Enzyme-programmable microgel lasers for information encoding and anti-counterfeiting
Microscale laser emissions have emerged as a promising approach for information encoding and anti-counterfeiting for their feature-rich spectra and high sensitivity to the surrounding environment. Compared with artificial materials, natural responsive biomaterials enable a higher level of complexity...
Main Authors: | , , , , , , |
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Format: | Journal Article |
Language: | English |
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2022
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Online Access: | https://hdl.handle.net/10356/162052 |
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author | Gong, Xuerui Qiao, Zhen Liao, Yikai Zhu, Song Shi, Lei Kim, Munho Chen, Yu-Cheng |
author2 | School of Electrical and Electronic Engineering |
author_facet | School of Electrical and Electronic Engineering Gong, Xuerui Qiao, Zhen Liao, Yikai Zhu, Song Shi, Lei Kim, Munho Chen, Yu-Cheng |
author_sort | Gong, Xuerui |
collection | NTU |
description | Microscale laser emissions have emerged as a promising approach for information encoding and anti-counterfeiting for their feature-rich spectra and high sensitivity to the surrounding environment. Compared with artificial materials, natural responsive biomaterials enable a higher level of complexity and versatile ways for tailoring optical responses. However, precise control of lasing wavelengths and spatial locations with biomolecules remains a huge challenge. Here, a biologically programmable laser, in which the lasing can be manipulated by biomolecular activities at the nanoscale, is developed. Tunable lasing wavelengths are achieved by exploiting the swelling properties of enzyme-responsive hydrogel droplets in a Fabry-Pérot microcavity. Both experimental and theoretical means demonstrate that inner 3D network structures and external curvature of the hydrogel droplets lead to different lasing thresholds and resonance wavelengths. Finally, inkjet-printed multiwavelength laser encoding and anti-counterfeiting are showcased under different scalabilities and environments. Hyperspectral laser images are utilized as an advanced feature for a higher level of security. The biologically encoded laser will provide a new insight into the development of biosynthetic and bioprogrammable laser devices, offering new opportunities for secure communication and smart sensing. |
first_indexed | 2024-10-01T02:51:41Z |
format | Journal Article |
id | ntu-10356/162052 |
institution | Nanyang Technological University |
language | English |
last_indexed | 2024-10-01T02:51:41Z |
publishDate | 2022 |
record_format | dspace |
spelling | ntu-10356/1620522022-10-03T02:55:24Z Enzyme-programmable microgel lasers for information encoding and anti-counterfeiting Gong, Xuerui Qiao, Zhen Liao, Yikai Zhu, Song Shi, Lei Kim, Munho Chen, Yu-Cheng School of Electrical and Electronic Engineering School of Chemical and Biomedical Engineering Engineering::Electrical and electronic engineering Anti-Counterfeiting Biolasers Microscale laser emissions have emerged as a promising approach for information encoding and anti-counterfeiting for their feature-rich spectra and high sensitivity to the surrounding environment. Compared with artificial materials, natural responsive biomaterials enable a higher level of complexity and versatile ways for tailoring optical responses. However, precise control of lasing wavelengths and spatial locations with biomolecules remains a huge challenge. Here, a biologically programmable laser, in which the lasing can be manipulated by biomolecular activities at the nanoscale, is developed. Tunable lasing wavelengths are achieved by exploiting the swelling properties of enzyme-responsive hydrogel droplets in a Fabry-Pérot microcavity. Both experimental and theoretical means demonstrate that inner 3D network structures and external curvature of the hydrogel droplets lead to different lasing thresholds and resonance wavelengths. Finally, inkjet-printed multiwavelength laser encoding and anti-counterfeiting are showcased under different scalabilities and environments. Hyperspectral laser images are utilized as an advanced feature for a higher level of security. The biologically encoded laser will provide a new insight into the development of biosynthetic and bioprogrammable laser devices, offering new opportunities for secure communication and smart sensing. Agency for Science, Technology and Research (A*STAR) Ministry of Education (MOE) This research was supported by A*STAR under its AME IRG Grant (Project No. A20E5c0085). This research was also supported by Ministry of Education, Singapore, under grant AcRF TIER 1-2021-T1-001-040 RG46/21. 2022-10-03T02:55:23Z 2022-10-03T02:55:23Z 2022 Journal Article Gong, X., Qiao, Z., Liao, Y., Zhu, S., Shi, L., Kim, M. & Chen, Y. (2022). Enzyme-programmable microgel lasers for information encoding and anti-counterfeiting. Advanced Materials, 34(10), e2107809-. https://dx.doi.org/10.1002/adma.202107809 0935-9648 https://hdl.handle.net/10356/162052 10.1002/adma.202107809 34918404 2-s2.0-85123213575 10 34 e2107809 en A20E5c0085 AcRF TIER 1-2021-T1-001-040 RG46/21 Advanced Materials © 2022 Wiley-VCH GmbH. All rights reserved. |
spellingShingle | Engineering::Electrical and electronic engineering Anti-Counterfeiting Biolasers Gong, Xuerui Qiao, Zhen Liao, Yikai Zhu, Song Shi, Lei Kim, Munho Chen, Yu-Cheng Enzyme-programmable microgel lasers for information encoding and anti-counterfeiting |
title | Enzyme-programmable microgel lasers for information encoding and anti-counterfeiting |
title_full | Enzyme-programmable microgel lasers for information encoding and anti-counterfeiting |
title_fullStr | Enzyme-programmable microgel lasers for information encoding and anti-counterfeiting |
title_full_unstemmed | Enzyme-programmable microgel lasers for information encoding and anti-counterfeiting |
title_short | Enzyme-programmable microgel lasers for information encoding and anti-counterfeiting |
title_sort | enzyme programmable microgel lasers for information encoding and anti counterfeiting |
topic | Engineering::Electrical and electronic engineering Anti-Counterfeiting Biolasers |
url | https://hdl.handle.net/10356/162052 |
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