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NVIDIA Says TensorRT Edge-LLM Runs the MLPerf Agent Benchmark 6.4x Faster on Jetson

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TensorRT Edge-LLM completed an MLPerf edge-agent run 6.4x faster than NVIDIA's llama.cpp reference. The exact cache, quantization and stream settings matter.

NVIDIA Says TensorRT Edge-LLM Runs the MLPerf Agent Benchmark 6.4x Faster on Jetson

A 6.4x result sounds like a general product comparison. NVIDIA’s published evidence supports a narrower statement: one model, one Jetson, one harness and one highly specified inference configuration.

TensorRT Edge-LLM completed NVIDIA’s MLPerf Edge Agentic benchmark run in 24 minutes and 36 seconds on one Jetson AGX Thor Developer Kit. The company’s llama.cpp reference took 2 hours and 37 minutes, producing the reported 6.4x difference.

The benchmark scorecard

MeasurementNVIDIA-reported result
ModelQwen3.6-27B
HardwareOne Jetson AGX Thor Developer Kit with 128 GB unified memory
Completed turns1,007
Total TensorRT Edge-LLM time24 minutes 36 seconds
llama.cpp reference time2 hours 37 minutes
Output throughput52.33 tokens per second
Median time to first token247.12 milliseconds
Median output-token latency14.68 milliseconds
BFCL accuracy87.94 percent

These figures are company-reported. NVIDIA publishes the TensorRT Edge-LLM repository, an MLPerf-oriented release branch and configuration details, which makes the result more reproducible than an unsupported speed claim.

The 6.4x claim has a strict boundary

  • Scenario: SingleStream with concurrency one.
  • Power: Jetson running in MAXN mode.
  • Weights and activations: NVFP4.
  • KV cache: FP8.
  • Decoding: tree MTP enabled.
  • Cache state: approximately 96 percent hot.
  • Sampling: temperature zero and seed 42.
  • Reasoning: disabled.

Change any of those conditions and the ratio can move. Cold prompts may spend more time loading or processing context. Concurrent users change scheduling and memory pressure. Reasoning tokens can alter both latency and accuracy. A different quantization may improve fidelity while reducing throughput.

Why the hot-cache detail matters

A hot prefix cache is realistic when many requests share a stable system prompt, tool definitions or repeated document prefix. It is less representative when each edge task begins with a different camera frame, customer document or private context.

WorkloadLikely cache behaviorTest to add
Fixed factory assistantHigh reuse of tools and instructionsMeasure steady-state and restart behavior.
Mobile document agentShared system prompt, unique pagesSeparate prefix speed from image or document processing.
Offline field supportRepeated manuals with varying questionsMeasure cache size, eviction and retrieval accuracy.
Multi-tenant gatewayLower reuse and more concurrencyTest isolation, fairness and tail latency.

Accuracy and speed must move together

The reported 87.94 percent BFCL accuracy matters because aggressive quantization and speculative decoding can create a fast system that calls the wrong tool. A valid reproduction should confirm both throughput and task quality. Comparing only tokens per second would remove the acceptance boundary that makes an agent useful.

A reproduction plan for edge teams

  1. Use the published TensorRT Edge-LLM release branch and record the exact commit.
  2. Match the model, quantization, KV-cache format, power mode and harness.
  3. Reproduce the hot-cache run before changing anything.
  4. Run a cold-cache variant and report the new time to first token.
  5. Add concurrency at two, four and eight sessions if the product needs it.
  6. Turn reasoning on only if the production workflow uses it.
  7. Score function-call correctness and application-level task completion.
  8. Measure sustained power, thermal behavior and memory over a long session.

The MustHave.ai LLM latency and prefix-caching guide explains why cache state changes inference economics. Our AI GitHub repositories guide includes serving and evaluation projects useful for independent tests.

The practical verdict

NVIDIA’s result is meaningful because it demonstrates that a 27B-class tool-using model can complete a substantial agent benchmark on one edge device and because the company exposes a reproducible software path. The 6.4x number belongs to the published conditions. Buyers should repeat the run with their cache hit rate, concurrency, reasoning settings and accuracy threshold before sizing a deployment.

Primary sources

Checked September 19, 2026. Performance and accuracy figures are reported by NVIDIA for the stated configuration and have not been independently reproduced by MustHave.ai.

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