Computer Vision Engineer (Sports Video Analytics)
Коротко
Designs video algorithmic pipelines for detection, multi-object tracking, and action recognition at GPU/CUDA level; develops camera calibration, homography · Needs: 2+ years production Computer Vision experience focused on video analytics, sports video domain expertise, Python, PyTorch or TensorFlow, OpenCV, tracking
Описание от работодателя
We are looking for a Computer Vision Engineer to join one of our international clients on an outstaff basis.
🎯 Core Responsibilities
Video Algorithmic Pipelines: Design and stitch together custom video processing workflows (Detection ➔ Multi-Object Tracking ➔ Action Recognition) directly in memory (GPU/CUDA level) to minimize latency.
Camera Calibration & Homography: Develop robust algorithms for automatic pitch/field line detection, lens distortion compensation, and 2D-to-3D coordinate mapping (homography estimation).
Advanced Multi-Object Tracking (MOT): Optimize tracking algorithms (Kalman filters, deep embedding matching) to handle dense crowds, severe occlusions, and ID switches under fast-paced sports dynamics.
Custom Model Adaptation: Fine-tune and structurally modify state-of-the-art CV architectures (YOLO-style detectors, Vision Transformers) specifically for sports domains and low-resolution/far-angle edge cases.
🛠 Technical Requirements
CV Experience: 2+ years of production-proven commercial experience in Computer Vision, with a heavy focus on Video Analytics.
Domain Expertise: Solid, demonstrable experience with sports video data, player tracking, or highly dynamic multi-agent scenes.
Hard Skills: Exceptional Python and deep understanding of PyTorch or TensorFlow.
Strong foundation in classical computer vision geometry (projective geometry, epipolar geometry, camera matrices, OpenCV).
Hands-on experience with modern tracking frameworks (e.g., ByteTrack, OC-SORT) or writing proprietary tracking logic.
Experience optimizing models for inference (TensorRT, ONNX, Triton Inference Server).
Engineering Mindset: Ability to profile vision algorithms, identify execution bottlenecks, and optimize for throughput/latency without losing precision.