A robotic honeycomb for interaction with a honeybee colony.

Area of Science:

• Biohybrid Systems
• Robotics in Ecology
• Collective Behavior Studies

Background:

• Robotic technologies can interact with living organisms, forming integrated societies of biological and artificial agents.
• Biocompatible robots with sensing and actuation are valuable tools for studying collective behaviors.
• Traditional methods are limited in observing complex animal societies.

Purpose of the Study:

• To investigate collective behaviors of the western honeybee (Apis mellifera) using a novel robotic system.
• To develop a robotic device capable of observing and modulating honeybee colony dynamics.
• To explore applications in enhancing pollinator survivability.

Main Methods:

• Designed and integrated a robotic system with thermal sensors and actuators into a beehive.
• Collected spatiotemporal thermal profiles of the honeybee winter cluster over several months.
• Applied dynamic thermal stimulation to observe and modulate the colony's response and reorganization.

Main Results:

• The robotic system successfully observed the bee colony by continuously collecting thermal data.
• The device reliably modulated the colony's response to thermal stimuli, influencing its spatial organization.
• The system was utilized in a 'life-support' mode to aid a colony experiencing thermal collapse.

Conclusions:

• Demonstrated a robotic device capable of autonomous closed-loop interaction with a large honeybee colony.
• Biohybrid societies enable the investigation of collective behaviors within a complete social context.
• The technology holds potential for augmenting the survivability of vital pollinators.