Colloidal Nanoplatelets‐Based Soft Matter Technology for Photonic Interconnected Networks: Low‐Threshold Lasing and Polygonal Self‐Coupling Microlasers
Soft matter‐based microlasers are widely regarded as excellent building blocks for realizing photonic interconnected networks in optoelectronic chips, owing to their flexibility and functional network topology. However, the potential of these devices is hindered by challenges such as poor lasing sta...
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Published in | Laser & photonics reviews Vol. 18; no. 1 |
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Main Authors | , , , , , , , , , , , , |
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Abstract | Soft matter‐based microlasers are widely regarded as excellent building blocks for realizing photonic interconnected networks in optoelectronic chips, owing to their flexibility and functional network topology. However, the potential of these devices is hindered by challenges such as poor lasing stability, high lasing threshold, and gaps in knowledge regarding cavity interconnection characteristics. In this study, the first demonstration of a high‐quality, low‐threshold nanoplatelets (NPLs)‐based polymer microfiber laser fabricated using capillary immersion techniques and its photonic interconnected networks are presented. CdSe/CdS@Cd1‐xZnxS core/buffer shell@graded‐shell NPLs with high optical gain characteristics are adopted as the gain medium. The study achieves a lasing threshold below 14.8 µJ cm−2, a single‐mode quality (Q)‐factor of ≈5500, and robust lasing stability in the fabricated NPLs‐based microfibers. Furthermore, the study pioneers the exploration of polygonal self‐coupling microlasers and the optical characteristics of their interconnected fiber network. Based on the signal generation mechanism observed in the photonic networks, an interconnected NPLs‐based fiber network structure achieving single‐mode lasing emission and laser mode modulation is successfully designed. The work contributes a novel method for realizing microlasers fabricated via soft‐matter technologies and provides a key foundation and new insights for unit design and programming for future photonic network systems.
The optical characteristics of high‐quality, low‐threshold nanoplatelets‐based soft matter microfiber lasers and their interconnected optical networks are investigated. This work provides a preliminary foundation and new insights for unit design and programming for future photonic network systems. |
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AbstractList | Abstract
Soft matter‐based microlasers are widely regarded as excellent building blocks for realizing photonic interconnected networks in optoelectronic chips, owing to their flexibility and functional network topology. However, the potential of these devices is hindered by challenges such as poor lasing stability, high lasing threshold, and gaps in knowledge regarding cavity interconnection characteristics. In this study, the first demonstration of a high‐quality, low‐threshold nanoplatelets (NPLs)‐based polymer microfiber laser fabricated using capillary immersion techniques and its photonic interconnected networks are presented. CdSe/CdS@Cd
1‐x
Zn
x
S core/buffer shell@graded‐shell NPLs with high optical gain characteristics are adopted as the gain medium. The study achieves a lasing threshold below 14.8 µJ cm
−2
, a single‐mode quality (
Q
)‐factor of ≈5500, and robust lasing stability in the fabricated NPLs‐based microfibers. Furthermore, the study pioneers the exploration of polygonal self‐coupling microlasers and the optical characteristics of their interconnected fiber network. Based on the signal generation mechanism observed in the photonic networks, an interconnected NPLs‐based fiber network structure achieving single‐mode lasing emission and laser mode modulation is successfully designed. The work contributes a novel method for realizing microlasers fabricated via soft‐matter technologies and provides a key foundation and new insights for unit design and programming for future photonic network systems. Soft matter‐based microlasers are widely regarded as excellent building blocks for realizing photonic interconnected networks in optoelectronic chips, owing to their flexibility and functional network topology. However, the potential of these devices is hindered by challenges such as poor lasing stability, high lasing threshold, and gaps in knowledge regarding cavity interconnection characteristics. In this study, the first demonstration of a high‐quality, low‐threshold nanoplatelets (NPLs)‐based polymer microfiber laser fabricated using capillary immersion techniques and its photonic interconnected networks are presented. CdSe/CdS@Cd1‐xZnxS core/buffer shell@graded‐shell NPLs with high optical gain characteristics are adopted as the gain medium. The study achieves a lasing threshold below 14.8 µJ cm−2, a single‐mode quality (Q)‐factor of ≈5500, and robust lasing stability in the fabricated NPLs‐based microfibers. Furthermore, the study pioneers the exploration of polygonal self‐coupling microlasers and the optical characteristics of their interconnected fiber network. Based on the signal generation mechanism observed in the photonic networks, an interconnected NPLs‐based fiber network structure achieving single‐mode lasing emission and laser mode modulation is successfully designed. The work contributes a novel method for realizing microlasers fabricated via soft‐matter technologies and provides a key foundation and new insights for unit design and programming for future photonic network systems. Soft matter‐based microlasers are widely regarded as excellent building blocks for realizing photonic interconnected networks in optoelectronic chips, owing to their flexibility and functional network topology. However, the potential of these devices is hindered by challenges such as poor lasing stability, high lasing threshold, and gaps in knowledge regarding cavity interconnection characteristics. In this study, the first demonstration of a high‐quality, low‐threshold nanoplatelets (NPLs)‐based polymer microfiber laser fabricated using capillary immersion techniques and its photonic interconnected networks are presented. CdSe/CdS@Cd1‐xZnxS core/buffer shell@graded‐shell NPLs with high optical gain characteristics are adopted as the gain medium. The study achieves a lasing threshold below 14.8 µJ cm−2, a single‐mode quality (Q)‐factor of ≈5500, and robust lasing stability in the fabricated NPLs‐based microfibers. Furthermore, the study pioneers the exploration of polygonal self‐coupling microlasers and the optical characteristics of their interconnected fiber network. Based on the signal generation mechanism observed in the photonic networks, an interconnected NPLs‐based fiber network structure achieving single‐mode lasing emission and laser mode modulation is successfully designed. The work contributes a novel method for realizing microlasers fabricated via soft‐matter technologies and provides a key foundation and new insights for unit design and programming for future photonic network systems. The optical characteristics of high‐quality, low‐threshold nanoplatelets‐based soft matter microfiber lasers and their interconnected optical networks are investigated. This work provides a preliminary foundation and new insights for unit design and programming for future photonic network systems. |
Author | Sun, Handong Zhang, Zitong Durmusoglu, Emek Goksu Yang, Jun Demir, Hilmi Volkan Thung, Yi Tian Zhang, Lin Xiao, Lian Lew, Wen Siang Duan, Rui He, Yichen Lee, Calvin Xiu Xian Li, Hanyang |
Author_xml | – sequence: 1 givenname: Rui orcidid: 0009-0006-9197-5728 surname: Duan fullname: Duan, Rui email: rui.duan@ntu.edu.sg organization: Nanyang Technological University – sequence: 2 givenname: Yi Tian surname: Thung fullname: Thung, Yi Tian organization: Nanyang Technological University – sequence: 3 givenname: Zitong surname: Zhang fullname: Zhang, Zitong organization: Xi'an Modern Chemistry Research Institute – sequence: 4 givenname: Emek Goksu orcidid: 0000-0001-6840-8342 surname: Durmusoglu fullname: Durmusoglu, Emek Goksu organization: Nanyang Technological University – sequence: 5 givenname: Yichen surname: He fullname: He, Yichen organization: Tianjin University – sequence: 6 givenname: Lian surname: Xiao fullname: Xiao, Lian organization: Nanyang Technological University – sequence: 7 givenname: Calvin Xiu Xian orcidid: 0000-0002-5426-2482 surname: Lee fullname: Lee, Calvin Xiu Xian organization: Nanyang Technological University – sequence: 8 givenname: Wen Siang orcidid: 0000-0002-5161-741X surname: Lew fullname: Lew, Wen Siang organization: Nanyang Technological University – sequence: 9 givenname: Lin orcidid: 0000-0003-0545-1110 surname: Zhang fullname: Zhang, Lin organization: Tianjin University – sequence: 10 givenname: Hanyang orcidid: 0000-0001-9744-6006 surname: Li fullname: Li, Hanyang organization: Harbin Engineering University – sequence: 11 givenname: Jun surname: Yang fullname: Yang, Jun organization: Guangdong University of Technology – sequence: 12 givenname: Hilmi Volkan orcidid: 0000-0003-1793-112X surname: Demir fullname: Demir, Hilmi Volkan email: hvdemir@ntu.edu.sg organization: Bilkent University – sequence: 13 givenname: Handong orcidid: 0000-0002-2261-7103 surname: Sun fullname: Sun, Handong email: hdsun@ntu.edu.sg organization: Nanyang Technological University |
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Snippet | Soft matter‐based microlasers are widely regarded as excellent building blocks for realizing photonic interconnected networks in optoelectronic chips, owing to... Abstract Soft matter‐based microlasers are widely regarded as excellent building blocks for realizing photonic interconnected networks in optoelectronic chips,... |
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SubjectTerms | colloidal nanoplatelets compositional engineering Coupling Laser modes Lasing Microfibers Microlasers Network topologies Optical properties Optoelectronics photonic interconnected networks Photonics Platelets (materials) Polygons self‐coupling microlasers Signal generation single‐mode lasing Stability |
Title | Colloidal Nanoplatelets‐Based Soft Matter Technology for Photonic Interconnected Networks: Low‐Threshold Lasing and Polygonal Self‐Coupling Microlasers |
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