Almost everything we know about honey bee behaviour traces back to a handful of pivotal experiments. This lab replays two of the most famous: Karl von Frisch's decoding of the waggle dance (Nobel Prize, 1973) and Thomas Seeley's discovery that swarms choose a new nest through a distributed, democratic quorum process.
Seeley's quorum-sensing model for bee swarms is now used as an analogy in collective-decision research on everything from neuron firing thresholds to robot swarms — a case where insect behaviour directly inspired engineering.
A 3D lab replaying two of the most influential experiments in honey bee science: von Frisch's decoding of the waggle dance, and Seeley's discovery of quorum-sensing nest-site selection in swarms.
In waggle-dance mode, the run's tilt from vertical equals the angle between food and sun, and its duration encodes distance. In quorum mode, scouts recruit more visitors to better sites, and the whole swarm relocates once one site reaches a quorum of simultaneous scouts.
Pick an experiment from the dropdown. In waggle-dance mode, adjust food angle, distance and sun azimuth. In quorum mode, set the quorum threshold and scouting speed, then watch competing sites accumulate votes until one wins.
Karl von Frisch won the 1973 Nobel Prize for the waggle dance; decades later, Thomas Seeley's quorum-sensing model for swarm nest-site choice became a landmark case study in collective decision-making, cited far beyond entomology.