Intel Device Plugins for Red Hat OpenShift Container Platform

This document describes how to provision Intel hardware features on a Red Hat OpenShift Container Platform (RHOCP) cluster using Intel Device Plugins. It covers hardware and BIOS configuration, node labeling with Node Feature Discovery, and installing the Intel Device Plugins Operator to expose QAT, SGX, DSA, and GPU resources to workloads.

Note: Version numbers used in examples throughout this document are for reference only. Always check the latest versions of RHOCP, operators, and container images before deploying.

Prerequisites
BIOS Configuration
Machine Configuration
- Hugepages
- CPU Manager
Node Feature Discovery
Intel Device Plugins Operator
Creating Device Plugin Custom Resources
Resources Provided by Intel Device Plugins

Prerequisites

A provisioned RHOCP cluster (bare-metal multi-node is recommended). See Red Hat's installation documentation for cluster provisioning instructions.
oc CLI tool installed and configured with cluster-admin privileges.
Intel hardware present in worker nodes (see BIOS Configuration for per-feature requirements).

BIOS Configuration

Before provisioning Intel hardware features, ensure the BIOS is configured correctly on each worker node. Refer to your server vendor's BIOS documentation for specific instructions. The following are general references:

Feature	BIOS Configuration Reference
Intel® SGX	Intel SGX BIOS setup
Intel® Data Center GPU Flex Series	GPU Flex Series setup guide
Intel® Data Center GPU Max Series	GPU Max Series BIOS setup
Intel® QAT	QAT BIOS setup
Intel® DSA	DSA setup guide

Machine Configuration

The Machine Config Operator (MCO) manages operating system configuration on RHOCP worker nodes. For Intel QAT and Intel DSA, you must enable the intel_iommu kernel parameter with sm_on and load the vfio-pci module at boot.

Apply the following MachineConfig to enable IOMMU and VFIO for QAT and DSA:

Note: Applying this MachineConfig will trigger a reboot of the matching worker nodes.

apiVersion: machineconfiguration.openshift.io/v1
kind: MachineConfig
metadata:
  labels:
    machineconfiguration.openshift.io/role: worker
  name: 100-intel-iommu-on
spec:
  kernelArguments:
    # The vfio-pci.ids below are examples; add any supported QAT VF or DSA PF PCI IDs for your hardware
    - intel_iommu=on,sm_on modules_load=vfio-pci vfio-pci.ids=8086:4941,8086:4943

Save the above to a file (e.g. 100-intel-iommu-on.yaml) and apply:

oc apply -f 100-intel-iommu-on.yaml

Hugepages

If your workloads require hugepages (e.g. DPDK-based QAT applications), apply the following MachineConfig to allocate 2 Mi hugepages at boot:

Note: Applying this MachineConfig will trigger a reboot of the matching worker nodes.

apiVersion: machineconfiguration.openshift.io/v1
kind: MachineConfig
metadata:
  name: 99-worker-hugepages-2mi
  labels:
    machineconfiguration.openshift.io/role: worker
spec:
  kernelArguments:
    - "default_hugepagesz=2M"
    - "hugepagesz=2M"
    - "hugepages=1024"

Save the above to a file (e.g. 99-worker-hugepages-2mi.yaml) and apply:

oc apply -f 99-worker-hugepages-2mi.yaml

CPU Manager

For workloads that require exclusive CPU pinning, enable the static CPU Manager policy via a KubeletConfig:

apiVersion: machineconfiguration.openshift.io/v1
kind: KubeletConfig
metadata:
  name: cpumanager-enabled
spec:
  machineConfigPoolSelector:
    matchLabels:
      custom-kubelet: cpumanager-enabled
  kubeletConfig:
     cpuManagerPolicy: static
     cpuManagerReconcilePeriod: 5s

Save the above to a file (e.g. cpumanager-kubeletconfig.yaml) and apply:

oc apply -f cpumanager-kubeletconfig.yaml

Then label the MachineConfigPool to activate the config:

oc label machineconfigpool worker custom-kubelet=cpumanager-enabled

Verification

After the worker nodes have rebooted, verify the configuration by navigating to the node terminal on the web console (Compute → Nodes → select a node → Terminal), or by using oc debug node/<node-name>:

# Check kernel command line
cat /proc/cmdline
# Ensure "intel_iommu=on,sm_on" is present

# Check that vfio_pci driver is loaded
chroot /host
lsmod | grep vfio_pci

# Check that CPU manager static policy is enabled
jq -r .policyName < /var/lib/kubelet/cpu_manager_state

Node Feature Discovery

Node Feature Discovery (NFD) detects hardware features and system configuration on cluster nodes and exposes them as node labels. These labels are used by the Intel Device Plugins Operator to schedule device plugin pods on appropriate nodes.

Installing the NFD Operator

Follow the Red Hat documentation to install the NFD Operator:

After installing the operator, create a NodeFeatureDiscovery CR instance following the Red Hat NFD documentation.

NodeFeatureRules for Intel Devices

Once NFD is running, apply the following NodeFeatureRule to label nodes with Intel hardware features (GPU, QAT, SGX, DSA):

apiVersion: nfd.openshift.io/v1alpha1
kind: NodeFeatureRule
metadata:
  name: intel-dp-devices
  namespace: openshift-nfd
spec:
  rules:
    - name: "intel.gpu"
      labels:
        "intel.feature.node.kubernetes.io/gpu": "true"
      matchFeatures:
        - feature: pci.device
          matchExpressions:
            vendor: {op: In, value: ["8086"]}
            class: {op: In, value: ["0300", "0380"]}

    - name: "intel.qat"
      labels:
        "intel.feature.node.kubernetes.io/qat": "true"
      matchFeatures:
        - feature: pci.device
          matchExpressions:
            vendor: {op: In, value: ["8086"]}
            device: {op: In, value: ["4940", "4942", "4944"]}
            class: {op: In, value: ["0b40"]}
        - feature: kernel.loadedmodule
          matchExpressions:
            intel_qat: {op: Exists}  # intel_qat module must be loaded

    - name: "intel.sgx"
      labels:
        "intel.feature.node.kubernetes.io/sgx": "true"
      extendedResources:
        sgx.intel.com/epc: "@cpu.security.sgx.epc"
      matchFeatures:
        - feature: cpu.cpuid
          matchExpressions:
            SGX: {op: Exists}
            SGXLC: {op: Exists}
        - feature: cpu.security
          matchExpressions:
            sgx.enabled: {op: IsTrue}
        - feature: kernel.config
          matchExpressions:
            X86_SGX: {op: Exists}

    - name: "intel.dsa"
      labels:
        "intel.feature.node.kubernetes.io/dsa": "true"
      matchFeatures:
        - feature: pci.device
          matchExpressions:
            vendor: {op: In, value: ["8086"]}
            device: {op: In, value: ["0b25"]}
            class: {op: In, value: ["0880"]}
        - feature: kernel.loadedmodule
          matchExpressions:
            idxd: {op: Exists}  # idxd module must be loaded

Save the above to a file (e.g. node-feature-rules.yaml) and apply:

oc apply -f node-feature-rules.yaml

Note: The QAT rule requires the intel_qat kernel module and the DSA rule requires the idxd kernel module to be loaded on the nodes. These modules are typically loaded automatically when the corresponding hardware is present and properly configured.

NFD Verification

Use the following commands to verify that nodes are labeled correctly:

oc get nodes
oc describe node <node-name> | grep intel.feature.node.kubernetes.io

Example output:

intel.feature.node.kubernetes.io/gpu=true
intel.feature.node.kubernetes.io/qat=true
intel.feature.node.kubernetes.io/sgx=true
intel.feature.node.kubernetes.io/dsa=true

Labels Table

Label	Intel Hardware Feature
`intel.feature.node.kubernetes.io/gpu=true`	Intel® Data Center GPU Flex Series or Intel® Data Center GPU Max Series
`intel.feature.node.kubernetes.io/sgx=true`	Intel® SGX
`intel.feature.node.kubernetes.io/qat=true`	Intel® QAT
`intel.feature.node.kubernetes.io/dsa=true`	Intel® DSA

Intel Device Plugins Operator

The Intel Device Plugins Operator manages the deployment and lifecycle of device plugins that advertise Intel hardware resources to the RHOCP cluster. The operator and device plugin container images are certified and published on the Red Hat Ecosystem Catalog.

Installation via Web Console

In the OpenShift web console, navigate to Operator → OperatorHub.
Search for Intel Device Plugins Operator.
Click Install.

Verify by navigating to Operator → Installed Operators and confirming the status is Succeeded.

Installation via CLI

Apply the following to create an operator subscription:

apiVersion: operators.coreos.com/v1alpha1
kind: Subscription
metadata:
  labels:
    operators.coreos.com/intel-device-plugins-operator.openshift-operators: ""
  name: intel-device-plugins-operator
  namespace: openshift-operators
spec:
  channel: stable
  installPlanApproval: Automatic
  name: intel-device-plugins-operator
  source: certified-operators
  sourceNamespace: openshift-marketplace

Save the above to a file (e.g. install-operator.yaml) and apply:

oc apply -f install-operator.yaml

Verify Operator Installation

oc get pod -n openshift-operators | grep inteldeviceplugins-controller-manager

Expected output (example):

inteldeviceplugins-controller-manager-6b8c76c867-hftqm   1/1     Running   0   17m

Creating Device Plugin Custom Resources

After the operator is installed, create Custom Resources (CRs) for each device plugin you need. Each CR can be created either via the OpenShift web console or via oc CLI.

Note: The container image references shown below are examples. Always check the Red Hat Ecosystem Catalog for the latest certified image digests.

Intel QAT Device Plugin

Prerequisites

Machine Configuration applied (IOMMU and VFIO enabled).
NFD labels indicating QAT presence on worker nodes.

Create via Web Console

Go to Operator → Installed Operators.
Open Intel Device Plugins Operator.
Navigate to the Intel QuickAssist Technology Device Plugin tab.
Click Create QatDevicePlugin → set parameters → click Create.

Create via CLI

apiVersion: deviceplugin.intel.com/v1
kind: QatDevicePlugin
metadata:
  name: qatdeviceplugin-sample
spec:
  image: registry.connect.redhat.com/intel/intel-qat-plugin@sha256:ccb19d26f6afdb79cf0b2b70dab73b45f2bb9d5d3d94482486bec4beab6bfba3  # check Red Hat Ecosystem Catalog for latest digest
  initImage: registry.connect.redhat.com/intel/intel-qat-initcontainer@sha256:33c39996800676660f72952c994775c05de63e102f4b67afdd6a0e3f5a1bab5f  # check Red Hat Ecosystem Catalog for latest digest
  dpdkDriver: vfio-pci
  kernelVfDrivers:
    - 4xxxvf
    - 420xxvf
  maxNumDevices: 128
  logLevel: 4
  nodeSelector:
    intel.feature.node.kubernetes.io/qat: "true"

Save and apply:

oc apply -f qat-device-plugin.yaml

Verify

oc get QatDevicePlugin

Example output:

NAME                     DESIRED   READY   NODE SELECTOR                                       AGE
qatdeviceplugin-sample   1         1       {"intel.feature.node.kubernetes.io/qat":"true"}      3h

Verify QAT resources on a node:

oc describe node <node-name> | grep qat.intel.com

Example output:

qat.intel.com/cy: 32
qat.intel.com/dc: 32

Note: By default the device plugin registers half the resources for qat.intel.com/cy (crypto) and half for qat.intel.com/dc (compression).

QAT Resource Configuration

The QAT device plugin supports the following configuration flags:

Flag	Value	Description
`-dpdk-driver`	`vfio-pci`	VFIO driver for QAT VFIO devices
`-kernel-vf-drivers`	`4xxxvf`	Support for 4xxx QAT devices
`-max-num-devices`	`128`	Maximum VF devices to enable
`-provisioning-config`	ConfigMap name	Custom resource configuration

To customize QAT resource services, create a ConfigMap:

oc create configmap --namespace=openshift-operators \
  --from-literal "qat.conf=ServicesEnabled=<option>" <configmap-name>

Where <option> is one of:

dc — compression services (qat.intel.com/dc)
sym;asym — crypto services (qat.intel.com/cy)
sym — symmetric crypto (qat.intel.com/sym)
asym — asymmetric crypto (qat.intel.com/asym)
sym;dc — symmetric crypto and compression (qat.intel.com/sym-dc)
asym;dc — asymmetric crypto and compression (qat.intel.com/asym-dc)
sym;decomp — symmetric crypto and decompression, 6xxx only (qat.intel.com/sym-decomp)
asym;decomp — asymmetric crypto and decompression, 6xxx only (qat.intel.com/asym-decomp)
asym;sym;dc — crypto and compression, 6xxx only (qat.intel.com/asym-sym-dc)
asym;sym;decomp — crypto and decompression, 6xxx only (qat.intel.com/asym-sym-decomp)
dcc — dc chaining feature (qat.intel.com/dcc)
decomp — decompression, 6xxx only (qat.intel.com/decomp)

Then reference the ConfigMap name in the provisioningConfig field of the QatDevicePlugin CR.

For more details about QAT device plugin configuration, see Modes and Configuration Options.

Intel SGX Device Plugin

Prerequisites

NFD labels indicating SGX presence on worker nodes.
SGX enabled in BIOS (see BIOS Configuration).

Create via Web Console

Go to Operator → Installed Operators.
Open Intel Device Plugins Operator.
Navigate to the Intel Software Guard Extensions Device Plugin tab.
Click Create SgxDevicePlugin → set parameters → click Create.

Create via CLI

apiVersion: deviceplugin.intel.com/v1
kind: SgxDevicePlugin
metadata:
  name: sgxdeviceplugin-sample
spec:
  image: registry.connect.redhat.com/intel/intel-sgx-plugin@sha256:4ac8769c4f0a82b3ea04cf1532f15e9935c71fe390ff5a9dc3ee57f970a65f0b  # check Red Hat Ecosystem Catalog for latest digest
  enclaveLimit: 110
  provisionLimit: 110
  logLevel: 4
  nodeSelector:
    intel.feature.node.kubernetes.io/sgx: "true"

Save and apply:

oc apply -f sgx-device-plugin.yaml

Verify

oc get SgxDevicePlugin

Example output:

NAME                     DESIRED   READY   NODE SELECTOR                                       AGE
sgxdeviceplugin-sample   1         1       {"intel.feature.node.kubernetes.io/sgx":"true"}      2m

Intel DSA Device Plugin

Prerequisites

Machine Configuration applied (IOMMU and VFIO enabled).
NFD labels indicating DSA presence on worker nodes.

Create via Web Console

Go to Operator → Installed Operators.
Open Intel Device Plugins Operator.
Navigate to the Intel DSA Device Plugin tab.
Click Create DSADevicePlugin → set parameters → click Create.

Create via CLI

apiVersion: deviceplugin.intel.com/v1
kind: DsaDevicePlugin
metadata:
  name: dsadeviceplugin-sample
spec:
  image: registry.connect.redhat.com/intel/intel-dsa-plugin@sha256:64ec224b9382f711cf834722a85497965bb20e4fbf54e619ac296b46be6e1964  # check Red Hat Ecosystem Catalog for latest digest
  initImage: registry.connect.redhat.com/intel/intel-idxd-config-initcontainer@sha256:c573ff46096f78d025d736bb3eedb131e9fc3aa2271d2dd6096a4c4911ee8a1f  # check Red Hat Ecosystem Catalog for latest digest
  logLevel: 4
  nodeSelector:
    intel.feature.node.kubernetes.io/dsa: "true"
  sharedDevNum: 10

Save and apply:

oc apply -f dsa-device-plugin.yaml

Verify:

oc get DsaDevicePlugin

Example output:

NAME                     DESIRED   READY   NODE SELECTOR                                       AGE
dsadeviceplugin-sample   3         3       {"intel.feature.node.kubernetes.io/dsa":"true"}      98m

Verify DSA resources on a node:

oc describe node <node-name> | grep dsa.intel.com

Example output:

dsa.intel.com/wq-user-shared:     160
dsa.intel.com/wq-user-dedicated:  0

Create via CLI (VFIO driver)

Some workloads (e.g., DPDK) support using DSA through vfio-pci. Setting driver: vfio-pci makes the plugin advertise dsa.intel.com/vfio resources instead of the default idxd-based work queue resources.

apiVersion: deviceplugin.intel.com/v1
kind: DsaDevicePlugin
metadata:
  name: dsadeviceplugin-vfio-sample
spec:
  image: registry.connect.redhat.com/intel/intel-dsa-plugin@sha256:64ec224b9382f711cf834722a85497965bb20e4fbf54e619ac296b46be6e1964  # check Red Hat Ecosystem Catalog for latest digest
  initImage: registry.connect.redhat.com/intel/intel-idxd-config-initcontainer@sha256:c573ff46096f78d025d736bb3eedb131e9fc3aa2271d2dd6096a4c4911ee8a1f  # check Red Hat Ecosystem Catalog for latest digest
  driver: vfio-pci
  logLevel: 4
  nodeSelector:
    intel.feature.node.kubernetes.io/dsa: "true"

Note: The vfio-pci module must be loaded with disable_denylist=1 parameter for the DSA device plugin to work correctly with DSA devices with PCI ID=0b25.

Save and apply:

oc apply -f dsa-device-plugin-vfio.yaml

Verify:

oc get DsaDevicePlugin

Example output:

NAME                          DESIRED   READY   NODE SELECTOR                                       AGE
dsadeviceplugin-vfio-sample   3         3       {"intel.feature.node.kubernetes.io/dsa":"true"}      10m

Verify DSA resources on a node:

oc describe node <node-name> | grep dsa.intel.com

Example output:

dsa.intel.com/vfio:  4

DSA Resource Configuration

The DSA plugin uses a default configuration that creates dedicated work queues for each DSA device. To customize the configuration:

Create a ConfigMap with your DSA configuration:

oc create configmap --namespace=openshift-operators \
  intel-dsa-config --from-file=dsa.conf

Reference the ConfigMap name in the provisioningConfig field of the DsaDevicePlugin CR.

Intel GPU Device Plugin

Note: Although the Intel GPU device plugin is part of the supported device plugins set, the i915 out-of-tree KMD driver is no longer provided and the new Xe KMD driver is not yet available. It is not possible to utilize the GPU plugin in RHCOP without a functioning GPU KMD.

Prerequisites

NFD labels indicating GPU presence on worker nodes.

Create via Web Console

Go to Operator → Installed Operators.
Open Intel Device Plugins Operator.
Navigate to the Intel GPU Device Plugin tab.
Click Create GpuDevicePlugin → set parameters → click Create.

Create via CLI

apiVersion: deviceplugin.intel.com/v1
kind: GpuDevicePlugin
metadata:
  name: gpudeviceplugin-sample
spec:
  image: registry.connect.redhat.com/intel/intel-gpu-plugin@sha256:51f5db99b7ec78407cb8f00e20d6f455e62edbb3a4abe3352dfaa6c037ba598c  # check Red Hat Ecosystem Catalog for latest digest
  preferredAllocationPolicy: none
  sharedDevNum: 1
  logLevel: 4
  nodeSelector:
    intel.feature.node.kubernetes.io/gpu: "true"

Save and apply:

oc apply -f gpu-device-plugin.yaml

Verify

oc get GpuDevicePlugin

Example output:

NAME                     DESIRED   READY   NODE SELECTOR                                       AGE
gpudeviceplugin-sample   1         1       {"intel.feature.node.kubernetes.io/gpu":"true"}      3m

Using GPU Resources

When claiming i915 resources in your workload, set both limits and requests:

spec:
  containers:
    - name: gpu-workload
      resources:
        limits:
          gpu.intel.com/i915: 1
        requests:
          gpu.intel.com/i915: 1

Resources Provided by Intel Device Plugins

The table below summarizes the Kubernetes resources exposed by each device plugin. Workloads request these resources in their pod specs.

Feature	Resource	Description
Intel® SGX	`sgx.intel.com/epc`	SGX Enclave Page Cache memory
Intel® Data Center GPU	`gpu.intel.com/i915`	Intel GPU device
Intel® QAT	`qat.intel.com/generic`	QAT VFIO VF (pre-Gen4 devices)
Intel® QAT	`qat.intel.com/cy`	QAT VFIO VF for crypto (`sym;asym`)
Intel® QAT	`qat.intel.com/dc`	QAT VFIO VF for compression
Intel® QAT	`qat.intel.com/sym`	QAT VFIO VF for symmetric crypto
Intel® QAT	`qat.intel.com/asym`	QAT VFIO VF for asymmetric crypto
Intel® QAT	`qat.intel.com/sym-dc`	QAT VFIO VF for symmetric crypto and compression
Intel® QAT	`qat.intel.com/asym-dc`	QAT VFIO VF for asymmetric crypto and compression
Intel® QAT	`qat.intel.com/sym-decomp`	QAT VFIO VF for symmetric crypto and decompression (6xxx)
Intel® QAT	`qat.intel.com/asym-decomp`	QAT VFIO VF for asymmetric crypto and decompression (6xxx)
Intel® QAT	`qat.intel.com/asym-sym-dc`	QAT VFIO VF for crypto and compression (6xxx)
Intel® QAT	`qat.intel.com/asym-sym-decomp`	QAT VFIO VF for crypto and decompression (6xxx)
Intel® QAT	`qat.intel.com/dcc`	QAT VFIO VF for dc chaining
Intel® QAT	`qat.intel.com/decomp`	QAT VFIO VF for decompression (6xxx)
Intel® DSA	`dsa.intel.com/wq-user-shared`	DSA shared work queue
Intel® DSA	`dsa.intel.com/wq-user-dedicated`	DSA dedicated work queue
Intel® DSA	`dsa.intel.com/vfio`	DSA VFIO device (vfio-pci driver)

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Intel Device Plugins for Red Hat OpenShift Container Platform

Table of Contents

Prerequisites

BIOS Configuration

Machine Configuration

Hugepages

CPU Manager

Verification

Node Feature Discovery

Installing the NFD Operator

NodeFeatureRules for Intel Devices

NFD Verification

Labels Table

Intel Device Plugins Operator

Installation via Web Console

Installation via CLI

Verify Operator Installation

Creating Device Plugin Custom Resources

Intel QAT Device Plugin

Prerequisites

Create via Web Console

Create via CLI

Verify

QAT Resource Configuration

Intel SGX Device Plugin

Prerequisites

Create via Web Console

Create via CLI

Verify

Intel DSA Device Plugin

Prerequisites

Create via Web Console

Create via CLI

Create via CLI (VFIO driver)

DSA Resource Configuration

Intel GPU Device Plugin

Prerequisites

Create via Web Console

Create via CLI

Verify

Using GPU Resources

Resources Provided by Intel Device Plugins