- 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
- Step 13: Generating cluster_config.json
- 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
- Running uipathctl
- 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 reduce permissions for an NFS backup directory
- 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
- Upgrade failure due to uppercase hostname
- 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
Hardware and software requirements
Terminology
To find out more about the core concepts used in an Automation Suite deployment, see Glossary.
Product selection
The default installation experience includes a choice of two product selections:
-
Complete (All products) - Install the complete list of products available in Automation Suite. For details, see Automation Suite products.
-
Select products - Allows you to select and install only the products you are interested in. Note, however, that the installer takes the cross-product dependencies into consideration. That means that if a product requires the installation of another product, you must install both of them. For details, refer to Automation Suite products.
Note:You can enable additional products later in the same deployment at any point in time, after the initial installation, without having to reinstall. For details, see Managing products.
We recommend validating the hardware requirements based on expected usage and ensuring the deployment has enough capacity before adding additional products. For details, see Capacity planning.
Choose your deployment profile
You can deploy Automation Suite in single-node, lite mode, or multi-node HA-ready production mode. While most of the prerequisites for the profiles are identical, multi-node HA-ready production mode requires additional resources.
Once the deployment is completed, changing the deployment profile is generally limited. However, single-node deployments can be scaled to multi-node high availability (HA) deployments, and lite deployments can be expanded to multi-node HA-ready deployments. Before choosing your deployment profile, refer to Deployment modes and use cases.
Linux and Kubernetes knowledge is required regardless of the deployment profile you choose. If you encounter issues installing and configuring Automation Suite, contact UiPath® Professional Services.
Prerequisites at a glance
| Prerequisite type | Prerequisite |
|---|---|
| Hardware |
To avoid potential installation issues, make sure that all nodes used in the deployment are set to the same time zone. |
| General machine requirements | |
| Requirements specific to the following products:
| |
| Supported RHEL version and ipcalc tool installed on all the Linux machines.For details about RHEL compatibility with previous Automation Suite versions, see RHEL compatibility matrix .
We support new minor versions of RHEL within 90 days of their release. We support SELinux with default policies. * | |
| FIPS 140-2 | |
| Load balancer L4 / Network Load Balancer | |
| NFS server requirement (on-premises or cloud-managed NFS server with NFSv3/NFSv4 version on Linux based)
| |
| Node ports | |
| Software | RPM packages on each machine |
| SQL Server | |
| Objectstore (Azure Blob storage, AWS S3, S3 compatible objectstore) | |
| OCI-compliant registry | |
| DNS | |
| TLS 1.2+ | |
| IPv4 (IPv6 is not supported) | |
| Swap memory must be disabled. | |
|
*For air-gapped installations, the rke2-selinux package is not installed automatically. If you experience SELinux-related issues, you must install the SELinux policy package manually. For details, refer to the How to... Section.
- You need root permission to install and deploy Automation Suite. For more on the specific components that require root access, see Root privileges requirement.
- Cilium requires CAP_SYS_ADMIN permissions to function correctly. Make sure these permissions are granted.
- Having scan agents running on your system may cause installation or runtime failures, due to the changes they make to the IPTables. To avoid this behavior, configure your scan agent so that it does not interfere with the Automation Suite installation.
- UiPath® does not prescribe specific firewall or developer tool configurations as long as the Automation Suite requirements are met. Based on our observations, a limited number of external tools can interfere with the smooth operation of Automation Suite. If such issues arise, contact the relevant vendor for help. For additional guidance, see the Automation Suite responsibility matrix.
Hardware requirements
Before you begin, consider the following:
-
Automation Suite supports Federal Information Processing Standard 140-2 (FIPS 140-2). You can perform a clean installation of Automation Suite on a FIPS 140-2-enabled host. You can also enable FIPS 140-2 on a machine where you previously performed an Automation Suite installation. For details, see Security and compliance.
Note:Insights is currently not supported on FIPS-enabled hosts. Make sure to disable Insights when installing Automation Suite on a FIPS-enabled host.
-
The minimum hardware requirements do not protect the deployment from node failures.
-
The multi-node HA-ready production profile is resilient to only one node failure. This means that you can lose only one server node. This restriction does not apply to agent nodes. You can lose as many agent nodes and still continue to use the cluster without downtime as long as enough overall cluster capacity is available.
-
You can increase the server node tolerance to failure by following the instructions in Advanced installation experience.
The following sections list out the hardware requirements for both the Complete product selection and individual products.
Complete product selection: hardware requirements
The following sections describe the hard requirements for the Complete product selection.
General requirements
| Hardware for all products | Single-node minimum requirement | Multi-node minimum requirements |
|---|---|---|
| Processor per cluster | 32 (v-)CPU/cores | 96 (v-)CPU/cores |
| Minimum processor per node | N/A | 8 (v-)CPU/cores |
| RAM | 64 GB | 192 GB |
| Minimum RAM per node | N/A | 16 GB |
| Cluster disks* | 256 GB SSD Min IOPS: 1100 | 256 GB SSD Min IOPS: 1100 |
| Data disk
| 512 GB SSD Min IOPS: 1100 | 512 GB SSD Min IOPS: 1100 |
| etcd disk
| 16 GB SSD Min IOPS: 240 | 16 GB SSD Min IOPS: 240 |
| UiPath® bundle disk
| 512 GB SSD Min IOPS: 1100 | 512 GB SSD Min IOPS: 1100 |
| Objectstore
| 512 GB SSD Min IOPS: 1100 | 512 GB SSD Min IOPS: 1100 |
| Additional disk space for Ceph data backups
| 512 GB SSD Min IOPS: 1100 | N/A |
| AI Center | 51 GB minimum 105 GB recommended for 1 training pipeline | 51 GB minimum 105 GB recommended for 1 training pipeline |
*The following considerations apply to cluster disk capacity:
- You may need to increase cluster disk capacity based on your AI Center ML skills and training storage requirements.
- If you enable Document Understanding modern projects, the minimum cluster disk capacity is 512 GB.
If you install Automation Suite in single-node evaluation mode, and you do not have a machine with 32 (v-)CPU/cores and 64 GB of RAM, you can bring machines with a minimum of 8 (v-)CPU/cores and 16 GB of RAM. For more details, see Capacity calculator.
If you choose this option, follow the multi-node installation and configuration instructions.
It is recommended to bring external objectstore whenever possible. This helps in scaling the objectstore independently of the cluster, and brings additional stability. We support the following objectstore options:
- Azure storage account
- AWS S3 storage bucket
- S3 compatible storage bucket
Individual products: hardware requirements
For details on the hardware requirements your must meet to install individual products or various product combinations in Automation Suite, use the Automation Suite Install Sizing Calculator.
Additional Automation Suite Robots requirements
In multi-node HA-ready production environments, Automation Suite Robots require an additional agent node. In single-node evaluation environments, an additional Automation Suite Robots node is optional.
The hardware requirements for the Automation Suite Robots node depend on the way you plan to use your resources. In addition to the additional agent node requirements, you also need a minimum of 10 GB of file storage to enable package caching.
The following sections describe the factors that impact the amount of hardware the Automation Suite Robots node requires.
Robot size
The following table describes the required CPU, memory, and storage for all robot sizes.
| Size | CPU | Memory | Storage |
|---|---|---|---|
| Small | 0.5 | 1 GB | 1 GB |
| Standard | 1 | 2 GB | 2 GB |
| Medium | 2 | 4 GB | 4 GB |
| Large | 6 | 10 GB | 10 GB |
Agent node size
The resources of the Automation Suite Robots agent node have an impact on the number of jobs that can be run concurrently. The reason is that the number of CPU cores and the amount of RAM capacity are divided by the CPU/memory requirements of the job.
For example, a node with 16 CPUs and 32 GB of RAM would be able to run any of the following:
- 32 Small jobs
- 16 Standard jobs
- 8 Medium jobs
- 2 Large jobs
Job sizes can be mixed, so at any given moment, the same node could run a combination of jobs, such as the following:
- 10 Small jobs (consuming 5 CPUs and 10 GB of memory)
- 4 Standard jobs (consuming 4 CPUs and 8 GB of memory)
- 3 Medium jobs (consuming 6 CPUs and 12 GB of memory)
Kubernetes resource consumption
Given that the node is part of a Kubernetes cluster, the Kubernetes agent present on the server (kubelet) consumes a small amount of resources. Based on our measurements, the kubelet consumes the following resources:
- 0.6 CPU
- 0.4 GB RAM
A node similar to the one previously described would actually have approximately 15.4 CPUs and 31.6 GB of RAM.
Automatic machine size selection
All your cross-platform processes have the Automation Suite Robots option set to Automatic by default. This setting selects the appropriate machine size for running the process using serverless robots.
When automatically choosing the size, the criteria listed in the below table are evaluated in order. As soon as one criterion is satisfied, the corresponding machine size is chosen and the remaining criteria are not evaluated.
| Order | Criterion | Machine size |
|---|---|---|
| 1 | Remote debugging job | Medium |
| 2 | Process depends on UI Automation OR Process depends on the UiPath Document Understanding activities | Standard |
| 3 | Other unattended process | Small |
Additional AI Center and Document Understanding requirements
On top of the core service requirements that are part of full platform requirements, AI Center requires additional resources, depending on the models that you want to run or train. For more details about the required GPU hardware generations and compatible NVIDIA drivers, refer to Compatibility Matrix.
AI Center requires disk storage at runtime for the ML Skills and for the training pipeline, as follows:
- The ML Skills require disk space on the
/var/lib/rancherpartition for storing the trained model for predictions. In the worst case scenario, the model size can be as big as 20 GB. - The training pipeline consumes the storage from the
/var/lib/rancherpartition for hosting the model. In the worst case scenario, the model size can be as big as 20 GB, and additionaly, it can require storage for the dataset. The minimum size of the dataset storage can be 51 GB. The recommended size is 105 GB. This must be on the dedicated disk for AI Center. The training pipeline only schedules on the node on which the dedicated AI Center disk is attached.
The following table describes the additional resources AI Center needs. In the following table, Data Disk is needed on all server nodes. Data Disk is not needed on agent nodes.
| Use | CPU | RAM (GB) | GPU | Disk (GB) |
|---|---|---|---|---|
| Minimum for serving (ML Skill, one replica) | 0.6 | 2 | 0 |
|
| Minimum for Training (Pipeline) | 1 | 4 | 0 |
|
| DU model Serving (ML Skill, one replica) | 1 | 4 | 0 |
|
| DU model Training | 2 | 24 | Strongly recommended |
|
The following table describes the required resources for small and average AI Center implementations. Note that these numbers are general guidance.
In the following table, Data Disk is needed on all server nodes. Data Disk is not needed on agent nodes.
| Use | CPU | RAM (GB) | GPU | Disk (GB) |
|---|---|---|---|---|
| Small implementation :
| 4 | 32 | 0 |
|
| Average implementation :
| 8 | 52 | Strongly recommended |
|
1 (3 skills +1 pipeline) * 20 GB on the rancher partition = 80 GB on the rancher partition
2 1 pipeline * 105GB = 105 Data disk
3 (5 skills + 2 pipeline + 1 DU pipeline) * 20 GB on the rancher partition = 160 GB on the rancher partition
4 (2 pipeline + 1 DU pipeline) * 105GB = 315 Data disk
Additional AI Computer Vision requirements
This setup works on on-premises Nvidia GPUs, but also works with cloud providers such as AWS, Azure and GCP. Suggested GPU types include those from the RTX, Tesla, and Ampere family of products which have enough GPU memory and processing capability.
The main difference between these two types of GPUs is that the ones with virtualization usually have more GPU RAM and are offered by most cloud providers. Having more GPU RAM increases the maximum size of the image you can input to the model. In conclusion, virtualization GPUs are not significantly faster that the consumer GPUs.
You need a machine with the following hardware specifications:
| Hardware specification | Requirements |
|---|---|
| Memory |
|
| CPU |
|
| GPU |
|
| Storage |
|
Additional Document Understanding recommendations
For increased performance, you can install Document Understanding on an additional agent node with GPU support. Note, however, that AI Center-based projects in Document Understanding are fully functional without the GPU node. Actually, Document Understanding uses CPU VMs for all its extraction and classification tasks, while for OCR we strongly recommend the usage of a GPU VM.
For more details about the CPU/GPU usage within the Document Understanding framework, refer to CPU and GPU Usage.
If you want to use an additional node with GPU support, you must meet the following requirements:
| Hardware | Minimum requirement |
|---|---|
| Processor | 8 (v-)CPU/cores |
| RAM | 52 GB |
| OS disk | 256 GB SSD Min IOPS: 1100 |
| Data disk | N/A |
| GPU RAM | 11 GB |
For more details, check the AI Center considerations section.
Additional Document Understanding modern projects requirements
With CPU inference activated, a minimum of 2 GPUs is required. To enable CPU inference, set the enable_cpu_inference property to true, as indicated in the Enabling or disabling Document Understanding section.
CAUTION:
- Inference may be up to 10 times slower.
- We recommend using it for documents with a maximum of 125 pages. No active limitation is in place. However, inference might fail for documents larger than 125 pages.
Without CPU inference, a minimum of 5 GPUs is required for Document Understanding modern projects. The example scenario in the following table demonstrates how 5 GPUs is enough to process 300 pages.
For Document Understanding modern projects, the minimum recommended GPU is NVIDIA T4.
| Function | Number |
|---|---|
| Custom model pages processed per hour | 300 |
| Out of the box model pages processed per hour | 0 |
| Models training in parallel | 1 |
| Number of pages in all projects - Design time | 200 |
| Number of document types per project version | 3 |
The 5 GPUs are distributed amongst different functions, as detailed in the following table:
| Service | Number of GPUs |
|---|---|
| OCR replicas | 1 |
| Custom model training replicas | 1 |
| Custom model replicas | 2 |
| Out of the box model replicas | 1 |
| Total | 5 |
For more information on how to allocate GPUs to each service, check the Allocating GPU resources for Document Understanding modern projects page.
In addition to the GPU demands, Document Understanding modern projects also require specific CPU resources for optimal performance. For optimal performance, a minimum of 18 vCPUs is required.
With the modern Document Understanding project, an additional 4 TB of the objectstore is required to perform the activities from the provided examples continuously for one year. You can start with a smaller number, but the activity will fail once the storage is complete, unless you explicitly scale it.
If you are provisioning for one year of continuous processing, you will need 4 TB for Document Understanding modern projects and 512 GB for the other products. The total will be 4.5 TB of storage. Similarly, if you start with six months of processing, you will need 2 TB for Document Understanding modern projects and 512 GB for the other products. In this case the total will be 2.5 TB.
For more detailed calculations and the capacity required for your needs, check the UiPath Automation Suite Install Sizing Calculator.
Provisioning MIG-enabled GPUs
Automation Suite Document Understanding workloads support running on Virtual GPUs (VGPUs) created with NVIDIA MIG (Multi-Instance GPU) technology.
To run Document Understanding in these conditions, keep in mind the following requirements:
- GPU memory (VRAM): at least 16 GB per VGPU
Note:
UiPath only support the single strategy, meaning that all VGPUs will be exactly the same.
- Storage: at least 80 GB per VGPU
Enabling MIG-enabled GPUs in Kubernetes
After provisioning the MIG enabled GPUs in your cluster with profiles matching or exceeding the above minimum requirements, ensure that the GPUs are schedulable Kubernetes. The node must report a non-zero number of GPUs before workloads can be scheduled on it.
To make the GPUs schedulable, follow the official documentation for installing the device plugin.
Alternatively, you can manually apply the device plugin to your gpu nodes to get started.
Apply the following configuration, replacing migEnabledPoolName with the label that matches your GPU node:
apiVersion: v1
kind: Pod
metadata:
name: nvidia-device-plugin-pod
namespace: gpu-resources
spec:
affinity:
nodeAffinity:
requiredDuringSchedulingIgnoredDuringExecution:
nodeSelectorTerms:
- matchExpressions:
- key: agentpool
operator: In
values:
# To be changed to a selector that matches the GPU nodes
- migEnabledPoolName
containers:
- args:
- --fail-on-init-error=false
env:
- name: MPS_ROOT
value: /run/nvidia/mps
- name: MIG_STRATEGY
# We only support the single strategy for now
value: single
- name: NVIDIA_MIG_MONITOR_DEVICES
value: all
- name: NVIDIA_VISIBLE_DEVICES
value: all
- name: NVIDIA_DRIVER_CAPABILITIES
value: compute,utility
image: nvcr.io/nvidia/k8s-device-plugin:v0.17.3
imagePullPolicy: IfNotPresent
name: nvidia-device-plugin-ctr
securityContext:
allowPrivilegeEscalation: true
capabilities:
add:
- SYS_ADMIN
terminationMessagePath: /dev/termination-log
terminationMessagePolicy: File
volumeMounts:
- mountPath: /var/lib/kubelet/device-plugins
name: device-plugin
tolerations:
- key: CriticalAddonsOnly
operator: Exists
- effect: NoSchedule
key: nvidia.com/gpu
operator: Exists
terminationGracePeriodSeconds: 30
volumes:
- hostPath:
path: /var/lib/kubelet/device-plugins
type: ""
name: device-plugin
apiVersion: v1
kind: Pod
metadata:
name: nvidia-device-plugin-pod
namespace: gpu-resources
spec:
affinity:
nodeAffinity:
requiredDuringSchedulingIgnoredDuringExecution:
nodeSelectorTerms:
- matchExpressions:
- key: agentpool
operator: In
values:
# To be changed to a selector that matches the GPU nodes
- migEnabledPoolName
containers:
- args:
- --fail-on-init-error=false
env:
- name: MPS_ROOT
value: /run/nvidia/mps
- name: MIG_STRATEGY
# We only support the single strategy for now
value: single
- name: NVIDIA_MIG_MONITOR_DEVICES
value: all
- name: NVIDIA_VISIBLE_DEVICES
value: all
- name: NVIDIA_DRIVER_CAPABILITIES
value: compute,utility
image: nvcr.io/nvidia/k8s-device-plugin:v0.17.3
imagePullPolicy: IfNotPresent
name: nvidia-device-plugin-ctr
securityContext:
allowPrivilegeEscalation: true
capabilities:
add:
- SYS_ADMIN
terminationMessagePath: /dev/termination-log
terminationMessagePolicy: File
volumeMounts:
- mountPath: /var/lib/kubelet/device-plugins
name: device-plugin
tolerations:
- key: CriticalAddonsOnly
operator: Exists
- effect: NoSchedule
key: nvidia.com/gpu
operator: Exists
terminationGracePeriodSeconds: 30
volumes:
- hostPath:
path: /var/lib/kubelet/device-plugins
type: ""
name: device-plugin
After deploying the plugin, the node's Allocatable section should show the correct number of VGPUs under nvidia.com/gpu, based on the MIG profile you configured. The node should now be schedulable and ready to run Document Understanding workloads.
RPM package requirements
Before starting the Automation Suite installation, you must ensure you meet the following requirements:
- you have a RHEL subscription
- you enabled the BaseOS and AppStream repositories
- you installed the required RPM packages
The following table lists the required RPM packages:
| RPM package | Description |
|---|---|
iscsi-initiator-utils nfs-utils rpcbind util-linux nmap-ncat openssl httpd-tools gettext zstd | Required on nodes for installation. |
podman>=4.0.2 nmap-ncat bind-utils openssl wget unzip conmon=>2.0.24 | Required on nodes for the execution of the readiness check. |
iscsi-initiator-utils gettext nfs-utils rpcbind util-linux nmap-ncat openssl httpd-tools podman=>4.0.2 zstd | Required for offline installations only. |
RHEL 8.4 and later have the required RPM packages in the BaseOS and AppStream repositories by default.
Manual installations
If you perform a manual clean installation of Automation Suite, you must ensure you meet the RPM package requirements. In this case, you are responsible for installing the required RPM packages.
If you upgrade from a previous Automation Suite version, you have already installed the RPM packages.
For details on the tools you can use to install and validate RPM packages, see Validating and installing the required RPM packages.
Cloud templates
If you install Automation Suite using our Azure, AWS, or GCP templates, no action is needed from your side. The templates provision the full infrastructure, including the RPM packages.
Microsoft SQL Server general requirements
Unless otherwise specified in the dedicated requirements sections, these requirements are applicable to all Automation Suite products.
- Automation Suite versions 2.2510.0 and higher are compatible with SQL versions 2019 and higher.
- Insights is only compatible with SQL Server 2019 and higher, regardless of the Automation Suite version.
- When you enable Process Mining for installation on Automation Suite must bring a PostgreSQL database for
AutomationSuite_Airflow. Check out SQL requirements for Process Mining for details.
Additional Microsoft SQL platforms, such as Azure SQL Database or Azure SQL Managed Instance, as well as Amazon Relational Database Service are also supported as long as the Microsoft SQL Server database engine meets the requirements.
Make sure that the SQL server can be accessed from each cluster VM.
Individual product support varies.
For each product you plan to deploy, you must:
- check the supported version of SQL Server as required by the product
- apply the SQL Server configuration prerequisites, including SQL Server User permission, as required by the product For more information on product-specific SQL Server requirements, see Configuring Microsoft SQL Server.
The general minimum hardware requirements for Microsoft SQL Server are as follows:
- 8 (v-)CPU
- 32 GB RAM
- 256 GB SSD
These minimum requirements are general guidance and do not guarantee reliable operation in a production deployment. Capacity planning is required to determine the hardware requirements that are needed for reliable operation.
For each product you plan to deploy, you must evaluate projected usage and apply the capacity planning guidance as specified by the product. This information is available in the help section of each individual product.
NFS Server general requirements
To enable a backup, you need an external NFS server. Automation Suite supports Linux-based on-premises or cloud-managed NFS servers, version NFSv3/NFSv4.
Make sure that the NFS server can be accessed from each cluster VM.
The general minimum hardware requirements for NFS Server are as follows:
- CPU - 4 vCPU
- RAM - 8 GB
- Storage - 1 TB
Note:
If you use an external objectstore, the storage requirement is a few GBs. If you use an in-cluster objectstore, the minimum storage size is the same as the size of the objectstore.
Disaster recovery - Active/Passive requirements
To configure an Active/Passive deployment, make sure you meet the following requirements:
- Hardware
- Load balancers
- DNS
- Certificates
- Objectstore
- Traffic Manager
Hardware
Both Automation Suite clusters must meet a set of software and hardware requirements. For details, see the hardware requirements for the multi-node mode.
Load balancer
Both Automation Suite clusters must have a load balancer. For details, see Configuring the Load balancer.
DNS
For details of the DNS requirements, see Configuring the DNS.
Certificates
For details of the certificate requirements, see Certificate requirements.
You must also add the SANs to the certificate if you opened the DNS.
Objectstore
In-cluster objectstore is not supported while deploying Automation Suite in multi-site. Instead, you must bring an external objectstore.
RHEL compatibily matrix
The following table lists the RHEL versions supported by each version of Automation Suite:
| Automation Suite version | Supported RHEL versions |
|---|---|
| 2.2510.1 | 8.8, 8.9, 8.10, 9.2, 9.4, 9.5, 9.6 |
| 2.2510.0 | 8.8, 8.9, 8.10, 9.2, 9.4, 9.5, 9.6 |
RHEL kernel versionkernel-4.18.0-477.10.1.el8_8 is affected by an issue that interrupts the installation or management of the Automation Suite cluster. Make sure that none of the Automation Suite nodes uses this kernel version either pre- or post-installation.
- Terminology
- Product selection
- Choose your deployment profile
- Prerequisites at a glance
- Hardware requirements
- Complete product selection: hardware requirements
- Individual products: hardware requirements
- RPM package requirements
- Manual installations
- Cloud templates
- Microsoft SQL Server general requirements
- NFS Server general requirements
- Disaster recovery - Active/Passive requirements
- Hardware
- Load balancer
- DNS
- Certificates
- Objectstore
- RHEL compatibily matrix