- Overview
- Requirements
- Deployment templates
- Manual: Preparing the installation
- Manual: Preparing the installation
- Step 2: Configuring the OCI-compliant registry for offline installations
- Step 3: Configuring the external objectstore
- Step 4: Configuring High Availability Add-on
- Step 5: Configuring SQL databases
- Step 7: Configuring the DNS
- Step 8: Configuring the disks
- Step 9: Configuring kernel and OS level settings
- Step 10: Configuring the node ports
- Step 11: Applying miscellaneous settings
- Step 12: Validating and installing the required RPM packages
- Cluster_config.json Sample
- General configuration
- Profile configuration
- Certificate configuration
- Database configuration
- External Objectstore configuration
- Pre-signed URL configuration
- ArgoCD configuration
- Kerberos authentication configuration
- External OCI-compliant registry configuration
- Disaster recovery: Active/Passive and Active/Active configurations
- High Availability Add-on configuration
- Orchestrator-specific configuration
- Insights-specific configuration
- Process Mining-specific configuration
- Document Understanding-specific configuration
- Automation Suite Robots-specific configuration
- AI Center-specific configuration
- Monitoring configuration
- Optional: Configuring the proxy server
- Optional: Enabling resilience to zonal failures in a multi-node HA-ready production cluster
- Optional: Passing custom resolv.conf
- Optional: Increasing fault tolerance
- Adding a dedicated agent node with GPU support
- Adding a Dedicated Agent Node for Automation Suite Robots
- Step 15: Configuring the temporary Docker registry for offline installations
- Step 16: Validating the prerequisites for the installation
- Manual: Performing the installation
- Post-installation
- Cluster administration
- Managing products
- Getting Started with the Cluster Administration portal
- Migrating Redis from in-cluster to external High Availability Add-on
- Migrating data between objectstores
- Migrating in-cluster objectstore to external objectstore
- Migrating from in-cluster registry to an external OCI-compliant registry
- Switching to the secondary cluster manually in an Active/Passive setup
- Disaster Recovery: Performing post-installation operations
- Converting an existing installation to multi-site setup
- Guidelines on upgrading an Active/Passive or Active/Active deployment
- Guidelines on backing up and restoring an Active/Passive or Active/Active deployment
- Scaling a single-node (evaluation) deployment to a multi-node (HA) deployment
- Monitoring and alerting
- Migration and upgrade
- Migrating between Automation Suite clusters
- Upgrading Automation Suite
- Downloading the installation packages and getting all the files on the first server node
- Retrieving the latest applied configuration from the cluster
- Updating the cluster configuration
- Configuring the OCI-compliant registry for offline installations
- Executing the upgrade
- Performing post-upgrade operations
- Product-specific configuration
- Best practices and maintenance
- Troubleshooting
- How to troubleshoot services during installation
- How to uninstall the cluster
- How to clean up offline artifacts to improve disk space
- How to clear Redis data
- How to enable Istio logging
- How to manually clean up logs
- How to clean up old logs stored in the sf-logs bucket
- How to disable streaming logs for AI Center
- How to debug failed Automation Suite installations
- How to delete images from the old installer after upgrade
- How to disable TX checksum offloading
- How to manually set the ArgoCD log level to Info
- How to expand AI Center storage
- How to generate the encoded pull_secret_value for external registries
- How to address weak ciphers in TLS 1.2
- How to check the TLS version
- How to work with certificates
- How to schedule Ceph backup and restore data
- How to collect DU usage data with in-cluster objectstore (Ceph)
- How to install RKE2 SELinux on air-gapped environments
- How to clean up old differential backups on an NFS server
- Error in downloading the bundle
- Offline installation fails because of missing binary
- Certificate issue in offline installation
- SQL connection string validation error
- Azure disk not marked as SSD
- Failure after certificate update
- Antivirus causes installation issues
- Automation Suite not working after OS upgrade
- Automation Suite requires backlog_wait_time to be set to 0
- Temporary registry installation fails on RHEL 8.9
- Frequent restart issue in uipath namespace deployments during offline installations
- DNS settings not honored by CoreDNS
- Upgrade fails due to unhealthy Ceph
- RKE2 not getting started due to space issue
- Upgrade fails due to classic objects in the Orchestrator database
- Ceph cluster found in a degraded state after side-by-side upgrade
- Service upgrade fails for Apps
- In-place upgrade timeouts
- Upgrade fails in offline environments
- snapshot-controller-crds pod in CrashLoopBackOff state after upgrade
- Upgrade fails due to overridden Insights PVC sizes
- Setting a timeout interval for the management portals
- Authentication not working after migration
- Kinit: Cannot find KDC for realm <AD Domain> while getting initial credentials
- Kinit: Keytab contains no suitable keys for *** while getting initial credentials
- GSSAPI operation failed due to invalid status code
- Alarm received for failed Kerberos-tgt-update job
- SSPI provider: Server not found in Kerberos database
- Login failed for AD user due to disabled account
- ArgoCD login failed
- Update the underlying directory connections
- Failure to get the sandbox image
- Pods not showing in ArgoCD UI
- Redis probe failure
- RKE2 server fails to start
- Secret not found in UiPath namespace
- ArgoCD goes into progressing state after first installation
- Missing Ceph-rook metrics from monitoring dashboards
- Mismatch in reported errors during diagnostic health checks
- No healthy upstream issue
- Redis startup blocked by antivirus
- Running High Availability with Process Mining
- Process Mining ingestion failed when logged in using Kerberos
- Unable to connect to AutomationSuite_ProcessMining_Warehouse database using a pyodbc format connection string
- Airflow installation fails with sqlalchemy.exc.ArgumentError: Could not parse rfc1738 URL from string ''
- How to add an IP table rule to use SQL Server port 1433
- Automation Suite certificate is not trusted from the server where CData Sync is running
- Running the diagnostics tool
- Using the Automation Suite support bundle
- Exploring Logs
- Exploring summarized telemetry

Automation Suite on Linux installation guide
Automation Suite includes pre-configured Prometheus, Grafana, and Alert manager components by default, offering:
- Ready-to-use dashboards
- Out-of-the-box alert rules
- Integrated logs and metrics for core components
Alternatively, you can export metrics to your own monitoring tools. For details, see External monitoring tools.
For a list of components that you can monitor, see Deployment architecture.
Node failures might lead to a Kubernetes shutdown, which would disrupt Prometheus alerts. To prevent this, we recommend setting up a separate alert on the RKE2 server.
-
You must configure alert receivers to prevent any issues that may lead to downtime.
-
You can refer to dashboards for regular monitoring.
-
You can refer to logs for troubleshooting.
Accessing the monitoring tools
Overview
You can access the Automation Suite monitoring tools individually using the following URLs:
|
Application |
Tool |
URL |
Example |
|---|---|---|---|
|
Metrics |
Prometheus |
|
|
|
Dashboard |
Grafana |
|
|
|
Alert Management |
Alert Manager |
| https://monitoring.automationsuite.mycompany.com/alertmanager |
For details on how to fetch Grafana credentials, refer to the Accessing Grafana dashboard section.
Monitoring tool authentication
To access the monitoring tools for the first time, log in as an admin with the following default credentials:
- Username: admin
- Password: to retrieve the password , run the following command:
kubectl get secrets/dex-static-credential -n uipath -o "jsonpath={.data['password']}" | base64 --decodekubectl get secrets/dex-static-credential -n uipath -o "jsonpath={.data['password']}" | base64 --decode
Dex authentication
To update the default password used for Dex authentication while accessing the monitoring tools, take the following steps.
Dex is a basic authentication method layered over the monitoring tools. Therefore, updating the Dex password does not impact the passwords for the monitoring tools. In this scenario, the passwords for the monitoring tools remain the same as before.
-
Run the following command by replacing
newpasswordwith your new password:password="newpassword" password=$(echo -n $password | base64) kubectl patch secret dex-static-credential -n uipath --type='json' -p="[{'op': 'replace', 'path': '/data/password', 'value': '$password'}]"password="newpassword" password=$(echo -n $password | base64) kubectl patch secret dex-static-credential -n uipath --type='json' -p="[{'op': 'replace', 'path': '/data/password', 'value': '$password'}]" -
Run the following command to update the password:
./bin/uipathctl manifest apply /opt/UiPathAutomationSuite/cluster_config.json --versions versions/helm-charts.json./bin/uipathctl manifest apply /opt/UiPathAutomationSuite/cluster_config.json --versions versions/helm-charts.json
If your organization prefers to use a centralized observability platform (such as Datadog, ELK, New Relic), you can disable
the built-in monitoring components during installation by updating the cluster_config.json configuration file. For details, refer to Optional: Configuring the monitoring solution.
Exporting critical metrics
When you use an external monitoring solution, certain critical platform metrics, such as certificate expiry, must be collected and monitored to maintain platform reliability and security.
To support this, Automation Suite deploys Pushgateway even when built-in monitoring is excluded. Pushgateway pushes important metrics at regular intervals so that external systems can scrape them and generate alerts.
Internal platform jobs collect certificate and license expiry data and send it to Pushgateway. Your external Prometheus instance can then scrape the endpoint and trigger alerts as needed.
The following critical metrics are available through Pushgateway for external monitoring:
| Metric name | Description |
|---|---|
rke2-cert-expiry | Number of days until RKE2 node or server certificates expire. |
tls-cert-expiry | Number of days until TLS certificates in Kubernetes secrets expire. |
redis-license-expiry | Number of days until the Redis Enterprise license expires. |
signing-certificate-expires-30 | Indicates that an identity signing certificate expires in 30 days. |
signing-certificate-expires-7 | Indicates that an identity signing certificate expires in 7 days. |
tls-cert-expiry metric when scraped by Prometheus:
tls_cert_expiry {
certname="ca.crt",
instance="",
job="tls-cert-expiry",
ns="istio-system",
secret="istio-ingressgateway-certs"
} 10tls_cert_expiry {
certname="ca.crt",
instance="",
job="tls-cert-expiry",
ns="istio-system",
secret="istio-ingressgateway-certs"
} 10
ca.crt in namespace istio-system, stored in secret istio-ingressgateway-certs, expires in 10 days.