Optical & Scene Scoping
We analyze camera placement, frame rates, lighting conditions, privacy boundaries, and target visual events before selecting a model architecture.
We architect computer vision and Edge AI systems end to end—making latency, model precision, privacy boundaries, and hardware constraints explicit at every stage.
HIRZEXAReliable computer vision is an end-to-end engineering discipline—connecting frame capture, model optimization, edge deployment, and operator software.
We analyze camera placement, frame rates, lighting conditions, privacy boundaries, and target visual events before selecting a model architecture.
We train, fine-tune, and benchmark object detection, multi-object tracking, and activity recognition models using PyTorch, YOLO, and OpenCV.
We export and quantize models for ONNX Runtime and TensorRT (when supported) to achieve low-latency, on-device inference within hardware constraints.
We connect edge inference pipelines to FastAPI services, Dockerized deployments, device communication APIs, and live operator dashboards.
Inspect each stage of our six-step computer vision and Edge AI architecture.
Ingest live video streams from IP cameras, optical sensors, or local RTSP endpoints with resilient reconnection, frame pacing, and exposure handling.
We combine proven computer vision frameworks, edge inference runtimes, and modern backend services.
Training, fine-tuning, and evaluating object detection, multi-object tracking, and activity recognition models.
Real-time RTSP/optical stream ingestion, frame decoding, spatial calibration, and region-of-interest filtering.
Model quantization, graph optimization, and low-latency local inference on supported edge accelerators.
Asynchronous event ingestion, device-to-cloud telemetry, webhook alerts, and operator control APIs.
Reproducible packaging for on-premise edge appliances and scalable cloud inference services.
Real-time visual overlays, event timelines, assisted risk scoring, and human-in-the-loop alert workflows.
We evaluate detection, tracking, and false-positive rates against real camera angles, lighting conditions, and edge hardware budgets.
Processing video streams locally at the edge reduces latency, conserves bandwidth, and keeps sensitive visual feeds within defined boundaries.
Our vision software and alerts are built to surface structured context and assist human operators—never to replace human judgment.