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    Coating of Conducting and Insulating Threads with Porous MOF Particles through Langmuir-Blodgett Technique

    Year: 2021

    Journal: Nanomaterials, Volume 11, JAN

    Authors: Rauf, Sakandar; Andres, Miguel A.; Roubeau, Olivier; Gascon, Ignacio; Serre, Christian; Eddaoudi, Mohamed; Salama, Khaled N.

    Organizations: King Abdullah University of Science and Technology (KAUST), Saudi Arabia; AMPM center under the CCF grant; KAUST Sensor Initiative; KAUST visiting student program; Spanish MINECO [MAT2016-78257-R, MAT2017-86826-R]; FEDER [MAT2016-78257-R, MAT2017-86826-R, E31_17R]; Aragon Government (DGA) [E31_17R]

    Keywords: metal-organic framework (MOF); MIL-96(Al); Langmuir-Blodgett (LB) films; fiber; thread; conductive thread; thin films; textile coatings; functional textiles

    The Langmuir-Blodgett (LB) method is a well-known deposition technique for the fabrication of ordered monolayer and multilayer thin films of nanomaterials onto different substrates that plays a critical role in the development of functional devices for various applications. This paper describes detailed studies about the best coating configuration for nanoparticles of a porous metal-organic framework (MOF) onto both insulating or conductive threads and nylon fiber. We design and fabricate customized polymethylmethacrylate sheets (PMMA) holders to deposit MOF layers onto the threads or fiber using the LB technique. Two different orientations, namely, horizontal and vertical, are used to deposit MIL-96(Al) monolayer films onto five different types of threads and nylon fiber. These studies show that LB film formation strongly depends on deposition orientation and the type of threads or fiber. Among all the samples tested, cotton thread and nylon fiber with vertical deposition show more homogenous monolayer coverage. In the case of conductive threads, the MOF particles tend to aggregate between the conductive thread's fibers instead of forming a continuous monolayer coating. Our results show a significant contribution in terms of MOF monolayer deposition onto single fiber and threads that will contribute to the fabrication of single fiber or thread-based devices in the future.
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