Arturo Iacobelli
03/17/2026, 3:09 PMRocky
03/17/2026, 3:09 PMINSERT or LOAD) are internally routed to the Leader FE to ensure metadata consistency, read queries are executed on whichever FE the client is currently connected to.
3. No Internal Load Balancer: The Leader FE does not act as a proxy or load balancer for read queries received on its own port.
How to distribute the load to Follower FEs:
To utilize your Followers for read operations, you need to distribute the client connections across all FE nodes using one of the following methods:
* External Load Balancer: Deploy a load balancer (such as ProxySQL, Nginx, HAProxy, or a cloud-native LB) in front of your FE nodes. Configure it to distribute connections among the Leader and Followers (and Observers, if any).
* JDBC Load Balancing: If you are using a Java application, you can use the MySQL JDBC driver's built-in load balancing by providing a comma-separated list of FE IPs in the connection string:
sql
jdbc:mysql:<loadbalance://fe_ip1:9030,fe_ip2:9030,fe_ip3:9030/db_name>
* Client-Side Distribution: Manually configure different application instances to point to different FE IP addresses.
Summary: To see CPU utilization on your Followers, you must ensure that some of your client connections are physically landing on those Follower nodes. Check your SHOW FRONTENDS; output to ensure all nodes are Alive: true and then balance your connection strings.
References
• administration/management/resource_management/Load_balance.md
• faq/operation_maintenance_faq.md
• deployment/deploy_manually.md
• administration/management/FE_configuration.md
• sql-reference/System_variable.md
• faq/Deploy_faq.mdArturo Iacobelli
03/17/2026, 3:43 PMRocky
03/17/2026, 3:43 PMstarrocksFeProxySpec in the StarRocks Helm chart, this component acts as a lightweight Nginx-based proxy. Its primary purpose is to provide a single entry point for MySQL clients and to handle external Stream Load requests by correctly routing traffic between FEs and BEs (especially when BEs are not directly reachable from outside the Kubernetes cluster).
Here are the recommendations for its configuration:
1. Replicas
* Recommendation: At least 2 replicas (3 for production high availability).
* Reason: Since the FE Proxy is the entry point for your traffic, having only one replica creates a single point of failure. If you are using a LoadBalancer service type, it will distribute traffic across these proxy pods.
2. Resource Requests and Limits
Because the FE Proxy is an Nginx-based service, it is significantly more lightweight than the FE or BE nodes. It does not perform heavy computation or data storage.
* CPU:
* Request: 200m to 500m
* Limit: 1 (Nginx can scale well with CPU, but rarely needs more than 1 core unless you have extremely high concurrency).
* Memory:
* Request: 256Mi to 512Mi
* Limit: 512Mi to 1Gi (Memory usage is primarily for connection buffers and is generally very stable).
Example Configuration Snippet
You can add this to your `values.yaml`:
yaml
starrocks:
starrocksFeProxySpec:
enabled: true
replicas: 2
service:
type: LoadBalancer
resources:
requests:
cpu: 200m
memory: 256Mi
limits:
cpu: "1"
memory: 512Mi
Key Considerations:
* Stream Load: If you perform very high-throughput data loading via Stream Load, you may want to increase the CPU limits to handle the SSL termination (if configured) and the high volume of HTTP requests.
* Scaling: If you notice the proxy pods hitting their CPU limits during peak load, you should scale the replicas horizontally rather than just increasing the limits, as this provides better redundancy and leverages Kubernetes' load balancing.
* FE/BE Resources: Note that the actual database nodes (FE/BE) require much higher resources. For a production environment, FEs typically start at 8 cores / 16GB and BEs at 16 cores / 64GB+.
References
• quick_start/helm.md
• deployment/plan_cluster.md
• administration/management/FE_configuration.md
• deployment/environment_configurations.md
• administration/management/BE_configuration.md
• administration/management/resource_management/resource_group.mdArturo Iacobelli
03/17/2026, 3:57 PMRocky
03/17/2026, 3:58 PMfeProxySpec (or starrocksFeProxySpec) keeps getting deleted is a version mismatch between your Helm chart and the StarRocks Operator (or its CRDs).
Here is why this happens and how to fix it:
1. The Cause: Outdated CRDs
The feProxySpec field was introduced in later versions of the StarRocks Operator (typically v1.8.0+). If you are enabling this feature on an existing cluster:
* The Problem: Your Kubernetes cluster likely still has the older version of the Custom Resource Definition (CRD) for StarRocksCluster.
* The Result: When you run helm upgrade with the new proxy configuration, Helm sends the updated spec to Kubernetes. However, because the old CRD schema does not define feProxySpec, the Kubernetes API server treats it as an "unknown field" and automatically strips it out (deletes it) during the save process.
2. How to Fix It
You need to update the StarRocks Operator and, crucially, the CRDs to the latest version.
Step A: Update the CRDs manually
Helm does not automatically update CRDs during a helm upgrade. You must apply them manually from the StarRocks Operator repository:
bash
kubectl apply -f <https://raw.githubusercontent.com/StarRocks/starrocks-kubernetes-operator/main/deploy/starrocks.com_starrocksclusters.yaml>
Step B: Update the StarRocks Operator
Ensure your operator is running a version that supports the proxy (v1.8.1 or higher is recommended).
If you used Helm to install the operator:
bash
helm repo update
helm upgrade <operator-release-name> starrocks/starrocks-operator
Step C: Verify the Helm Value Structure
Ensure you are using the correct key in your values.yaml. For most official Helm charts, the structure should look like this (under the starrocks root):
yaml
starrocks:
starrocksFeProxySpec:
enabled: true
# For external access, use LoadBalancer or NodePort
service:
type: LoadBalancer
Note: Some versions of the chart use starrocksFeProxySpec in values.yaml which maps to feProxySpec in the actual Kubernetes object.
3. Other Potential Issues
* Manual Edits vs. Helm: If you are using kubectl edit to add the field while a Helm release or a GitOps tool (like ArgoCD) is managing the cluster, the tool will automatically revert (delete) your manual changes to match what is defined in the chart's values.yaml. Always update the values.yaml and run helm upgrade.
* Indentation: Kubernetes YAML is sensitive to indentation. Ensure starrocksFeProxySpec is at the same level as starrocksFESpec and starrocksBeSpec.
Summary Checklist
1. Apply the latest CRD using the kubectl apply command mentioned above.
2. Restart the Operator pod to ensure it recognizes the new schema.
3. Re-run your helm upgrade with the proxy enabled in your values.yaml.
References
• quick_start/helm.md
• deployment/sr_operator.md
• administration/management/resource_management/Load_balance.md
• deployment/deploy_manually.mdArturo Iacobelli
03/17/2026, 4:03 PMStarRocksClusterReconciler.feProxyController.feProxyController delete deployment from kubernetes
Rocky
03/17/2026, 4:03 PMStarRocksCluster (SRC) configuration.
When you see the log StarRocksClusterReconciler.feProxyController.feProxyController delete deployment from kubernetes, it means the operator is trying to synchronize the cluster's state with your YAML definition, and it believes the FE Proxy is not requested or is misconfigured.
Here are the most common reasons why this happens:
1. Incorrect Field Name in the Spec
The StarRocks Operator is case-sensitive and expects specific field names. If you are using feProxySpec or feproxyspec, the operator will ignore it and assume no proxy is required, subsequently deleting any existing proxy deployment.
* Correct Field Name: starRocksFeProxySpec
2. Missing enabled: true flag
In many versions of the StarRocks Operator (and especially when using Helm), the FE Proxy must be explicitly enabled within its spec. If the enabled field is missing or set to false, the controller will delete the deployment.
Example of a correct configuration:
yaml
apiVersion: <http://starrocks.com/v1|starrocks.com/v1>
kind: StarRocksCluster
metadata:
name: starrockscluster-sample
spec:
# ... other specs (fe, be, etc.)
starRocksFeProxySpec: # Ensure this prefix and casing are correct
enabled: true # This is often required
replicas: 1
image: starrocks/fe-proxy:latest # Use an appropriate image
service:
type: LoadBalancer # Common use case for Stream Load
3. Manual Deployment Conflict
If you created the FE Proxy deployment manually (e.g., via kubectl create deployment) using names or labels that overlap with what the operator manages, the feProxyController may see it as an "unmanaged" or "extra" resource and delete it to maintain the state defined in your StarRocksCluster custom resource.
* Solution: Always define the FE Proxy within the StarRocksCluster resource rather than as a standalone deployment.
4. FE Component Dependency
The FE Proxy controller typically waits for the FE nodes to be ready. If your FE nodes are crashing or in a Pending state, the operator might occasionally cycle the dependent components like the FE Proxy. Check the status of your FE pods:
bash
kubectl get pods -l "<http://starrocks.com/cluster-name=<your-cluster-name>,starrocks.com/component=fe|starrocks.com/cluster-name=<your-cluster-name>,starrocks.com/component=fe>"
Next Steps:
* Check your StarRocksCluster YAML for the starRocksFeProxySpec field.
* Verify that enabled: true is present.
* Run kubectl describe starrockscluster <name> to see if there are any validation errors or events explaining why the sub-component is being removed.
If you can share the starRocksFeProxySpec section of your YAML, I can help you spot any syntax issues!
References
• quick_start/helm.md
• administration/management/FE_configuration.md
• administration/management/resource_management/Load_balance.mdArturo Iacobelli
03/17/2026, 4:26 PMstarrocksFeProxySpec:
# specify the FE proxy deployment or not.
enabled: true
replicas: 1
imagePullPolicy: IfNotPresent
# default nginx:1.24.0
image:
repository: "starrocks/fe-proxy"
tag: "latest"
resources:
requests:
cpu: 1
memory: 2Gi
limits:
cpu: 1
memory: 2Gi
# set the resolver for nginx server, default kube-dns.kube-system.svc.cluster.local
resolver: ""
service:
# the FE proxy service type, only supported ClusterIP, NodePort, LoadBalancer
# default ClusterIP
type: ClusterIP
# the loadBalancerIP for static ip config when the type=LoadBalancer and loadbalancerIp is not empty.
loadbalancerIP: ""
# add annotations for external FE proxy service.
annotations: {}
# Add labels for external FE proxy service. The operator may add its own default labels.
labels: {}
# Config the service port for FE proxy service.
# To assign a specific port or nodePort to a service, you should specify them by the corresponding name or
# containerPort in the service configuration. If both containerPort and name are specified, containerPort takes precedence.
# For FE proxy, the port name can be http-port, and its default container port is 8080.
ports: []
# e.g., specify a dedicated node port for FE proxy service by containerPort.
# - nodePort: 30080 # The range of valid ports is 30000-32767
# containerPort: 8080 # The port on the container to expose.
# Specify the source IP ranges for the load balancer when the type=LoadBalancer.
loadBalancerSourceRanges: []
# - 10.0.0.0/8
# imagePullSecrets allows you to use secrets for pulling images for your pods.
imagePullSecrets: []
# - name: "image-pull-secret"
# If specified, the pod's nodeSelector,displayName="Map of nodeSelectors to match when scheduling pods on nodes"
# Ref: <https://kubernetes.io/docs/concepts/scheduling-eviction/assign-pod-node/#nodeselector>
nodeSelector:
NodeGroupType: "star-rocks-c9xl"
# <http://kubernetes.io/arch|kubernetes.io/arch>: amd64
# <http://kubernetes.io/os|kubernetes.io/os>: linux
# affinity for FE proxy pod scheduling.
affinity: {}
# nodeAffinity:
# requiredDuringSchedulingIgnoredDuringExecution:
# nodeSelectorTerms:
# - matchFields:
# - key: metadata.name
# operator: In
# values:
# - target-host-name
# podAntiAffinity:
# requiredDuringSchedulingIgnoredDuringExecution:
# - labelSelector:
# matchExpressions:
# - key: <http://app.kubernetes.io/component|app.kubernetes.io/component>
# operator: In
# values:
# - fe-proxy
# topologyKey: "<http://kubernetes.io/hostname|kubernetes.io/hostname>"
# Node tolerations for FE proxy pod scheduling to nodes with taints
# Ref: <https://kubernetes.io/docs/concepts/configuration/assign-pod-node/>
tolerations: []
# - key: "key"
# operator: "Equal|Exists"
# value: "value"
# effect: "NoSchedule|PreferNoSchedule|NoExecute(1.6 only)"
# Please upgrade the CRD with v1.8.7 released version if you want to use the following configuration.
# including: livenessProbeFailureSeconds, readinessProbeFailureSeconds
# LivenessProbeFailureSeconds defines the total failure seconds of liveness Probe.
# the default value is 15 seconds
# You can set it to "0" to disable the probe.
livenessProbeFailureSeconds:
# ReadinessProbeFailureSeconds defines the total failure seconds of a readiness Probe.
# the default value is 15 seconds
# You can set it to "0" to disable the probe.
readinessProbeFailureSeconds:
# Note: will create emptyDir volume for FE proxy, PVC is not supported.
emptyDirs: []
# e.g., mount an emptyDir volume to /tmp
# - name: tmp-data
# mountPath: /tmp
# the pod labels for user select or classify pods.
podLabels: {}Rocky
03/17/2026, 4:26 PMstarrocksFeProxySpec configuration. There are a few items that might cause issues or lead to unexpected behavior in your Kubernetes deployment.
Here are the main issues I spotted:
1. Service Ports are Empty (ports: [])
This is the most critical issue. In your YAML, you have:
yaml
service:
type: ClusterIP
ports: []
If the ports list is empty, the Kubernetes Service will not expose any ports. The FE Proxy (which is usually an Nginx-based proxy) typically listens on port 8080. You should explicitly define this port so that it can receive traffic.
2. Image Tag is set to latest
Using tag: "latest" combined with imagePullPolicy: IfNotPresent is generally discouraged in production.
* Issue: Kubernetes might not pull a newer version of the image if a "latest" image already exists on the node.
* Recommendation: Use a specific version tag (e.g., v1.8.7) to ensure consistency across your cluster.
3. Missing Probe Values
You have defined the keys for probes but left the values empty:
yaml
livenessProbeFailureSeconds:
readinessProbeFailureSeconds:
In YAML, leaving a value blank often assigns it as null. This may cause the Operator to fail validation or use unexpected defaults. If you want the default of 15 seconds, it’s better to either set them to 15 or remove the lines entirely.
4. Resolver is Empty
The FE Proxy uses Nginx, which needs a DNS resolver to find the FE and BE services.
* Issue: You've set resolver: "".
* Recommendation: If your cluster uses the standard Kubernetes DNS, set this to kube-dns.kube-system.svc.cluster.local or simply remove the line if the Operator provides a sane default.
5. Single Replica
You have replicas: 1. Since the FE Proxy is the entry point for tasks like Stream Load (when using the proxy for redirection), having only one replica creates a single point of failure. Consider increasing this to at least 2 for high availability.
──────────
Recommended Configuration Example
Here is a revised version of your spec with these fixes applied:
yaml
starrocksFeProxySpec:
enabled: true
replicas: 2 # Increased for HA
imagePullPolicy: IfNotPresent
image:
repository: "starrocks/fe-proxy"
tag: "v1.8.7" # Use a specific version instead of 'latest'
resources:
requests:
cpu: 1
memory: 2Gi
limits:
cpu: 1
memory: 2Gi
resolver: "kube-dns.kube-system.svc.cluster.local" # Explicitly set the resolver
service:
type: ClusterIP
ports:
- name: http-port
port: 8080
targetPort: 8080 # The default container port for the proxy
nodeSelector:
NodeGroupType: "star-rocks-c9xl"
livenessProbeFailureSeconds: 15
readinessProbeFailureSeconds: 15
If you are using this proxy specifically to enable Stream Load from outside the cluster, remember that you may need to change the service.type to LoadBalancer or NodePort depending on your network setup!
References
• deployment/environment_configurations.md
• administration/management/FE_configuration.md
• administration/stargo.md
• quick_start/helm.mdArturo Iacobelli
03/17/2026, 4:41 PMRocky
03/17/2026, 4:42 PMstarrocksFeProxySpec (often referred to as the FE Proxy) is primarily designed to facilitate Stream Load operations from outside the Kubernetes cluster.
Does it proxy the MySQL port?
No, the starrocksFeProxySpec does not proxy the MySQL port (default 9030).
Its main purpose is to solve the "redirection" problem during data loading:
1. When a client sends a Stream Load request to an FE, the FE redirects the client to a BE to upload the data.
2. In a Kubernetes environment, the FE typically returns the internal Pod IP of the BE, which is unreachable from outside the cluster.
3. The FE Proxy (which is an Nginx-based service) handles these HTTP redirections so that external clients can successfully communicate with the BEs.
How to proxy or expose the MySQL port
To access the MySQL port (9030) from outside the cluster, you should configure the service under the starRocksFeSpec instead:
yaml
starrocks:
starrocksFeSpec:
service:
type: LoadBalancer # Or NodePort, depending on your environment
This will create a Kubernetes Service that exposes the standard StarRocks FE ports, including:
• 9030: MySQL query port
• 8030: HTTP UI/API port
• 9020: RPC port
Summary
* starrocksFeProxySpec: Used for HTTP-based data loading (Stream Load) and handling BE redirections.
* starRocksFeSpec.service: Used for standard MySQL client connections and general cluster access.
References
• deployment/environment_configurations.md
• administration/management/resource_management/Load_balance.md
• administration/management/FE_configuration.md
• deployment/deploy_manually.md
• quick_start/helm.md
• deployment/sr_operator.mdArturo Iacobelli
03/20/2026, 3:09 PMRocky
03/20/2026, 3:09 PMCrashLoopBackOff on EKS, it is often due to a quorum failure (the nodes cannot agree on a leader) or metadata corruption.
To stabilize the cluster by running exactly one FE node, follow these steps to update your Helm configuration:
1. Scale Replicas to 1
The first step is to reduce the replica count to 1. In a single-node setup, the FE does not need to form a quorum with other nodes to start.
Update your values.yaml (or the section in your Helm command):
yaml
starrocks:
starrocksFESpec:
replicas: 1
2. Force Metadata Recovery (If it still crashes)
If the pod continues to crash after scaling to 1, the remaining FE might be stuck waiting for the "old" leader or have a corrupted BDBJE state. You can force this single node to become the leader by adding a recovery flag to the configuration.
Depending on your StarRocks version, add one of these to your `values.yaml`:
* For v3.1.10+, v3.2.5+, or v3.3+:
yaml
starrocks:
starrocksFESpec:
replicas: 1
config:
bdbje_reset_election_group: "true"
* For older versions:
yaml
starrocks:
starrocksFESpec:
replicas: 1
config:
metadata_failure_recovery: "true"
Important: Once the FE node is successfully "Running" and you can connect to it via SQL, you should remove these recovery flags from your Helm chart and run helm upgrade again to return to a normal state. Leaving these flags on can prevent future cluster expansions.
3. Apply the Changes
Run the helm upgrade command:
bash
helm upgrade <release_name> starrocks/kube-starrocks -f values.yaml
4. How to Debug the Crash
If it still won't start, check the logs of the crashing pod to see the specific error:
bash
# Get the pod name
kubectl get pods
# Check logs (look for "ERROR" or "FATAL")
kubectl logs <fe-pod-name> -p # -p checks the log of the previous failed instance
Common EKS-specific issues to check:
* OOMKilled: Check kubectl describe pod <fe-pod-name>. If you see "OOMKilled", increase the memory requests/limits in starrocksFESpec.resources.
* Storage: Ensure your PVCs are correctly bound. If you are not using storageSpec (Persistent Volumes), StarRocks uses emptyDir, meaning all metadata is lost when a pod restarts, which can cause bootstrap loops.
* Security Groups/CoreDNS: Ensure the FE pods can resolve each other's hostnames via the headless service.
References
• administration/Meta_recovery.md
• administration/management/FE_configuration.md
• quick_start/helm.mdArturo Iacobelli
03/20/2026, 3:48 PMRocky
03/20/2026, 3:48 PMbash
kubectl logs <fe-pod-name> -n <namespace>
2. Check the internal log files (if the pod stays up long enough to exec in, or by checking the persistent volume):
* `fe/log/fe.log`: Main application log.
* `fe/log/fe.out`: Standard output/error (often contains JVM startup or fatal crash errors).
Common Causes to Look For:
1. priority_networks Mismatch
In Kubernetes, FEs often fail because they bind to the wrong network interface. If priority_networks in your fe.conf (or Helm values) doesn't match the Pod's IP range, the FE might bind to a loopback or internal interface that other nodes cannot reach.
* What to look for: Use IP init local addr, IP: /127.0.0.1 in fe.log.
* Fix: Ensure priority_networks is set correctly (e.g., 10.0.0.0/8 or the specific CIDR of your pod network).
2. JVM Startup Failure
If there is an invalid parameter in your JAVA_OPTS, the FE process will die before it even starts logging to fe.log.
* What to look for: Check fe.out. You might see Unrecognized VM option or Could not create the Java Virtual Machine.
* Fix: Review your memory settings (-Xmx, -Xms) and ensure they fit within your Kubernetes resource limits.
3. Metadata Quorum / BDBJE Issues
If this is an existing cluster that crashed, the FEs might be unable to elect a leader.
* What to look for: com.sleepycat.je.rep.InsufficientReplicasException or DatabaseNotFoundException in fe.log.
* Fix:
* If this is a new install, try clearing the meta directory on your persistent volumes and restarting.
* If this is an existing cluster, check if the IP addresses of the pods changed. If the IPs changed and priority_networks wasn't used, the FEs will look for their old IPs in the metadata and fail to start.
4. Storage Permissions
The FE process needs read/write access to the meta directory.
* What to look for: java.io.IOException: Permission denied in fe.out or fe.log.
Could you share the last 20-30 lines of your fe.log or fe.out? This will let me pinpoint the exact error for you.
References
• administration/management/FE_configuration.md
• administration/Meta_recovery.md
• faq/Deploy_faq.mdArturo Iacobelli
03/25/2026, 5:06 PMRocky
03/25/2026, 5:06 PMsql
SET warehouse = 'analytics_queries';
-- or
USE WAREHOUSE analytics_queries;
* Managing Warehouses:
You can create or drop warehouses to manage your compute resources:
sql
CREATE WAREHOUSE reporting_cluster;
DROP WAREHOUSE old_cluster;
Why Use It?
* Prevent Resource Contention: Stop "noisy neighbor" problems where one team's large query slows down everyone else.
* Cost Management: Only pay for the compute power each specific task requires.
* Simplified Maintenance: Upgrade or restart one warehouse without taking down the entire system.
Multi-warehouse mode is primarily available in StarRocks versions 3.0 and later when deployed in the shared-data architecture.
References
• quick_start/shared-data.md
• administration/management/resource_management/resource_group.md
• introduction/Architecture.mdArturo Iacobelli
03/25/2026, 5:08 PMRocky
03/25/2026, 5:09 PMquery_queue_v2_concurrency_level is 4.
However, its behavior changes depending on the cluster's running mode:
* Shared-nothing mode: The parameter is used directly (default is 4) to calculate total query slots.
* Shared-data (multi-warehouse) mode: The effective concurrency level is automatically scaled down to max(1, query_queue_v2_concurrency_level / 4). Since the default value of the parameter is 4, the effective concurrency level in shared-data/multi-warehouse mode is 1 by default.
Key Details:
* Total Slots Calculation: This parameter controls the number of logical concurrency "layers." Total slots are derived from effective_concurrency_level _ number_of_BEs _ cores_per_BE.
* Purpose: The scaling in multi-warehouse mode ensures that as you add more warehouses (compute clusters) to a shared-data environment, the total concurrent query capacity and resource allocation per slot remain balanced.
* Mutability: This is a mutable FE configuration. You can increase it if you need higher concurrent query capacity, but be aware that very large values can reduce the memory allocated per slot and lead to resource fragmentation.
You can check the current value in your cluster by running:
sql
ADMIN SHOW FRONTEND CONFIG LIKE 'query_queue_v2_concurrency_level';
References
• administration/management/FE_configuration.md
• administration/management/resource_management/query_queues.md
• sql-reference/System_variable.mdArturo Iacobelli
04/08/2026, 9:44 PMRocky
04/08/2026, 9:44 PMtablet_clone_task_timeout_second does not exist in StarRocks.
However, there are two very similar parameters in the FE (Frontend) configuration that control the timeout for tablet cloning tasks. Note that they use the suffix _sec instead of `_second`:
1. tablet_sched_max_clone_task_timeout_sec (Alias: max_clone_task_timeout_sec)
* Default: 7200 (2 hours)
* Description: The maximum timeout duration for cloning a tablet.
2. tablet_sched_min_clone_task_timeout_sec (Alias: min_clone_task_timeout_sec)
* Default: 180 (3 minutes)
* Description: The minimum timeout duration for cloning a tablet.
Other Related Timeout Parameters
While the cloning parameters use _sec, other tablet-related operations do use the _second suffix:
* tablet_create_timeout_second: Timeout for creating a tablet (Default: 10s).
* tablet_delete_timeout_second: Timeout for deleting a tablet (Default: 2s).
* check_consistency_default_timeout_second: Timeout for replica consistency checks (Default: 600s).
If you are trying to adjust the cloning behavior because tasks are timing out, you should look into modifying tablet_sched_max_clone_task_timeout_sec.
References
• administration/management/FE_configuration.md
• administration/management/BE_configuration.md
• faq/operation_maintenance_faq.md