- Documentation
- OpenShift Container Platform
- Configuring Clusters
- Deploying Red Hat CloudForms
- Introduction history bug_report picture_as_pdf
- About
- Release Notes
- Getting Started
- Architecture
- Container Security Guide
- Installing Clusters
- Upgrading Clusters
- Configuring Clusters
- Overview
- Setting up the Registry
- Setting up a Router
- Deploying Red Hat CloudForms
- Prometheus Cluster Monitoring
- Accessing and Configuring the Red Hat Registry
- Master and Node Configuration
- OpenShift Ansible Broker Configuration
- Adding Hosts to an Existing Cluster
- Loading the Default Image Streams and Templates
- Configuring Custom Certificates
- Redeploying Certificates
- Configuring Authentication and User Agent
- Syncing groups with LDAP
- Configuring LDAP failover
- Configuring the SDN
- Configuring Nuage SDN
- Configuring NSX-T SDN
- Configuring Kuryr SDN
- Configuring for AWS
- Configuring for Red Hat Virtualization
- Configuring for OpenStack
- Configuring for Google Compute Engine
- Configuring for Azure
- Configuring for VMware vSphere
- Configuring Local Volumes
- Configuring Persistent Storage
- Overview
- Using NFS
- Using GlusterFS
- Using OpenStack Cinder
- Using Ceph RBD
- Using AWS Elastic Block Store
- Using GCE Persistent Disk
- Using iSCSI
- Using Fibre Channel
- Using Azure Disk
- Using Azure File
- Using FlexVolume
- Using VMware vSphere volumes for persistent storage
- Using Local Volume
- Using Container Storage Interface (CSI)
- Using OpenStack Manila shares
- Dynamic Provisioning and Creating Storage Classes
- Volume Security
- Selector-Label Volume Binding
- Enabling Controller-managed Attachment and Detachment
- Persistent Volume Snapshots
- Using hostPath
- Persistent Storage Examples
- Overview
- Sharing an NFS PV Across Two Pods
- Using Ceph RBD for Persistent Storage
- Using Ceph RBD for dynamic provisioning
- Complete Example Using GlusterFS
- Complete Example Using GlusterFS for Dynamic Provisioning
- Mounting Volumes To Privileged Pods
- Mount Propagation
- Switching an Integrated OpenShift Container Registry to GlusterFS
- Binding Persistent Volumes by Label
- Using StorageClasses for Dynamic Provisioning
- Using StorageClasses for Existing Legacy Storage
- Configuring Azure Blob Storage for Integrated Container Image Registry
- Configuring Ephemeral Storage
- Working with HTTP Proxies
- Configuring Global Build Defaults and Overrides
- Configuring Pipeline Execution
- Configuring Route Timeouts
- Configuring Native Container Routing
- Routing from Edge Load Balancers
- Aggregating Container Logs
- Aggregate Logging Sizing Guidelines
- Enabling Cluster Metrics
- Customizing the Web Console
- Deploying External Persistent Volume Provisioners
- Installing the Operator Framework (Technology Preview)
- Uninstalling Operator Lifecycle Manager
- Day Two Operations Guide
- Cluster Administration
- Overview
- Managing Nodes
- Restoring your cluster
- Replacing a master host
- Managing Users
- Managing Projects
- Managing Pods
- Managing Networking
- Configuring Service Accounts
- Managing Role-based Access Control
- Image Policy
- Image Signatures
- Scoped Tokens
- Monitoring Images
- Managing Security Context Constraints
- Scheduling
- Overview
- Default Scheduling
- Descheduling
- Custom Scheduling
- Controlling Pod Placement
- Pod Priority and Preemption
- Advanced Scheduling
- Advanced Scheduling and Node Affinity
- Advanced Scheduling and Pod Affinity/Anti-affinity
- Advanced Scheduling and Node Selectors
- Advanced Scheduling and Taints and Tolerations
- Setting Quotas
- Setting Multi-Project Quotas
- Pruning objects
- Extending the Kubernetes API with Custom Resources
- Garbage Collection
- Allocating Node Resources
- Overcommitting
- Out of Resource Handling
- Setting Limit Ranges
- Node Problem Detector
- Assigning Unique External IPs for Ingress Traffic
- Monitoring and Debugging Routers
- High Availability
- IPtables
- Securing Builds by Strategy
- Restricting Application Capabilities Using Seccomp
- Sysctls
- Encrypting Data at Datastore Layer
- Encrypting traffic between nodes with IPsec
- Building Dependency Trees
- Replacing a failed etcd member
- Restoring etcd quorum
- Troubleshooting Networking
- Diagnostics Tool
- Idling Applications
- Analyzing Cluster Capacity
- Configuring the cluster auto-scaler in AWS
- Disabling Features using Feature Gates
- Kuryr SDN Administration
- Scaling and Performance Guide
- Overview
- Recommended Installation Practices
- Recommended Host Practices
- Optimizing Compute Resources
- Optimizing Persistent Storage
- Optimizing Ephemeral Storage
- Network Optimization
- Routing Optimization
- Scaling Cluster Metrics
- Scaling Cluster Monitoring
- Tested Maximums per Cluster
- Using Cluster Loader
- Using CPU Manager
- Managing Huge Pages
- Optimizing On GlusterFS Storage
- Developer Guide
- Overview
- Application Life Cycle Management
- Authentication
- Authorization
- Projects
- Migrating Applications
- Tutorials
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- Templates
- Opening a Remote Shell to Containers
- Service Accounts
- Managing Images
- Quotas and Limit Ranges
- Getting Traffic into a Cluster
- Routes
- Integrating External Services
- Using Device Manager
- Using Device Plug-ins
- Secrets
- ConfigMaps
- Downward API
- Projected Volumes
- Using Daemonsets
- Pod Autoscaling
- Managing Volumes
- Using Persistent Volumes
- Expanding Persistent Volumes
- Executing Remote Commands
- Copying Files
- Port Forwarding
- Shared Memory
- Application Health
- Events
- Managing Environment Variables
- Jobs
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- Creating an object from a custom resource definition
- Application memory sizing
- Application ephemeral storage sizing
- Creating Images
- Using Images
- CLI Reference
- Ansible Playbook Bundle Development Guide
- API reference
- API list
- Common object reference
- core
- About core
- Binding [core/v1]
- ComponentStatus [core/v1]
- ConfigMap [core/v1]
- Endpoints [core/v1]
- Event [core/v1]
- LimitRange [core/v1]
- Namespace [core/v1]
- Node [core/v1]
- PersistentVolumeClaim [core/v1]
- PersistentVolume [core/v1]
- Pod [core/v1]
- PodTemplate [core/v1]
- ReplicationController [core/v1]
- ResourceQuota [core/v1]
- Secret [core/v1]
- ServiceAccount [core/v1]
- Service [core/v1]
- admissionregistration.k8s.io
- apiregistration.k8s.io
- apps
- apps.openshift.io
- authentication.k8s.io
- authorization.k8s.io
- authorization.openshift.io
- About authorization.openshift.io
- ClusterRoleBinding [authorization.openshift.io/v1]
- ClusterRole [authorization.openshift.io/v1]
- LocalResourceAccessReview [authorization.openshift.io/v1]
- LocalSubjectAccessReview [authorization.openshift.io/v1]
- ResourceAccessReview [authorization.openshift.io/v1]
- RoleBindingRestriction [authorization.openshift.io/v1]
- RoleBinding [authorization.openshift.io/v1]
- Role [authorization.openshift.io/v1]
- SelfSubjectRulesReview [authorization.openshift.io/v1]
- SubjectAccessReview [authorization.openshift.io/v1]
- SubjectRulesReview [authorization.openshift.io/v1]
- autoscaling
- batch
- build.openshift.io
- certificates.k8s.io
- events.k8s.io
- image.openshift.io
- network.openshift.io
- networking.k8s.io
- oauth.openshift.io
- policy
- project.openshift.io
- quota.openshift.io
- rbac.authorization.k8s.io
- route.openshift.io
- scheduling.k8s.io
- security.openshift.io
- storage.k8s.io
- template.openshift.io
- user.openshift.io
- CRI-O Runtime
- Container-native Virtualization Install
- Container-native Virtualization User's Guide
- Container-native Virtualization Release Notes
Deploying Red Hat CloudForms on OpenShift Container Platform
Introduction
The OpenShift Container Platform installer includes the Ansible role openshift-management and playbooks for deploying Red Hat CloudForms 4.6 (CloudForms Management Engine 5.9, or CFME) on OpenShift Container Platform.
|
The current implementation is incompatible with the Technology Preview deployment process of Red Hat CloudForms 4.5 as described in OpenShift Container Platform 3.6 documentation. |
When deploying Red Hat CloudForms on OpenShift Container Platform, there are two major decisions to make:
-
Do you want an external or a containerized (also referred to as podified) PostgreSQL database?
-
Which storage class will back your persistent volumes (PVs)?
For the first decision, you can deploy Red Hat CloudForms in one of two ways, depending on the location of the PostgreSQL database to be used by Red Hat CloudForms:
| Deployment Variant | Description |
|---|---|
Fully containerized |
All application services and the PostgreSQL database are run as pods on OpenShift Container Platform. |
External database |
The application utilizes an externally-hosted PostgreSQL database server, while all other services are ran as pods on OpenShift Container Platform. |
For the second decision, the openshift-management role provides customization options for overriding many default deployment parameters. This includes the following storage class options to back your PVs:
| Storage Class | Description |
|---|---|
NFS (default) |
Local, on cluster |
NFS External |
NFS somewhere else, like a storage appliance |
Cloud Provider |
Use automatic storage provisioning from your cloud provider (Google Cloud Engine, Amazon Web Services, or Microsoft Azure) |
Preconfigured (advanced) |
Assumes you created everything ahead of time |
Topics in this guide include the requirements for running Red Hat CloudForms on OpenShift Container Platform, descriptions of the available configuration variables, and instructions on running the installer either during your initial OpenShift Container Platform installation or after your cluster has been provisioned.