Turn MLPerf v6.1 into a cost-per-token model for your serving stack
A five-step checklist turns MLPerf v6.1 throughput into a cost-per-token model for GPUs, serving software, and capacity.
The stack under your AI product — models, serving, and what it costs
A five-step checklist turns MLPerf v6.1 throughput into a cost-per-token model for GPUs, serving software, and capacity.
Treat multi-provider failover as correlated until you can prove the capacity, cloud, and region paths are independent.
A production upgrade checklist for the new SGLang release: build lane, API contract, dead flags, cache benchmark, and load-time validation.
Use a five-point vLLM plugin checklist to separate fleet-ready non-NVIDIA accelerators from lab demos before you commit hardware.
Use a decode-only slice only when split prefill/decode economics beat baseline after latency penalty and rack amortization.
A pre-patch checklist for self-hosted serving: inventory endpoints, enforce auth, bind private networks, disable weight updates, and measure exposure.
A shared vLLM stack needs a pre-upgrade test matrix for MRV2 support, fallback triggers, admission controls, and removed architectures before the old runner disappears.
Upgrade when the workload earns it, and keep the new multi-sequence path out of general serving.
Use a checklist to decide when a unified cache tree beats separate caches for long-prefix serving.
Replace offline compile workflows and removed backend calls with PyTorch-native execution, then validate serving before fleet rollout.
Benchmark tokens per user at SLO and cost per token on the target accelerator before choosing a model, vendor, or chip.
Treat draft-model speculative decoding as a two-artifact serving budget: two downloads, two KV pools, and one acceptance-length target.
Adopt a Kubernetes inference control plane when it deletes batch, routing, flow-control, or prefill/decode custom code; stay on bare engines when upgrades are cheaper.
Small fleets should verify pins, imports, drift, and baselines before chasing serving latency.
Use SGLang v0.5.17's session cache and weight daemon only when repeated agent sessions or frequent large-model restarts make the operational cost worth it.
A serving checklist for agentic workloads: keep turn-level state, pin sessions to cache-holding ranks, and scale prefill and decode separately.
Use a five-step checklist to test whether TPUv7's lower modeled cost survives latency, concurrency, procurement, and open-source model assumptions.
Compare an inference exchange quote to your token cost, GPU-hour cost, and p99 latency SLA before reserving capacity.
Treat the CS-4 launch speed claim as a hypothesis until TTFT, sustained throughput, cost per million tokens, and model compatibility survive your workload.
A search spike is a symptom; use error rate, p95 latency, queue depth, and cost per 1k tokens to choose reroute, scale, degrade, or pay.
Treat a third-party endpoint as a routing policy, then check provider cost, throughput, fallback filters, routing mode, and failover before production.
Run a GPU-hour and token-volume test to decide whether VMware private AI cloud inference beats public per-token pricing for enterprise products.
A serving topology is a data-placement decision: compare egress, p95 latency, residency, tenancy, and migration cost before choosing.
Pick the cheapest GPU that holds latency, memory headroom, and cost per token inside your real token-length and cache-hit profile.
Treat TTFT as a prefill cost: set a prompt-token budget, then choose batching, quantization, and routing that buy first-token latency without wrecking throughput or spend.
Treat every AI serving dependency as a costed failure surface: map it, set an SLO, define a fallback, cap downtime cost, and drill it.
Turn model capability into a cost-bounded service with batching, cache reuse, routing, autoscaling, rate limits, and SLO observability.