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Practical Edge AI Inference: Deploying Multi-Framework LLM Inference Environment on Jetson Orin Nano

This article introduces the Rimrock-Runtimes project, which provides a complete inference runtime benchmarking, configuration, and production environment setup solution for the Jetson Orin Nano Super 8GB. It covers multiple mainstream frameworks including llama.cpp, ONNX Runtime, and MLC-LLM, and supports the deployment of Gemma 4 and multimodal models.

边缘AIJetson OrinLLM推理llama.cppONNX RuntimeMLC-LLM模型量化多模态AIGemma嵌入式AI
Published 2026-04-23 20:47Recent activity 2026-04-23 20:50Estimated read 5 min
Practical Edge AI Inference: Deploying Multi-Framework LLM Inference Environment on Jetson Orin Nano
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Section 01

Practical Edge AI Inference: Guide to Multi-Framework LLM Deployment Project on Jetson Orin Nano

This article introduces the Rimrock-Runtimes open-source project, designed specifically for the Jetson Orin Nano Super 8GB. It provides benchmarking, configuration, and production deployment solutions for LLM inference environments across multiple frameworks (llama.cpp, ONNX Runtime, MLC-LLM), supports the deployment of Gemma 4 series models and multimodal AI, and helps developers solve framework selection challenges for edge devices.

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Section 02

Background and Motivation

With the rapid development of LLMs, efficiently running LLMs on edge devices has become a focus. The NVIDIA Jetson Orin Nano Super 8GB balances performance and cost-effectiveness well, but developers face difficulties in choosing among numerous inference frameworks and quantization schemes—thus the Rimrock-Runtimes project was born.

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Section 03

Project Overview and Supported Models

Rimrock-Runtimes is maintained by jsligar and covers mainstream inference frameworks: llama.cpp (lightweight hybrid inference), ONNX Runtime (cross-platform acceleration), and MLC-LLM (compilation optimization). It supports Gemma4 series models (optimized for different parameter scales) and multimodal AI deployment (image + text input processing).

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Section 04

Performance Benchmarking Methods

The project's benchmarking evaluation dimensions include: 1. Throughput (tokens per second, affected by batch size); 2. Time to First Token (TTFT, affects interactive experience); 3. Peak memory usage (ensure stability within 8GB memory); 4. Power efficiency (performance per watt, suitable for battery-powered scenarios).

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Section 05

Framework Comparison and Selection Recommendations

Based on benchmark data, each framework is suitable for different scenarios:

Framework Best Scenario Advantages Notes
llama.cpp Low-latency interaction Fast startup, low memory usage Basic functionality
ONNX Runtime Enterprise-level deployment Mature ecosystem and toolchain Requires model conversion
MLC-LLM Extreme performance optimization Full compilation, high throughput Long compilation time

Developers can choose the appropriate framework based on their scenarios.

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Section 06

Key Points for Production Environment Deployment

Production deployment requires attention to:

  1. Containerization: Provide Docker configurations to ensure environment consistency;
  2. Model quantization: 4-bit quantization (comparison of GPTQ/AWQ/GGUF) balances accuracy and performance;
  3. Thermal stability: Temperature monitoring and frequency throttling protection;
  4. Observability: Performance metric collection and error log recording.
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Section 07

Summary and Community Contributions

Rimrock-Runtimes provides practical engineering references for edge LLM inference and lowers deployment barriers. In the future, with advancements in model compression and inference engines, edge AI applications will become more widespread. The community can contribute by submitting model configurations, optimizing compilation parameters, adapting to hardware, and improving documentation.