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google/gke-inference

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gke-inference

Deploys and optimizes AI/ML inference workloads on GKE, using GPUs, TPUs, and model servers. Use when deploying GKE inference servers, configuring GKE GPU resources for inference, or deploying LLMs on GKE. Don't use for generic batch jobs or HPC task queues (use gke-batch-hpc instead).

New~1.9kUpdated Jun 28, 2026

GKE AI/ML Inference

This reference covers deploying AI/ML inference workloads on GKE using Google's Inference Quickstart (GIQ) and best practices for LLM serving.

MCP Tools: apply_k8s_manifest, get_k8s_resource, get_k8s_logs, get_k8s_rollout_status, describe_k8s_resource, list_k8s_events. CLI-only: gcloud container ai profiles *

When to Use

  • Deploy an AI model (Llama, Gemma, Mistral, etc.) to GKE
  • Generate optimized Kubernetes manifests for inference
  • Select GPU/TPU accelerators for model serving
  • Configure autoscaling for LLM inference

Prerequisites

  • A golden path GKE Autopilot cluster (GPU workloads are supported via ComputeClasses and NAP)
  • gcloud CLI authenticated
  • Sufficient GPU/TPU quota in the target region

Workflow

1. Discovery: Find Models and Hardware

# List all supported models
gcloud container ai profiles models list --quiet

# Find valid accelerator/server combinations for a model
gcloud container ai profiles list --model=<MODEL_NAME> --quiet

# Example: what can run Gemma 2 9B?
gcloud container ai profiles list --model=gemma-2-9b-it --quiet

2. Generate Manifest

gcloud container ai profiles manifests create \
  --model=<MODEL_NAME> \
  --model-server=<SERVER> \
  --accelerator-type=<ACCELERATOR> \
  --target-ntpot-milliseconds=<NTPOT> --quiet > inference.yaml

Parameters:

  • --model: Model ID (e.g., gemma-2-9b-it, llama-3-8b)
  • --model-server: Inference server (vllm, tgi, triton, tensorrt-llm)
  • --accelerator-type: GPU/TPU type (nvidia-l4, nvidia-tesla-a100, nvidia-h100-80gb)
  • --target-ntpot-milliseconds: Target Normalized Time Per Output Token (optional, for latency optimization)

Example:

gcloud container ai profiles manifests create \
  --model=gemma-2-9b-it \
  --model-server=vllm \
  --accelerator-type=nvidia-l4 \
  --target-ntpot-milliseconds=50 --quiet > inference.yaml

3. Review and Deploy

# Review for placeholders (HF tokens, PVCs)
cat inference.yaml

# Deploy
kubectl apply -f inference.yaml

# Monitor
kubectl get pods -w
kubectl logs -f <POD_NAME>

Some models require Hugging Face tokens. Create a Kubernetes Secret and reference it in the manifest.

GPU ComputeClass for Inference

For Autopilot clusters, create a ComputeClass to target GPU nodes:

apiVersion: cloud.google.com/v1
kind: ComputeClass
metadata:
  name: l4-inference
spec:
  priorities:
  - machineFamily: g2
    gpu:
      type: nvidia-l4
      count: 1
    minCores: 4
    minMemoryGb: 16

Accelerator Selection Guide

Accelerator Best For Memory Relative Cost
NVIDIA T4 Budget inference, 16 GB Lowest
: : lightweight legacy : : :
: : models : : :
NVIDIA L4 (G2) Small-medium model 24 GB Low
: : inference, video, : : :
: : graphics : : :
NVIDIA RTX PRO 6000 Multimodal AI, 96 GB Medium
: (G4) : high-fidelity 3D, : : :
: : fine-tuning : : :
Cloud TPU v5e Cost-effective Varies Medium
: : transformer inference : : :
Cloud TPU v5p High-performance Varies High
: : training : : :
Cloud TPU v6e High-efficiency next-gen 32 GB/chip Medium-High
: (Trillium) : training & serving : : :
Cloud TPU v7x Ultra-scale inference & 192 GB/chip High
: (Ironwood) : agentic workflows : : :
NVIDIA A100 Large model inference, 40/80 GB High
: : enterprise ML : : :
NVIDIA H100 / H200 Frontier model training, 80/141 GB Highest
: : high throughput : : :
NVIDIA B200 (A4) Blackwell-scale 192 GB Highest
: : training, FP4 precision : : :
NVIDIA GB200 (A4X) Rack-scale AI (Grace Massive Highest
: : Blackwell Superchip) : : :

Autoscaling LLM Inference

GPU-based autoscaling

Use custom metrics for GPU utilization:

apiVersion: autoscaling/v2
kind: HorizontalPodAutoscaler
metadata:
  name: llm-hpa
spec:
  scaleTargetRef:
    apiVersion: apps/v1
    kind: Deployment
    name: llm-server
  minReplicas: 1
  maxReplicas: 10
  metrics:
  - type: Pods
    pods:
      metric:
        name: gpu_duty_cycle
      target:
        type: AverageValue
        averageValue: "80"

Best practices for inference autoscaling

  1. Use DCGM metrics: Golden path enables DCGM monitoring for GPU utilization metrics
  2. Set appropriate minReplicas: At least 1 for always-on serving; 0 for batch/on-demand
  3. Tune scale-down delay: LLM model loading is slow; use longer stabilization windows
  4. Consider queue depth: Scale on pending requests rather than pure GPU utilization for latency-sensitive workloads

Optimization Tips

  • Quantization: Use quantized models (GPTQ, AWQ) to reduce GPU memory and increase throughput
  • Batching: Configure model server batch size for throughput vs latency trade-off
  • Tensor parallelism: Split large models across multiple GPUs within a node
  • KV cache optimization: Tune --gpu-memory-utilization in vLLM for KV cache allocation

Troubleshooting

Issue Cause Fix
Invalid Unsupported tuple Re-run `gcloud container ai
: model/accelerator : : profiles list :
: combination : : --model=` :
GPU quota exceeded Regional quota limit Request quota increase or
: : : try a different region :
OOM on GPU Model too large for Use larger GPU, enable
: : accelerator : quantization, or use tensor :
: : : parallelism :
Slow cold start Large model loading from Use local SSD for model
: : registry : caching; pre-pull images :
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Overall Score

84/100

Grade

B

Good

Safety

88

Quality

82

Clarity

86

Completeness

78

Summary

This skill guides agents through deploying and optimizing AI/ML inference workloads on Google Kubernetes Engine (GKE), with support for GPUs, TPUs, and model servers like vLLM and Triton. It covers model discovery, manifest generation via `gcloud container ai profiles`, deployment, monitoring, hardware selection, autoscaling configuration, and troubleshooting for LLM serving at scale.

Detected Capabilities

kubernetes manifest deployment (apply_k8s_manifest)kubernetes resource inspection (get_k8s_resource, describe_k8s_resource)kubernetes monitoring (get_k8s_logs, get_k8s_rollout_status, list_k8s_events)gcloud CLI invocation (gcloud container ai profiles)YAML file reading and review

Trigger Keywords

Phrases that MCP clients use to match this skill to user intent.

deploy inference on gkegke gpu inferencellama model servinggke autoscaling inferencekubernetes llm deploymentvllm on gkegke accelerator selectiongke model optimization

Risk Signals

INFO

No destructive operations or credential access detected; skill operates within Kubernetes API and GCP managed services

overall
INFO

Model servers and container images sourced from official registries (Hugging Face); HF tokens referenced but handled via Kubernetes Secrets (not hardcoded)

Step 3 Review and Deploy
INFO

All operations scoped to authenticated GKE cluster with gcloud CLI; no cross-project or privilege escalation patterns

Prerequisites and Workflow
INFO

No shell execution of dynamic content; all commands are gcloud CLI with structured parameters

Workflow sections

Referenced Domains

External domains referenced in skill content, detected by static analysis.

www.apache.org

Use Cases

  • Deploy Llama, Gemma, or Mistral models to GKE for inference
  • Select optimal GPU/TPU accelerators (L4, H100, TPU v5p) for model serving workloads
  • Generate and deploy Kubernetes manifests for LLM inference servers (vLLM, TGI, Triton)
  • Configure HorizontalPodAutoscaler for inference workloads with GPU metrics
  • Optimize inference latency and throughput using quantization, batching, and tensor parallelism
  • Troubleshoot GPU quota, OOM, cold-start, and model/accelerator incompatibilities on GKE

Quality Notes

  • Clear scope boundaries: explicitly states when NOT to use (batch jobs, HPC queues refer to gke-batch-hpc)
  • Well-structured workflow with discovery → manifest generation → deployment → monitoring progression
  • Comprehensive accelerator comparison table with memory, cost, and use-case guidance
  • Good troubleshooting section maps common issues to root causes and fixes
  • Prerequisites clearly listed (Autopilot cluster, gcloud auth, quota requirements)
  • References MCP tools upfront and CLI-only alternatives
  • Autoscaling section includes best practices (DCGM metrics, minReplicas tuning, scale-down delay)
  • Optimization tips are actionable (quantization, batching, tensor parallelism, KV cache tuning)
  • Hugging Face token handling documented via Kubernetes Secrets rather than environment variables
  • Example commands provided for each step with realistic model/accelerator combinations
Model: claude-haiku-4-5-20251001Analyzed: Jun 28, 2026

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Version History

  1. v1.1

    Content updated

    ✦ AINo behavioral changes detected.

    2026-06-28

    Latest
  2. v1.0

    2026-06-24

    View This VersionInitial version

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