Announcing ONNX Runtime Availability in the NVIDIA Jetson Zoo for High Performance Inferencing

Microsoft and NVIDIA have collaborated to build, validate and publish the ONNX Runtime Python package and Docker container for the NVIDIA Jetson platform…

Natalie Kershaw
5 min readintermediate
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Overview

The article announces the availability of ONNX Runtime for the NVIDIA Jetson platform, highlighting its benefits for high-performance inferencing in edge AI systems. It details how developers can leverage ONNX Runtime to run models from various frameworks efficiently on Jetson devices.

What You'll Learn

1

How to integrate ONNX Runtime in applications for edge AI inferencing

2

Why ONNX Runtime improves model performance on NVIDIA Jetson devices

3

How to deploy AI applications using Docker on Jetson

4

When to use TensorRT with ONNX Runtime for optimized inferencing

Prerequisites & Requirements

  • Familiarity with AI model frameworks like PyTorch and TensorFlow
  • Basic understanding of Docker and Python package management(optional)

Key Questions Answered

What is ONNX Runtime and how does it benefit NVIDIA Jetson users?
ONNX Runtime is a high-performance inferencing engine that allows models from various frameworks to run efficiently on NVIDIA Jetson devices. It optimizes models to leverage the device's hardware accelerators, enhancing performance and reducing power consumption.
How can developers deploy AI applications on Jetson using ONNX Runtime?
Developers can deploy AI applications on Jetson by using the pre-built Docker image or the standalone Python package of ONNX Runtime. This enables easy integration of ONNX models into applications for efficient inferencing on edge devices.
What are the key features of ONNX Runtime v1.4?
ONNX Runtime v1.4 introduces performance optimizations for popular Transformer models, improved quantization support, and expanded compatibility with new hardware accelerators. This release enhances both inferencing and training capabilities for AI applications.
How does ONNX Runtime optimize models for different hardware configurations?
ONNX Runtime optimizes models by taking advantage of the specific hardware accelerators available on the device. This ensures that applications achieve the best possible inference throughput while maintaining a consistent API for developers.

Key Statistics & Figures

Daily inference requests handled
over 20 billion
This statistic highlights the extensive usage and reliability of ONNX Runtime across various devices.

Technologies & Tools

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Backend
Onnx Runtime
Used for high-performance inferencing of AI models on NVIDIA Jetson devices.
Tools
Docker
Facilitates the deployment of AI applications on the Jetson platform.
Backend
Tensorrt
Accelerates AI inferencing when used in conjunction with ONNX Runtime.

Key Actionable Insights

1
Integrate ONNX Runtime into your AI applications to leverage its performance benefits on Jetson devices.
Using ONNX Runtime allows for faster inferencing and reduced power consumption, making it ideal for edge AI applications where efficiency is crucial.
2
Utilize the pre-built Docker image for ONNX Runtime to simplify deployment processes.
This approach streamlines the setup of AI applications on Jetson, enabling developers to focus on building features rather than managing dependencies.
3
Explore the use of TensorRT alongside ONNX Runtime for enhanced inferencing performance.
TensorRT can provide additional optimizations for specific models, making it beneficial for applications that require high throughput and low latency.

Common Pitfalls

1
Failing to optimize models for the specific hardware can lead to suboptimal performance.
Developers should ensure that they leverage the capabilities of ONNX Runtime to fully utilize the hardware accelerators available on Jetson devices.
2
Neglecting to test the application with various input sizes may result in unexpected behavior.
It's important to validate the application with different data inputs to ensure robustness and performance consistency.

Related Concepts

AI Inferencing
Model Optimization Techniques
Docker Deployment Strategies