Real queen-detection systems run an object-detection model (a CNN such as a YOLO variant) over a photo or video frame of the comb, scoring every candidate region and drawing a bounding box wherever the score clears a chosen confidence threshold. This scene renders a simplified 3D hive frame with one queen, a few drones, and a crowd of workers, then simulates that scoring process live so you can see how each pipeline choice changes what the model "sees."
Because a colony has only one queen among tens of thousands of workers, queen detection is an extreme class-imbalance problem — labelling teams often have to actively curate "hard negative" drone and cluster crops so the model learns to tell a queen apart from look-alikes rather than just learning "rare thing is probably the queen."
A live 3D hive-frame scene where a simulated object detector scans for the queen among workers and drones, drawing bounding boxes only where its confidence score clears the threshold you set.
Detection scores are driven by distinguishing features (the queen's longer, tapered abdomen and larger size), then perturbed by simulated image noise and model tier — exactly the trade-offs that decide accuracy in a real deployed detector.
Pick a model tier, drag the confidence threshold and noise sliders, and change bee density. Watch the bounding boxes, queen confidence, false-positive count, and simulated latency update live.
Because only one bee per colony is a queen, queen detection is an extreme class-imbalance problem — labelling teams deliberately curate "hard negative" drone crops so the model learns real distinguishing features, not just rarity.