Detect piling as it forms
Identify dangerous flock density in real time, before compression becomes a mortality event.
Project briefNVIDIA Innovation Lab Application
Nesteye combines computer vision, edge AI, and adaptive barn controls to detect risk, estimate flock weight, and intervene before preventable loss occurs.
Project objective
Poultry production still depends on periodic manual observation. Nesteye turns existing visual signals into continuous, actionable intelligence—without disrupting the flock.
Identify dangerous flock density in real time, before compression becomes a mortality event.
Turn overhead imagery into non-contact weight estimates without interrupting normal barn activity.
Read posture, behavior, movement, and thermal patterns to flag disease and mortality risk.
Trigger adaptive LED and sound cues that gently disperse piling and help restore healthy movement.
System architecture
The full perception-and-response loop runs locally. Operators get dependable insight even when connectivity is limited, while flock footage stays on site.
Continuous overhead RGB and thermal footage.
Segmentation, keypoints, behavior, and posture.
Density, weight, health, and mortality signals.
Adaptive LED and sound intervention.
Measured outcomes inform the next model cycle.
Model layer
Data strategy
A blended data program closes the gap between controlled research and the variability of real commercial barns.
Data and peer-reviewed findings from the University of Georgia, Texas A&M, and published commercial datasets.
Live footage from five commercial pilot barns across Texas and Washington anchors the system in operating conditions.
NVIDIA Omniverse and Isaac Sim vary camera height, angle, lighting, density, and flock behavior at scale.
Accelerated by NVIDIA
NVIDIA technology connects synthetic data generation, model development, video analytics, inference optimization, and edge deployment into one practical path to production.
Expert support would accelerate simulation fidelity, model optimization, and field-ready deployment—turning an active pilot system into a scalable commercial platform.
A physically grounded digital barn for repeatable synthetic data generation.
Controllable camera, lighting, density, and intervention scenarios.
Transfer learning and efficient fine-tuning for poultry-specific perception.
A real-time, multi-stream video analytics pipeline built for the edge.
Optimized inference with a target latency below 30 milliseconds per frame.
Private, resilient in-barn deployment without a dependency on the cloud.
Development plan
Work moves from simulation and fine-tuning to Jetson optimization and validation in active barns.
Weeks 01–02
Configure the simulation environment, ingest source data, and define evaluation baselines.
Weeks 03–05
Create diverse barn scenes across camera, lighting, density, and behavior conditions.
Weeks 05–09
Train and calibrate segmentation, weight, behavior, posture, and thermal models.
Weeks 09–11
Build the DeepStream pipeline and optimize models with TensorRT for Jetson.
Weeks 11–13
Measure accuracy, latency, and intervention performance in active commercial barns.
Week 14
Package the deployment, evaluation report, model assets, and next-stage roadmap.
Program deliverables
The program concludes with models, data, validation, and edge deployment assets that can move directly into an expanded pilot.
Download project briefWorking continuous flock-weight estimation model
Real-time piling detection and intervention system
Disease and mortality risk detection module
Reusable synthetic poultry-barn dataset
Field evaluation and performance report
Jetson-ready deployment package
Built to extend