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Light Controlled Biohybrid Microbots
Pellicciotta, N.
;
Bagal, O.S.
;
Sosa, V.C.
;
Frangipane, G.
;
Vizsnyiczai, G. [Vizsnyiczai, Gaszton (Biofizika), szerző] Biofizikai Intézet (HRN SZBK)
;
Leonardo, R.D.
Angol nyelvű Szakcikk (Folyóiratcikk) Tudományos
Megjelent:
ADVANCED FUNCTIONAL MATERIALS 1616-301X 1616-3028
33
(39)
Paper: 2214801
2023
SJR Scopus - Biomaterials: D1
Azonosítók
MTMT: 33757584
DOI:
10.1002/adfm.202214801
WoS:
000961661000001
REAL:
175063
Scopus:
85151482760
Biohybrid microbots integrate biological actuators and sensors into synthetic chassis with the aim of providing the building blocks of next-generation micro-robotics. One of the main challenges is the development of self-assembled systems with consistent behavior and such that they can be controlled independently to perform complex tasks. Herein, it is shown that, using light-driven bacteria as propellers, 3D printed microbots can be steered by unbalancing light intensity over different microbot parts. An optimal feedback loop is designed in which a central computer projects onto each microbot a tailor-made light pattern, calculated from its position and orientation. In this way, multiple microbots can be independently guided through a series of spatially distributed checkpoints. By exploiting a natural light-driven proton pump, these bio-hybrid microbots are able to extract mechanical energy from light with such high efficiency that, in principle, hundreds of these systems can be controlled simultaneously with a total optical power of just a few milliwatts. © 2023 The Authors. Advanced Functional Materials published by Wiley-VCH GmbH.
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2024-12-04 10:12
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