Electronically integrated, mass-manufactured, microscopic robots
Marc Z. Miskin (),
Alejandro J. Cortese,
Kyle Dorsey,
Edward P. Esposito,
Michael F. Reynolds,
Qingkun Liu,
Michael Cao,
David A. Muller,
Paul L. McEuen () and
Itai Cohen ()
Additional contact information
Marc Z. Miskin: Cornell University
Alejandro J. Cortese: Cornell University
Kyle Dorsey: Cornell University
Edward P. Esposito: Cornell University
Michael F. Reynolds: Cornell University
Qingkun Liu: Cornell University
Michael Cao: Cornell University
David A. Muller: Cornell University
Paul L. McEuen: Cornell University
Itai Cohen: Cornell University
Nature, 2020, vol. 584, issue 7822, 557-561
Abstract:
Abstract Fifty years of Moore’s law scaling in microelectronics have brought remarkable opportunities for the rapidly evolving field of microscopic robotics1–5. Electronic, magnetic and optical systems now offer an unprecedented combination of complexity, small size and low cost6,7, and could be readily appropriated for robots that are smaller than the resolution limit of human vision (less than a hundred micrometres)8–11. However, a major roadblock exists: there is no micrometre-scale actuator system that seamlessly integrates with semiconductor processing and responds to standard electronic control signals. Here we overcome this barrier by developing a new class of voltage-controllable electrochemical actuators that operate at low voltages (200 microvolts), low power (10 nanowatts) and are completely compatible with silicon processing. To demonstrate their potential, we develop lithographic fabrication-and-release protocols to prototype sub-hundred-micrometre walking robots. Every step in this process is performed in parallel, allowing us to produce over one million robots per four-inch wafer. These results are an important advance towards mass-manufactured, silicon-based, functional robots that are too small to be resolved by the naked eye.
Date: 2020
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DOI: 10.1038/s41586-020-2626-9
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