High-resolution image of a large honeybee swarm cluster, with a few brightly marked bees performing a waggle dance on the outer surface.

Bio-Inspired Resilience - Part 3: Bee Democracy-Balancing Speed and Accuracy Through Quorum Sensing

Bio-Inspired Resilience: Nature's Blueprints for Adaptive Systems 1 Bio-Inspired Resilience - Part 1: The Wood Wide Web-How Electrical Signals and Fungi Create a Forest Brain 2 Bio-Inspired Resilience - Part 2: Ant Colonies as Superorganisms-When Simple Rules Create Stabilizing Hysteresis 3 Bio-Inspired Resilience - Part 3: Bee Democracy-Balancing Speed and Accuracy Through Quorum Sensing 4 Bio-Inspired Resilience - Part 4: Coral Reefs-The Built-in Redundancy of Nature's Symbiotic Cities 5 Bio-Inspired Resilience - Part 5: Applying Biomimicry to Human Systems-Building Robustness from Nature's Blueprint ← Series Home The Conundrum of the Queenless Choice In late spring, a honeybee colony casts a swarm—a mass exodus involving the old queen and about 10,000 workers—to found a new daughter colony. This crowd clusters, and its scout bees embark on a life-or-death mission: choosing a new home. This decision is not merely about comfort; colonies that choose poorly—such as a cavity too small to store the 20+ kilograms (45+ lb) of honey needed for winter—will perish. The central paradox is that this critical, multi-attribute decision is made by hundreds of tiny-brained scouts acting collectively, without the queen, who is merely the “Royal Ovipositer,” serving only as a genetic anchor. The swarm’s success hinges on solving a “best-of-N” choice problem: accurately selecting the single best option from dozens of possibilities discovered by noisy, independent scouts. ...

Soft robots and swarm drones inspired by nature

Nature's Engineers - Part 8: Swarms and Soft Robots-Where Biomimicry Is Heading

Key Takeaways Swarm intelligence: Ant colonies and bee swarms solve complex problems without central control—inspiring algorithms that run everything from delivery routes to data centers. Soft robotics: Inspired by octopuses and worms, flexible robots can squeeze through gaps and handle fragile objects in ways rigid machines can't. Self-assembly: DNA origami and protein folding inspire materials that build themselves—flat sheets that fold into 3D structures when triggered. Adaptive materials: Pine cones and wheat awns respond to humidity without any electronics. Materials that sense and respond could create buildings that breathe. Beyond Copying: Understanding Process The first wave of biomimicry copied products: kingfisher beaks became train noses; shark skin became swimsuit textures; honeycomb became aircraft panels. ...