Deploying AI Applications with NVIDIA EGX on NVIDIA Jetson Xavier NX Microservers

Modern expectations for agile capabilities and constant innovation—with zero downtime—calls for a change in how software for embedded and edge devices are…

Ankita Sharma
13 min readadvanced
--
View Original

Overview

The article discusses deploying AI applications using the NVIDIA EGX platform on NVIDIA Jetson Xavier NX microservers. It highlights the benefits of cloud-native paradigms for edge computing, outlines the installation process for the EGX stack, and provides a use case for deploying intelligent video analytics applications.

What You'll Learn

1

How to install the EGX 2.0 stack on the Jetson Xavier NX Developer Kit

2

How to deploy intelligent video analytics applications using NVIDIA DeepStream

3

Why cloud-native paradigms are essential for edge computing

Prerequisites & Requirements

  • Basic understanding of Kubernetes and containerization concepts
  • Access to NVIDIA Jetson Xavier NX Developer Kit

Key Questions Answered

What are the key components of a cloud-native software stack?
The key components of a cloud-native software stack include AI containers, Kubernetes for orchestration, and Helm charts for application deployment. These components enable rapid development and deployment of applications at the edge while ensuring scalability and management efficiency.
How do you install Kubernetes on the Jetson Xavier NX?
To install Kubernetes on the Jetson Xavier NX, you need to start Docker, install kubelet, kubeadm, and kubectl, and then initialize the Kubernetes cluster. Specific commands are provided in the article to facilitate this process.
What is the purpose of the NVIDIA EGX platform?
The NVIDIA EGX platform is designed to provide a cloud-native Kubernetes and container-based software environment that enables quick provisioning and management of NVIDIA Jetson-based microservers. It allows enterprises to leverage cloud technologies for edge device deployment.
What are Helm charts and how are they used?
Helm charts are a package format for Kubernetes that simplifies the configuration, deployment, and updating of applications on Kubernetes clusters. They allow DevOps teams to share and manage applications efficiently, enhancing development-to-production cycles.

Key Statistics & Figures

AI compute performance
21 TOPs
The NVIDIA Jetson Xavier NX provides 21 TOPs of AI compute in just 15W of power.
Kubernetes version
1.17.5
The article specifies that Kubernetes version 1.17.5 is used in the installation process.
Helm/Tiller version
3.1.0
The installation of Helm/Tiller version 3.1.0 is detailed in the article.

Technologies & Tools

Some links below are affiliate links. We may earn a commission if you make a purchase.

Platform
Nvidia Egx
Used for deploying AI applications on edge devices.
Orchestration
Kubernetes
Used for automating deployment, scaling, and management of containerized applications.
Package Manager
Helm
Used for managing Kubernetes applications through Helm charts.
Framework
Nvidia Deepstream
Used for building and deploying intelligent video analytics applications.

Key Actionable Insights

1
Utilize the NVIDIA EGX platform to streamline the deployment of AI applications at the edge.
This approach allows for leveraging cloud-native technologies, which can significantly reduce deployment time and improve scalability for edge devices.
2
Implement Helm charts for managing Kubernetes applications effectively.
Using Helm charts can simplify the deployment process and ensure that applications are consistently configured across different environments.
3
Leverage NVIDIA DeepStream for building intelligent video analytics applications.
DeepStream provides a robust framework that can enhance the performance and scalability of video analytics solutions deployed on edge devices.

Common Pitfalls

1
Failing to properly configure the Docker daemon can lead to issues with running NVIDIA containers.
It's crucial to set the default runtime to 'nvidia' in the Docker configuration to ensure compatibility with NVIDIA's container runtime.
2
Not initializing the Kubernetes cluster correctly can prevent pods from being scheduled.
Ensure to follow the initialization steps carefully, including disabling swap and applying the correct pod network CIDR.

Related Concepts

Cloud-native Application Development
Container Orchestration With Kubernetes
AI And Machine Learning Deployment Strategies