Magnetically programmed diffractive robotics

Microscopic robots with features comparable with the wavelength of light offer new ways of probing the microscopic world and controlling light at the microscale. We introduce a new class of magnetically controlled microscopic robots (microbots) that operate at the visible-light diffraction limit, which we term diffractive robots. We combined nanometer-thick mechanical membranes, programmable nanomagnets, and diffractive optical elements to create untethered microbots small enough to diffract visible light and flexible enough to undergo complex reconfigurations in millitesla-scale magnetic fields. We demonstrated their applications, including subdiffractive imaging by using a variant of structured illumination microscopy, tunable diffractive optical elements for beam steering and focusing, and force sensing with piconewton sensitivity.

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Publication Details

Journal
Science
Published
2024-11-28
DOI
https://doi.org/10.1126/science.adr2177
Citations
41
Primary Topic
Micro and Nano Robotics
Type
article
Field-Weighted Citation Impact
12.75
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article

Magnetically programmed diffractive robotics

Tanner Pearson, Paul L. McEuen, Francesco Monticone, Melody X. Lim et al.
41 citations
Science
Micro and Nano Robotics
12.75
article

Magnetically programmed diffractive robotics

Tanner Pearson, Paul L. McEuen, Francesco Monticone, Melody X. Lim, Zexi Liang, Conrad L. Smart, Mohamed Ismail Abdelrahman, Itai Cohen
article en
41 citations

Abstract

Microscopic robots with features comparable with the wavelength of light offer new ways of probing the microscopic world and controlling light at the microscale. We introduce a new class of magnetically controlled microscopic robots (microbots) that operate at the visible-light diffraction limit, which we term diffractive robots. We combined nanometer-thick mechanical membranes, programmable nanomagnets, and diffractive optical elements to create untethered microbots small enough to diffract visible light and flexible enough to undergo complex reconfigurations in millitesla-scale magnetic fields. We demonstrated their applications, including subdiffractive imaging by using a variant of structured illumination microscopy, tunable diffractive optical elements for beam steering and focusing, and force sensing with piconewton sensitivity.

ScienceVol. 386(6725)
Cornell University (US)
Affordable and clean energy
Openalex Percentile: Top 1%
Micro and Nano Robotics
12.75
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