Uploaded September 2025 | Updated September 2026, 2 weeks ago
Despite their promise, today’s biohybrid robots typically underperform their fully synthetic counterparts and their potential as predicted from a reductionist assessment of constituents.
Many systems represent enticing proofs of concept with limited practical applicability. Most remain confined to controlled laboratory settings and lack feasibility in complex real-world environments.
Developing biohybrid robots is currently a painstaking, bespoke process, and the resulting systems are routinely inadequately characterized. Complex, intertwined relationships between component, interface, and system performance are poorly understood, and methodologies to guide informed design of biohybrid systems are lacking.
The HyBRIDS ARC opportunity seeks ideas to address the question: How can synthetic and biological components be integrated to enable biohybrid platforms that outperform traditional robotic systems?
Despite their promise, today’s biohybrid robots typically underperform their fully synthetic counterparts and their potential as predicted from a reductionist assessment of constituents.
Many systems represent enticing proofs of concept with limited practical applicability. Most remain confined to controlled laboratory settings and lack feasibility in complex real-world environments.
Developing biohybrid robots is currently a painstaking, bespoke process, and the resulting systems are routinely inadequately characterized. Complex, intertwined relationships between component, interface, and system performance are poorly understood, and methodologies to guide informed design of biohybrid systems are lacking.
The HyBRIDS ARC opportunity seeks ideas to address the question: How can synthetic and biological components be integrated to enable biohybrid platforms that outperform traditional robotic systems?
