }}]` |
| Datanode CPU Usage per Instance | `sum(rate(process_cpu_seconds_total{}[$__rate_interval]) * 1000) by (instance, pod)`<br/>`max(greptime_cpu_limit_in_millicores{})` | `timeseries` | Current cpu usage by instance | `prometheus` | `none` | `[{{ instance }}]-[{{ pod }}]` |
| Frontend Memory per Instance | `sum(process_resident_memory_bytes{}) by (instance, pod)`<br/>`max(greptime_memory_limit_in_bytes{})` | `timeseries` | Current memory usage by instance | `prometheus` | `bytes` | `[{{ instance }}]-[{{ pod }}]` |
| Frontend CPU Usage per Instance | `sum(rate(process_cpu_seconds_total{}[$__rate_interval]) * 1000) by (instance, pod)`<br/>`max(greptime_cpu_limit_in_millicores{})` | `timeseries` | Current cpu usage by instance | `prometheus` | `none` | `[{{ instance }}]-[{{ pod }}]-cpu` |
| Metasrv Memory per Instance | `sum(process_resident_memory_bytes{}) by (instance, pod)`<br/>`max(greptime_memory_limit_in_bytes{})` | `timeseries` | Current memory usage by instance | `prometheus` | `bytes` | `[{{ instance }}]-[{{ pod }}]-resident` |
| Metasrv CPU Usage per Instance | `sum(rate(process_cpu_seconds_total{}[$__rate_interval]) * 1000) by (instance, pod)`<br/>`max(greptime_cpu_limit_in_millicores{})` | `timeseries` | Current cpu usage by instance | `prometheus` | `none` | `[{{ instance }}]-[{{ pod }}]` |
| Flownode Memory per Instance | `sum(process_resident_memory_bytes{}) by (instance, pod)`<br/>`max(greptime_memory_limit_in_bytes{})` | `timeseries` | Current memory usage by instance | `prometheus` | `bytes` | `[{{ instance }}]-[{{ pod }}]` |
| Flownode CPU Usage per Instance | `sum(rate(process_cpu_seconds_total{}[$__rate_interval]) * 1000) by (instance, pod)`<br/>`max(greptime_cpu_limit_in_millicores{})` | `timeseries` | Current cpu usage by instance | `prometheus` | `none` | `[{{ instance }}]-[{{ pod }}]` |
# Frontend Requests
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| HTTP QPS per Instance | `sum by(instance, pod, path, method, code) (rate(greptime_servers_http_requests_elapsed_count{path!~"/health\|/metrics"}[$__rate_interval]))` | `timeseries` | HTTP QPS per Instance. | `prometheus` | `reqps` | `[{{instance}}]-[{{pod}}]-[{{path}}]-[{{method}}]-[{{code}}]` |
| HTTP P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, path, method, code) (rate(greptime_servers_http_requests_elapsed_bucket{path!~"/health\|/metrics"}[$__rate_interval])))` | `timeseries` | HTTP P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{path}}]-[{{method}}]-[{{code}}]-p99` |
| gRPC QPS per Instance | `sum by(instance, pod, path, code) (rate(greptime_servers_grpc_requests_elapsed_count{}[$__rate_interval]))` | `timeseries` | gRPC QPS per Instance. | `prometheus` | `reqps` | `[{{instance}}]-[{{pod}}]-[{{path}}]-[{{code}}]` |
| gRPC P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, path, code) (rate(greptime_servers_grpc_requests_elapsed_bucket{}[$__rate_interval])))` | `timeseries` | gRPC P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{path}}]-[{{method}}]-[{{code}}]-p99` |
| MySQL QPS per Instance | `sum by(pod, instance)(rate(greptime_servers_mysql_query_elapsed_count{}[$__rate_interval]))` | `timeseries` | MySQL QPS per Instance. | `prometheus` | `reqps` | `[{{instance}}]-[{{pod}}]` |
| MySQL P99 per Instance | `histogram_quantile(0.99, sum by(pod, instance, le) (rate(greptime_servers_mysql_query_elapsed_bucket{}[$__rate_interval])))` | `timeseries` | MySQL P99 per Instance. | `prometheus` | `s` | `[{{ instance }}]-[{{ pod }}]-p99` |
| PostgreSQL QPS per Instance | `sum by(pod, instance)(rate(greptime_servers_postgres_query_elapsed_count{}[$__rate_interval]))` | `timeseries` | PostgreSQL QPS per Instance. | `prometheus` | `reqps` | `[{{instance}}]-[{{pod}}]` |
| PostgreSQL P99 per Instance | `histogram_quantile(0.99, sum by(pod,instance,le) (rate(greptime_servers_postgres_query_elapsed_bucket{}[$__rate_interval])))` | `timeseries` | PostgreSQL P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-p99` |
# Frontend to Datanode
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Ingest Rows per Instance | `sum by(instance, pod)(rate(greptime_table_operator_ingest_rows{}[$__rate_interval]))` | `timeseries` | Ingestion rate by row as in each frontend | `prometheus` | `rowsps` | `[{{instance}}]-[{{pod}}]` |
| Region Call QPS per Instance | `sum by(instance, pod, request_type) (rate(greptime_grpc_region_request_count{}[$__rate_interval]))` | `timeseries` | Region Call QPS per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]-[{{request_type}}]` |
| Region Call P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, request_type) (rate(greptime_grpc_region_request_bucket{}[$__rate_interval])))` | `timeseries` | Region Call P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{request_type}}]` |
| Frontend Handle Bulk Insert Elapsed Time | `sum by(instance, pod, stage) (rate(greptime_table_operator_handle_bulk_insert_sum[$__rate_interval]))/sum by(instance, pod, stage) (rate(greptime_table_operator_handle_bulk_insert_count[$__rate_interval]))`<br/>`histogram_quantile(0.99, sum by(instance, pod, stage, le) (rate(greptime_table_operator_handle_bulk_insert_bucket[$__rate_interval])))` | `timeseries` | Per-stage time for frontend to handle bulk insert requests | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{stage}}]-AVG` |
# Mito Engine
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Request OPS per Instance | `sum by(instance, pod, type) (rate(greptime_mito_handle_request_elapsed_count{}[$__rate_interval]))` | `timeseries` | Request QPS per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]-[{{type}}]` |
| Request P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, type) (rate(greptime_mito_handle_request_elapsed_bucket{}[$__rate_interval])))` | `timeseries` | Request P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{type}}]` |
| Write Buffer per Instance | `greptime_mito_write_buffer_bytes{}` | `timeseries` | Write Buffer per Instance. | `prometheus` | `decbytes` | `[{{instance}}]-[{{pod}}]` |
| Write Rows per Instance | `sum by (instance, pod) (rate(greptime_mito_write_rows_total{}[$__rate_interval]))` | `timeseries` | Ingestion size by row counts. | `prometheus` | `rowsps` | `[{{instance}}]-[{{pod}}]` |
| Flush OPS per Instance | `sum by(instance, pod, reason) (rate(greptime_mito_flush_requests_total{}[$__rate_interval]))` | `timeseries` | Flush QPS per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]-[{{reason}}]` |
| Write Stall per Instance | `sum by(instance, pod) (greptime_mito_write_stall_total{})` | `timeseries` | Write Stall per Instance. | `prometheus` | -- | `[{{instance}}]-[{{pod}}]` |
| Read Stage OPS per Instance | `sum by(instance, pod) (rate(greptime_mito_read_stage_elapsed_count{ stage="total"}[$__rate_interval]))` | `timeseries` | Read Stage OPS per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]` |
| Read Stage P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, stage) (rate(greptime_mito_read_stage_elapsed_bucket{}[$__rate_interval])))` | `timeseries` | Read Stage P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{stage}}]` |
| Write Stage P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, stage) (rate(greptime_mito_write_stage_elapsed_bucket{}[$__rate_interval])))` | `timeseries` | Write Stage P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{stage}}]` |
| Compaction OPS per Instance | `sum by(instance, pod) (rate(greptime_mito_compaction_total_elapsed_count{}[$__rate_interval]))` | `timeseries` | Compaction OPS per Instance. | `prometheus` | `ops` | `[{{ instance }}]-[{{pod}}]` |
| Compaction Elapsed Time per Instance by Stage | `histogram_quantile(0.99, sum by(instance, pod, le, stage) (rate(greptime_mito_compaction_stage_elapsed_bucket{}[$__rate_interval])))`<br/>`sum by(instance, pod, stage) (rate(greptime_mito_compaction_stage_elapsed_sum{}[$__rate_interval]))/sum by(instance, pod, stage) (rate(greptime_mito_compaction_stage_elapsed_count{}[$__rate_interval]))` | `timeseries` | Compaction latency by stage | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{stage}}]-p99` |
| Compaction P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le,stage) (rate(greptime_mito_compaction_total_elapsed_bucket{}[$__rate_interval])))` | `timeseries` | Compaction P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{stage}}]-compaction` |
| WAL write size | `histogram_quantile(0.95, sum by(le,instance, pod) (rate(raft_engine_write_size_bucket[$__rate_interval])))`<br/>`histogram_quantile(0.99, sum by(le,instance,pod) (rate(raft_engine_write_size_bucket[$__rate_interval])))`<br/>`sum by (instance, pod)(rate(raft_engine_write_size_sum[$__rate_interval]))` | `timeseries` | Write-ahead logs write size as bytes. This chart includes stats of p95 and p99 size by instance, total WAL write rate. | `prometheus` | `bytes` | `[{{instance}}]-[{{pod}}]-req-size-p95` |
| Cached Bytes per Instance | `greptime_mito_cache_bytes{}` | `timeseries` | Cached Bytes per Instance. | `prometheus` | `decbytes` | `[{{instance}}]-[{{pod}}]-[{{type}}]` |
| Inflight Compaction | `greptime_mito_inflight_compaction_count` | `timeseries` | Ongoing compaction task count | `prometheus` | `none` | `[{{instance}}]-[{{pod}}]` |
| WAL sync duration seconds | `histogram_quantile(0.99, sum by(le, type, node, instance, pod) (rate(raft_engine_sync_log_duration_seconds_bucket[$__rate_interval])))` | `timeseries` | Raft engine (local disk) log store sync latency, p99 | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-p99` |
| Log Store op duration seconds | `histogram_quantile(0.99, sum by(le,logstore,optype,instance, pod) (rate(greptime_logstore_op_elapsed_bucket[$__rate_interval])))` | `timeseries` | Write-ahead log operations latency at p99 | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{logstore}}]-[{{optype}}]-p99` |
| Inflight Flush | `greptime_mito_inflight_flush_count` | `timeseries` | Ongoing flush task count | `prometheus` | `none` | `[{{instance}}]-[{{pod}}]` |
| Compaction Input/Output Bytes | `sum by(instance, pod) (greptime_mito_compaction_input_bytes)`<br/>`sum by(instance, pod) (greptime_mito_compaction_output_bytes)` | `timeseries` | Compaction oinput output bytes | `prometheus` | `bytes` | `[{{instance}}]-[{{pod}}]-input` |
| Region Worker Handle Bulk Insert Requests | `histogram_quantile(0.95, sum by(le,instance, stage, pod) (rate(greptime_region_worker_handle_write_bucket[$__rate_interval])))`<br/>`sum by(instance, stage, pod) (rate(greptime_region_worker_handle_write_sum[$__rate_interval]))/sum by(instance, stage, pod) (rate(greptime_region_worker_handle_write_count[$__rate_interval]))` | `timeseries` | Per-stage elapsed time for region worker to handle bulk insert region requests. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{stage}}]-P95` |
| Active Series and Field Builders Count | `sum by(instance, pod) (greptime_mito_memtable_active_series_count)`<br/>`sum by(instance, pod) (greptime_mito_memtable_field_builder_count)` | `timeseries` | Compaction oinput output bytes | `prometheus` | `none` | `[{{instance}}]-[{{pod}}]-series` |
| Region Worker Convert Requests | `histogram_quantile(0.95, sum by(le, instance, stage, pod) (rate(greptime_datanode_convert_region_request_bucket[$__rate_interval])))`<br/>`sum by(le,instance, stage, pod) (rate(greptime_datanode_convert_region_request_sum[$__rate_interval]))/sum by(le,instance, stage, pod) (rate(greptime_datanode_convert_region_request_count[$__rate_interval]))` | `timeseries` | Per-stage elapsed time for region worker to decode requests. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{stage}}]-P95` |
| Cache Miss | `sum by (instance,pod, type) (rate(greptime_mito_cache_miss{}[$__rate_interval]))` | `timeseries` | The local cache miss of the datanode. | `prometheus` | -- | `[{{instance}}]-[{{pod}}]-[{{type}}]` |
# OpenDAL
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| QPS per Instance | `sum by(instance, pod, scheme, operation) (rate(opendal_operation_duration_seconds_count{}[$__rate_interval]))` | `timeseries` | QPS per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]` |
| Read QPS per Instance | `sum by(instance, pod, scheme, operation) (rate(opendal_operation_duration_seconds_count{ operation=~"read\|Reader::read"}[$__rate_interval]))` | `timeseries` | Read QPS per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]` |
| Read P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, scheme, operation) (rate(opendal_operation_duration_seconds_bucket{operation=~"read\|Reader::read"}[$__rate_interval])))` | `timeseries` | Read P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]` |
| Write QPS per Instance | `sum by(instance, pod, scheme, operation) (rate(opendal_operation_duration_seconds_count{ operation=~"write\|Writer::write\|Writer::close"}[$__rate_interval]))` | `timeseries` | Write QPS per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]` |
| Write P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, scheme, operation) (rate(opendal_operation_duration_seconds_bucket{ operation =~ "Writer::write\|Writer::close\|write"}[$__rate_interval])))` | `timeseries` | Write P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]` |
| List QPS per Instance | `sum by(instance, pod, scheme) (rate(opendal_operation_duration_seconds_count{ operation="list"}[$__rate_interval]))` | `timeseries` | List QPS per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]` |
| List P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, scheme) (rate(opendal_operation_duration_seconds_bucket{ operation="list"}[$__rate_interval])))` | `timeseries` | List P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]` |
| Other Requests per Instance | `sum by(instance, pod, scheme, operation) (rate(opendal_operation_duration_seconds_count{operation!~"read\|write\|list\|stat"}[$__rate_interval]))` | `timeseries` | Other Requests per Instance. | `prometheus` | `ops` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]` |
| Other Request P99 per Instance | `histogram_quantile(0.99, sum by(instance, pod, le, scheme, operation) (rate(opendal_operation_duration_seconds_bucket{ operation!~"read\|write\|list\|Writer::write\|Writer::close\|Reader::read"}[$__rate_interval])))` | `timeseries` | Other Request P99 per Instance. | `prometheus` | `s` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]` |
| Opendal traffic | `sum by(instance, pod, scheme, operation) (rate(opendal_operation_bytes_sum{}[$__rate_interval]))` | `timeseries` | Total traffic as in bytes by instance and operation | `prometheus` | `decbytes` | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]` |
| OpenDAL errors per Instance | `sum by(instance, pod, scheme, operation, error) (rate(opendal_operation_errors_total{ error!="NotFound"}[$__rate_interval]))` | `timeseries` | OpenDAL error counts per Instance. | `prometheus` | -- | `[{{instance}}]-[{{pod}}]-[{{scheme}}]-[{{operation}}]-[{{error}}]` |
# Remote WAL
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Triggered region flush total | `meta_triggered_region_flush_total` | `timeseries` | Triggered region flush total | `prometheus` | `none` | `{{pod}}-{{topic_name}}` |
| Triggered region checkpoint total | `meta_triggered_region_checkpoint_total` | `timeseries` | Triggered region checkpoint total | `prometheus` | `none` | `{{pod}}-{{topic_name}}` |
| Topic estimated replay size | `meta_topic_estimated_replay_size` | `timeseries` | Topic estimated max replay size | `prometheus` | `bytes` | `{{pod}}-{{topic_name}}` |
| Kafka logstore's bytes traffic | `rate(greptime_logstore_kafka_client_bytes_total[$__rate_interval])` | `timeseries` | Kafka logstore's bytes traffic | `prometheus` | `bytes` | `{{pod}}-{{logstore}}` |
# Metasrv
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Region migration datanode | `greptime_meta_region_migration_stat{datanode_type="src"}`<br/>`greptime_meta_region_migration_stat{datanode_type="desc"}` | `status-history` | Counter of region migration by source and destination | `prometheus` | -- | `from-datanode-{{datanode_id}}` |
| Region migration error | `greptime_meta_region_migration_error` | `timeseries` | Counter of region migration error | `prometheus` | `none` | `{{pod}}-{{state}}-{{error_type}}` |
| Datanode load | `greptime_datanode_load` | `timeseries` | Gauge of load information of each datanode, collected via heartbeat between datanode and metasrv. This information is for metasrv to schedule workloads. | `prometheus` | `binBps` | `Datanode-{{datanode_id}}-writeload` |
| Rate of SQL Executions (RDS) | `rate(greptime_meta_rds_pg_sql_execute_elapsed_ms_count[$__rate_interval])` | `timeseries` | Displays the rate of SQL executions processed by the Meta service using the RDS backend. | `prometheus` | `none` | `{{pod}} {{op}} {{type}} {{result}} ` |
| SQL Execution Latency (RDS) | `histogram_quantile(0.90, sum by(pod, op, type, result, le) (rate(greptime_meta_rds_pg_sql_execute_elapsed_ms_bucket[$__rate_interval])))` | `timeseries` | Measures the response time of SQL executions via the RDS backend. | `prometheus` | `ms` | `{{pod}} {{op}} {{type}} {{result}} p90` |
| Handler Execution Latency | `histogram_quantile(0.90, sum by(pod, le, name) (
rate(greptime_meta_handler_execute_bucket[$__rate_interval])
))` | `timeseries` | Shows latency of Meta handlers by pod and handler name, useful for monitoring handler performance and detecting latency spikes.<br/> | `prometheus` | `s` | `{{pod}} {{name}} p90` |
| Heartbeat Packet Size | `histogram_quantile(0.9, sum by(pod, le) (greptime_meta_heartbeat_stat_memory_size_bucket))` | `timeseries` | Shows p90 heartbeat message sizes, helping track network usage and identify anomalies in heartbeat payload.<br/> | `prometheus` | `bytes` | `{{pod}}` |
| Meta Heartbeat Receive Rate | `rate(greptime_meta_heartbeat_rate[$__rate_interval])` | `timeseries` | Gauge of load information of each datanode, collected via heartbeat between datanode and metasrv. This information is for metasrv to schedule workloads. | `prometheus` | `s` | `{{pod}}` |
| Meta KV Ops Latency | `histogram_quantile(0.99, sum by(pod, le, op, target) (greptime_meta_kv_request_elapsed_bucket))` | `timeseries` | Gauge of load information of each datanode, collected via heartbeat between datanode and metasrv. This information is for metasrv to schedule workloads. | `prometheus` | `s` | `{{pod}}-{{op}} p99` |
| Rate of meta KV Ops | `rate(greptime_meta_kv_request_elapsed_count[$__rate_interval])` | `timeseries` | Gauge of load information of each datanode, collected via heartbeat between datanode and metasrv. This information is for metasrv to schedule workloads. | `prometheus` | `none` | `{{pod}}-{{op}} p99` |
| DDL Latency | `histogram_quantile(0.9, sum by(le, pod, step) (greptime_meta_procedure_create_tables_bucket))`<br/>`histogram_quantile(0.9, sum by(le, pod, step) (greptime_meta_procedure_create_table))`<br/>`histogram_quantile(0.9, sum by(le, pod, step) (greptime_meta_procedure_create_view))`<br/>`histogram_quantile(0.9, sum by(le, pod, step) (greptime_meta_procedure_create_flow))`<br/>`histogram_quantile(0.9, sum by(le, pod, step) (greptime_meta_procedure_drop_table))`<br/>`histogram_quantile(0.9, sum by(le, pod, step) (greptime_meta_procedure_alter_table))` | `timeseries` | Gauge of load information of each datanode, collected via heartbeat between datanode and metasrv. This information is for metasrv to schedule workloads. | `prometheus` | `s` | `CreateLogicalTables-{{step}} p90` |
| Reconciliation stats | `greptime_meta_reconciliation_stats` | `timeseries` | Reconciliation stats | `prometheus` | `s` | `{{pod}}-{{table_type}}-{{type}}` |
| Reconciliation steps | `histogram_quantile(0.9, greptime_meta_reconciliation_procedure_bucket)` | `timeseries` | Elapsed of Reconciliation steps | `prometheus` | `s` | `{{procedure_name}}-{{step}}-P90` |
# Flownode
| Title | Query | Type | Description | Datasource | Unit | Legend Format |
| --- | --- | --- | --- | --- | --- | --- |
| Flow Ingest / Output Rate | `sum by(instance, pod, direction) (rate(greptime_flow_processed_rows[$__rate_interval]))` | `timeseries` | Flow Ingest / Output Rate. | `prometheus` | -- | `[{{pod}}]-[{{instance}}]-[{{direction}}]` |
| Flow Ingest Latency | `histogram_quantile(0.95, sum(rate(greptime_flow_insert_elapsed_bucket[$__rate_interval])) by (le, instance, pod))`<br/>`histogram_quantile(0.99, sum(rate(greptime_flow_insert_elapsed_bucket[$__rate_interval])) by (le, instance, pod))` | `timeseries` | Flow Ingest Latency. | `prometheus` | -- | `[{{instance}}]-[{{pod}}]-p95` |
| Flow Operation Latency | `histogram_quantile(0.95, sum(rate(greptime_flow_processing_time_bucket[$__rate_interval])) by (le,instance,pod,type))`<br/>`histogram_quantile(0.99, sum(rate(greptime_flow_processing_time_bucket[$__rate_interval])) by (le,instance,pod,type))` | `timeseries` | Flow Operation Latency. | `prometheus` | -- | `[{{instance}}]-[{{pod}}]-[{{type}}]-p95` |
| Flow Buffer Size per Instance | `greptime_flow_input_buf_size` | `timeseries` | Flow Buffer Size per Instance. | `prometheus` | -- | `[{{instance}}]-[{{pod}]` |
| Flow Processing Error per Instance | `sum by(instance,pod,code) (rate(greptime_flow_errors[$__rate_interval]))` | `timeseries` | Flow Processing Error per Instance. | `prometheus` | -- | `[{{instance}}]-[{{pod}}]-[{{code}}]` |

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grafana/greptimedb.json Normal file

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@@ -1,54 +0,0 @@
#!/usr/bin/env bash
DASHBOARD_DIR=${1:-grafana/dashboards/metrics}
check_dashboard_description() {
for dashboard in $(find $DASHBOARD_DIR -name "*.json"); do
echo "Checking $dashboard description"
# Use jq to check for panels with empty or missing descriptions
invalid_panels=$(cat $dashboard | jq -r '
.panels[]
| select((.type == "stats" or .type == "timeseries") and (.description == "" or .description == null))')
# Check if any invalid panels were found
if [[ -n "$invalid_panels" ]]; then
echo "Error: The following panels have empty or missing descriptions:"
echo "$invalid_panels"
exit 1
else
echo "All panels with type 'stats' or 'timeseries' have valid descriptions."
fi
done
}
check_dashboards_generation() {
./grafana/scripts/gen-dashboards.sh
if [[ -n "$(git diff --name-only grafana/dashboards/metrics)" ]]; then
echo "Error: The dashboards are not generated correctly. You should execute the 'make dashboards' command."
exit 1
fi
}
check_datasource() {
for dashboard in $(find $DASHBOARD_DIR -name "*.json"); do
echo "Checking $dashboard datasource"
jq -r '.panels[] | select(.type != "row") | .targets[] | [.datasource.type, .datasource.uid] | @tsv' $dashboard | while read -r type uid; do
# if the datasource is prometheus, check if the uid is ${metrics}
if [[ "$type" == "prometheus" && "$uid" != "\${metrics}" ]]; then
echo "Error: The datasource uid of $dashboard is not valid. It should be \${metrics}, got $uid"
exit 1
fi
# if the datasource is mysql, check if the uid is ${information_schema}
if [[ "$type" == "mysql" && "$uid" != "\${information_schema}" ]]; then
echo "Error: The datasource uid of $dashboard is not valid. It should be \${information_schema}, got $uid"
exit 1
fi
done
done
}
check_dashboards_generation
check_dashboard_description
check_datasource

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@@ -1,25 +0,0 @@
#! /usr/bin/env bash
CLUSTER_DASHBOARD_DIR=${1:-grafana/dashboards/metrics/cluster}
STANDALONE_DASHBOARD_DIR=${2:-grafana/dashboards/metrics/standalone}
DAC_IMAGE=ghcr.io/zyy17/dac:20250423-522bd35
remove_instance_filters() {
# Remove the instance filters for the standalone dashboards.
sed -E 's/instance=~\\"(\$datanode|\$frontend|\$metasrv|\$flownode)\\",?//g' "$CLUSTER_DASHBOARD_DIR/dashboard.json" > "$STANDALONE_DASHBOARD_DIR/dashboard.json"
}
generate_intermediate_dashboards_and_docs() {
docker run -v ${PWD}:/greptimedb --rm ${DAC_IMAGE} \
-i /greptimedb/$CLUSTER_DASHBOARD_DIR/dashboard.json \
-o /greptimedb/$CLUSTER_DASHBOARD_DIR/dashboard.yaml \
-m /greptimedb/$CLUSTER_DASHBOARD_DIR/dashboard.md
docker run -v ${PWD}:/greptimedb --rm ${DAC_IMAGE} \
-i /greptimedb/$STANDALONE_DASHBOARD_DIR/dashboard.json \
-o /greptimedb/$STANDALONE_DASHBOARD_DIR/dashboard.yaml \
-m /greptimedb/$STANDALONE_DASHBOARD_DIR/dashboard.md
}
remove_instance_filters
generate_intermediate_dashboards_and_docs

11
grafana/summary.sh Executable file
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@@ -0,0 +1,11 @@
#!/usr/bin/env bash
BASEDIR=$(dirname "$0")
echo '| Title | Description | Expressions |
|---|---|---|'
cat $BASEDIR/greptimedb-cluster.json | jq -r '
.panels |
map(select(.type == "stat" or .type == "timeseries")) |
.[] | "| \(.title) | \(.description | gsub("\n"; "<br>")) | \(.targets | map(.expr // .rawSql | "`\(.|gsub("\n"; "<br>"))`") | join("<br>")) |"
'

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