Gold Nanowire Chiral Ultrathin Films with Ultrastrong and Broadband Optical Activity

An ultrastrong and broadband chiroptical response is key but remains challenging for many device applications. A simple and cost‐effective bottom‐up method is introduced to fabricate large‐area long‐range ordered chiral ultrathin films with the Langmuir–Schaeffer technique using gold nanowires as bu...

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Veröffentlicht in:Angewandte Chemie 2017-04, Vol.129 (18), p.5137-5142
Hauptverfasser: Lv, Jiawei, Hou, Ke, Ding, Defang, Wang, Dawei, Han, Bing, Gao, Xiaoqing, Zhao, Man, Shi, Lin, Guo, Jun, Zheng, Yonglong, Zhang, Xi, Lu, Chenguang, Huang, Ling, Huang, Wei, Tang, Zhiyong
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container_end_page 5142
container_issue 18
container_start_page 5137
container_title Angewandte Chemie
container_volume 129
creator Lv, Jiawei
Hou, Ke
Ding, Defang
Wang, Dawei
Han, Bing
Gao, Xiaoqing
Zhao, Man
Shi, Lin
Guo, Jun
Zheng, Yonglong
Zhang, Xi
Lu, Chenguang
Huang, Ling
Huang, Wei
Tang, Zhiyong
description An ultrastrong and broadband chiroptical response is key but remains challenging for many device applications. A simple and cost‐effective bottom‐up method is introduced to fabricate large‐area long‐range ordered chiral ultrathin films with the Langmuir–Schaeffer technique using gold nanowires as building blocks. Significantly, as‐prepared ultrathin films display giant optical activity across a broad wavelength range covering visible and near infrared regions with an anisotropic factor of up to 0.285, which is the record value for bottom‐up techniques. Detailed experimental result and theoretical analysis disclose that such remarkable optical activity originates from birefringence and dichroism of the well‐aligned Au nanowire layers in the ultrathin films. The universality of this facile strategy for constructing chiral ultrathin films is further demonstrated with many other one‐dimensional nanomaterials. Kontrolliert chiral: Ein allgemeines Herstellungsverfahren für chirale Filme nutzt die Langmuir‐Blodgett‐Technik sowie Nanodrähte als Bausteine. Die kontrolliert aufgebauten Strukturen verfügen über eine außergewöhnlich starke optische Aktivität und sind über eine große Bandbreite responsiv.
doi_str_mv 10.1002/ange.201701512
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A simple and cost‐effective bottom‐up method is introduced to fabricate large‐area long‐range ordered chiral ultrathin films with the Langmuir–Schaeffer technique using gold nanowires as building blocks. Significantly, as‐prepared ultrathin films display giant optical activity across a broad wavelength range covering visible and near infrared regions with an anisotropic factor of up to 0.285, which is the record value for bottom‐up techniques. Detailed experimental result and theoretical analysis disclose that such remarkable optical activity originates from birefringence and dichroism of the well‐aligned Au nanowire layers in the ultrathin films. The universality of this facile strategy for constructing chiral ultrathin films is further demonstrated with many other one‐dimensional nanomaterials. Kontrolliert chiral: Ein allgemeines Herstellungsverfahren für chirale Filme nutzt die Langmuir‐Blodgett‐Technik sowie Nanodrähte als Bausteine. 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A simple and cost‐effective bottom‐up method is introduced to fabricate large‐area long‐range ordered chiral ultrathin films with the Langmuir–Schaeffer technique using gold nanowires as building blocks. Significantly, as‐prepared ultrathin films display giant optical activity across a broad wavelength range covering visible and near infrared regions with an anisotropic factor of up to 0.285, which is the record value for bottom‐up techniques. Detailed experimental result and theoretical analysis disclose that such remarkable optical activity originates from birefringence and dichroism of the well‐aligned Au nanowire layers in the ultrathin films. The universality of this facile strategy for constructing chiral ultrathin films is further demonstrated with many other one‐dimensional nanomaterials. Kontrolliert chiral: Ein allgemeines Herstellungsverfahren für chirale Filme nutzt die Langmuir‐Blodgett‐Technik sowie Nanodrähte als Bausteine. 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subjects Anisotropy
Birefringence
Broadband
Chemistry
Chiralität
Dichroism
Electronics
Gold
Langmuir-Blodgett-Filme
Nanodrähte
Nanomaterials
Nanotechnology
Nanowires
Near infrared radiation
Optical activity
Selbstorganisation
Strategy
Theoretical analysis
Thin films
Wavelength
title Gold Nanowire Chiral Ultrathin Films with Ultrastrong and Broadband Optical Activity
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