Prompt

How do I choose between different GPU inference platforms for production model serving?

Artificial Intelligence / MLOps1 observationLast seen Jul 20, 2026

Latest observation

Jul 20, 2026OpenAI APIWeb search: off

Choosing a GPU inference platform for production model serving is mostly about matching the platform to your constraints: latency, throughput, model size, traffic pattern, operational burden, and cost.

1) Start with your serving requirements

Ask these first:

  • Latency target: p50, p95, p99?
  • Throughput: requests/sec, tokens/sec, images/sec?
  • Traffic shape: steady, bursty, or spiky?
  • Model type: LLM, vision, embeddings, ranking, multimodal?
  • Model size / precision: FP16, INT8, quantized, tensor parallel?
  • Batching tolerance: can requests wait 10–50 ms to batch?
  • SLO / availability: do you need multi-region or active-active?
  • Compliance: VPC, on-prem, data residency, audit logs?
  • Ops model: managed service vs self-hosted?

These answers narrow the choice more than any vendor feature list.

2) Compare platforms on the right dimensions

A. Performance

Key questions:

  • How well does it use the GPU?
  • Does it support dynamic batching, continuous batching, KV cache reuse, speculative decoding, tensor/pipeline parallelism?
  • Is it optimized for your model family?

For LLMs, look for:

  • Token latency and decode throughput
  • Support for paged KV cache / memory-efficient attention
  • Streaming response support
  • Multi-GPU sharding

For vision or classical inference:

  • Batch throughput, CUDA kernel optimization, and model compilation support matter more.

B. Cost

Look beyond raw GPU hourly cost:

  • GPU utilization efficiency
  • Autoscaling granularity
  • Idle time / warm pool costs
  • Network egress
  • Managed platform markup
  • Engineer time for ops and tuning

A platform with slightly higher GPU price can still be cheaper if it keeps GPUs busier.

C. Operational complexity

  • Can you deploy with Docker/Kubernetes?
  • Does it integrate with your CI/CD?
  • How hard is canarying, rollback, and versioning?
  • Does it expose metrics, tracing, and logs?
  • Can it autoscale on queue depth, tokens/sec, or concurrency?

D. Reliability and isolation

  • Multi-AZ support?
  • Health checks and restart behavior?
  • Support for model warmup?
  • Request draining on deploys?
  • GPU failure handling?

E. Flexibility

  • Can you bring custom code and custom preprocessing/postprocessing?
  • Does it support custom CUDA kernels or Python handlers?
  • Can you run multiple models on one GPU?
  • Does it support open-source engines and frameworks?

3) Common platform categories

Managed inference APIs

Examples: hosted model APIs or managed endpoints.

Best for: fastest time-to-market, low ops burden
Pros:

  • Easy deployment
  • Built-in scaling and monitoring
  • Good for prototypes and many production use cases

Cons:

  • Less control over optimization
  • Can be expensive at scale
  • Vendor lock-in and limited customization

Self-hosted inference on Kubernetes or VMs

Examples: vLLM, TGI, Triton, TensorRT-LLM, Ray Serve, BentoML.

Best for: cost-sensitive, custom, or regulated workloads
Pros:

  • Full control
  • Better tuning for your workload
  • Portability across clouds/on-prem

Cons:

  • More operational burden
  • You own scaling, upgrades, and debugging

GPU cloud / inference platforms

Examples: specialized GPU hosting and serverless inference providers.

Best for: teams that want some control without full infra ops
Pros:

  • Faster setup than DIY
  • Often good autoscaling and deployment UX
  • Can be cost-effective for moderate scale

Cons:

  • Less control than self-hosted
  • Platform-specific quirks and limits

4) Match platform to workload

If you serve LLMs

Prioritize:

  • Continuous batching
  • Streaming support
  • KV cache management
  • Tensor parallelism
  • Low cold-start times
  • Support for quantized models

Often strong choices:

  • vLLM for high-throughput open-source serving
  • TGI for simpler LLM deployment
  • TensorRT-LLM for maximum NVIDIA-optimized performance
  • Managed LLM endpoints if ops simplicity matters most

If you serve vision / CV / embeddings

Prioritize:

  • Batch throughput
  • Model compilation
  • Triton support
  • Multi-model routing
  • Fast preprocessing pipelines

Often strong choices:

  • Triton Inference Server
  • TensorRT-optimized pipelines
  • BentoML / Ray Serve for flexible app integration

5) Evaluate with a benchmark that matches production

Don’t trust vendor benchmarks alone.

Benchmark using:

  • Your actual model
  • Real input lengths / image sizes / embedding dimensions
  • Real concurrency patterns
  • Your latency SLO
  • Warm and cold starts
  • Mixed traffic if applicable

Measure:

  • p50/p95/p99 latency
  • throughput
  • GPU memory usage
  • utilization
  • error rate
  • cost per 1k requests or per million tokens

6) Important “gotchas”

  • Batching improves throughput but can hurt tail latency
  • Cold starts matter for serverless-style platforms
  • GPU memory is often the real bottleneck for LLMs
  • Quantization can change quality
  • Autoscaling delays can break burst handling
  • Networking and CPU preprocessing can bottleneck the GPU
  • Framework overhead can dominate for small models

7) A simple decision guide

Choose managed inference if:

  • You want minimal ops
  • You’re early stage
  • You can accept less customization

Choose self-hosted if:

  • You need maximum control
  • You care about cost at scale
  • You have special compliance or latency needs

Choose specialized GPU inference platforms if:

  • You want a middle ground
  • You need quicker deployment than DIY
  • Your workload fits the platform’s strengths

8) Practical shortlist approach

For each candidate platform, score it 1–5 on:

  • Latency
  • Throughput
  • Cost
  • Ease of deployment
  • Autoscaling
  • Observability
  • Compliance
  • Flexibility
  • Vendor lock-in risk

Then run a pilot on 1–3 platforms and compare using your real traffic.


If you want, I can also give you:

  1. a comparison matrix of popular platforms, or
  2. a step-by-step evaluation checklist you can use with your team.

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