Layer‐by‐Layer Growth of Preferred‐Oriented MOF Thin Film on Nanowire Array for High‐Performance Chemiresistive Sensing

High‐quality MOF thin films with high orientation and controlled thickness are extremely desired for applications. However, they have been only successfully fabricated on flat substrates. Those MOF 2D thin films are limited by low exposed area and slow mass transport. To overcome these issues, MOF 3...

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Veröffentlicht in:Angewandte Chemie International Edition 2021-12, Vol.60 (49), p.25758-25761
Hauptverfasser: Lin, Yuan, Li, Wen‐Hua, Wen, Yingyi, Wang, Guan‐E, Ye, Xiao‐Liang, Xu, Gang
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container_end_page 25761
container_issue 49
container_start_page 25758
container_title Angewandte Chemie International Edition
container_volume 60
creator Lin, Yuan
Li, Wen‐Hua
Wen, Yingyi
Wang, Guan‐E
Ye, Xiao‐Liang
Xu, Gang
description High‐quality MOF thin films with high orientation and controlled thickness are extremely desired for applications. However, they have been only successfully fabricated on flat substrates. Those MOF 2D thin films are limited by low exposed area and slow mass transport. To overcome these issues, MOF 3D thin films with good crystallinity, preferred orientation, and precisely controllable thickness in nanoscale were successfully prepared in a controllable layer‐by‐layer manner on nanowire array substrate for the first time. The as‐prepared Cu‐HHTP 3D thin film is superior to corresponding 2D thin films and showed one of the highest sensitivity, lowest LOD, and fastest response among all reported chemiresistive NH3 sensing materials at RT. This work provides a feasible approach to grow preferred‐oriented 3D MOF thin film, offering new perspectives for constructing MOF‐based heterostructures for advanced applications. Semiconducting MOF 3D thin films with good crystallinity, preferred orientation, as well as precisely controllable thickness in nanoscale were successfully prepared in a layer‐by‐layer manner on a nanowire array substrate. Compared to 2D thin films, the Cu‐HHTP 3D thin film shows one of the highest sensitivity, lowest LOD and fastest response speed among all reported chemiresistive NH3 sensing materials at RT.
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source Wiley Online Library Journals Frontfile Complete
subjects Ammonia
Arrays
electrical devices
gas sensors
Heterostructures
Mass transport
metal-organic frameworks
Nanotechnology
Nanowires
Preferred orientation
semiconductor
Substrates
Thickness
Thin films
title Layer‐by‐Layer Growth of Preferred‐Oriented MOF Thin Film on Nanowire Array for High‐Performance Chemiresistive Sensing
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