Computer Vision is experiencing unprecedented growth at the edge, driven by the demand for real-time data processing, enhanced privacy, and operational efficiency. This article delves into deploying a comprehensive Computer Vision solution using Barbara Edge Platform, focusing on the integration of Barbara Video Tools and the cutting-edge Ultralytics YOLOv8 application.
The convergence of powerful edge devices, advanced AI models, and robust edge orchestrators is making it possible to deploy Computer Vision solutions efficiently and at scale, marking a new era of intelligent, decentralized computing. Edge-based Computer Vision applications require sophisticated orchestration to ensure consistent performance, scalability, and efficiency.
We’ll explore the architecture in detail and walk you through the integration of video processing, AI inference, and real-time visualization.
The deployment architecture includes:
To deploy our solution at the edge, we'll start by establishing a central communication hub: an MQTT Broker. This broker will facilitate the seamless sharing of video streams and telemetry data among all involved applications.
The MQTT Broker can be effortlessly deployed on an Edge Node with just a few clicks, requiring minimal configuration for connection, exposed ports, etc.
Next, we’ll set up the Video Reader, a key component from the Barbara Video Solutions Tools. This tool efficiently ingests video streams from various sources, processes them, and streams the output in H264 format via MQTT. Following this, we’ll deploy the Ultralytics YOLOv8 Inference Server, an application designed to subscribe to MQTT topics and process the video streams provided by the Video Reader.
It will then perform advanced AI tasks such as:
The server comes pre-trained with models for common datasets like COCO and OpenImage. Additionally, it allows you to upload and fine-tune custom detection models using a web file browser. For this specific use case, we'll employ the "coco_yolov8n" model for object detection.
The processed video frames, along with generated telemetry data (inference time, object counts, etc.), will be shared via MQTT.
To visualize the output, we'll deploy a Video Player application from Barbara marketplace. This application will display the composite video stream generated by the Ultralytics YOLOv8 application.
Once the Video Player application is installed, the video visualization can be accessed just by opening a new browser tab and navigating to port 5080 (also defined in the configuration).
To store and visualize the telemetry data generated by the Ultralytics YOLOv8 application, we'll deploy three additional applications:
Now, we can access the Grafana dashboard to visualize telemetry data in real-time. Simply access port 13000 (configured during installation) to view the predefined dashboard, which we imported using a JSON file during the app configuration.
For businesses, deploying a Computer Vision solution at one facility is rarely enough, they need to replicate it across multiple locations or integrate it into larger workflows. While this article has focused on deploying the solution to a single edge node, the true potential of the Barbara platform lies in its ability to scale across multiple edge nodes.
Barbara's batch command functionality enables the simultaneous installation of identical application sets on numerous edge nodes, each with tailored configurations to match specific use case requirements. This powerful feature significantly streamlines both, installation and configuration processes, saving considerable time and effort.
Barbara, as an Edge Orchestration Management platform, offers several significant advantages when deploying computer vision applications to a set of edge nodes:
Deploying, updating, and monitoring Computer Vision systems across numerous edge devices requires a robust orchestration platform that seamlessly orchestrate the entire lifecycle of both the models and the edge devices they operate on, ensuring efficiency, reliability, and scalability.
By leveraging Barbara, organizations can accelerate the deployment of Computer Vision applications to edge nodes, improve performance, and reduce operational costs.