Nobify

Nobify is at the forefront of AI-driven edge computing, and Zeron has been instrumental in developing their software, hardware, and AI control for the end hardware points. From proof of concept (POC) to mass production, we’ve ensured that every component operates seamlessly to deliver top-tier performance across hundreds of endpoints. Our partnership with Aran has allowed us to create a robust and scalable solution tailored to Nobify’s innovative requirements.

Production:

2 operating systems with over 100 endpoints

Communication:

LTE

Chip:

Nvidia

Design & Engineering partner:

Aran

Development languages:

Python, React, Node.js
The project began with hours of recorded bird-fishpond videos captured by the Nobify team from various angles, cameras, times of day, and areas of the pond. To prepare the data for labeling, we extracted bird images and requested classification into categories such as swimming birds, distant birds, flying birds, standing birds, and birds in groups. Once the labeling was completed and we had a well-organized dataset, we initiated training of our AI model. Rigorous testing followed to ensure the model met the required performance and accuracy benchmarks. We tested different configurations and datasets using both YOLOv8 and R-CNN, but none of them met our benchmarks. To overcome the challenges, especially considering the edge device’s limited computational power, we implemented SAHI (Slicing Aided Hyper Inference). This approach allowed us to detect smaller objects by slicing the image, running inference on each slice, and merging the results. SAHI significantly improved performance for small object detection, which traditional models had missed. With this breakthrough, we not only passed our benchmark with flying colors, but we’re now ready to move on to full implementation and integration of the AI model into the edge device, ensuring optimal performance in real-world scenarios.
The system operates with the dedicated machine learning model that detects the bird and its location in the pond. Once a bird is identified, the system triggers a targeted deterrence mechanism to prevent the bird from approaching. This sophisticated software runs on the Control Unit, which is powered by a NVIDIA Jetson Orin NX/Orin Nano processor, enabling real-time bird detection and processing. The system features multiple camera units that capture the bird’s movement and manifold units that are part of the pneumatic system designed by Eran. This pneumatic system manages the deterrence actions, ensuring that the birds are kept at bay without harm. The overall software developed in the project also manages ERAN’s pneumatic components, integrating seamlessly into the mechanical side of the project. The software operates entirely on the edge device, managing the entire system locally without the need for an internet connection. A cellular connection is available for system monitoring, maintenance, data downloads, troubleshooting, and over-the-air updates. All data is stored for future model retraining, while trigger images are displayed on the dashboard, providing the client with a clear and comprehensive view of the system’s activity.