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Augmented reality for the engineering of collective behaviours in microsystems

Microsystems composed of responsive particles or even living cells often operate in large numbers to perform tasks beyond the capabilities of each individual. Engineering collective behaviours in such systems could lead to breakthroughs in medicine, or entirely new applications. Key to many collective behaviours is the ability for micro-agents to communicate with their neighbours through chemical signaling, energy transfer (e.g. heat), or modification of the environment (stigmergy). However, implementing such communication modalities is typically challenging and time consuming. To simplify this process, we propose to use augmented reality (AR) to implement a new form of communication channel using light. Our AR Dynamic Optical Micro-Environment (AR Dome) is able to provide micro-agents with varying communication ranges and the ability to modify their environment in complex ways. AR is achieved through a custom made closed-loop system based on an ultra violet (UV) light projector and imaging apparatus. Using AR DOME, we show how micro-particles can be endowed with new communication capabilities and demonstrate propagation of an AR-based light communication signal through a population of micro-particles.