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Triazine skeletal covalent organic frameworks: A versatile highly positive surface potential triboelectric layer for energy harvesting and self-powered applications

Title
Triazine skeletal covalent organic frameworks: A versatile highly positive surface potential triboelectric layer for energy harvesting and self-powered applications
Author(s)
Hajra, SugatoPanda, JagannathSwain, JaykishonKim, Hang-GyeomSahu, ManishaRana, Malay KumarSamantaray, RaghabendraKim, Hoe JoonSahu, Rojalin
Issued Date
2022-10
Citation
Nano Energy, v.101
Type
Article
Author Keywords
Covalent organic frameworkEnergy harvestingHand exerciseTriboelectric
Keywords
NANOGENERATORCATALYSTCOMPLEX
ISSN
2211-2855
Abstract
Covalent organic frameworks (COFs) with triazine skeleton have been developed via reticular chemistry. In this present work, a triazine-based nitrogen-rich organic moiety has been used for the COF synthesis and then tested for the output performance of a triboelectric nanogenerator (TENG) using the same. The synthesized COF has been characterized by several physical characterization techniques. For the first time, the surface potential of the prepared COF material was tested experimentally using Kelvin probe force microscopy, which indicates a very high positive triboelectric potential of 2.03 V. The single unit of COF-based TENG delivered 70 V, 0.6 μA, and 38 nC as an electrical output. In the case of multiunit TENG, the current and voltage values are boosted as the parallel connection of four units of TENG gave the peak-to-peak current output rises by 6.3 μA. In comparison, the series connection of four units of TENG gave a high peak-to-peak voltage of 175 V. This work describes the synthesis of N-rich COF material, fabrication of the TENG, and the excellent energy harvesting performance with the realization of low-cost self-powered hand strengthening device. This result paves the way to achieve fruitful exercise monitoring units towards improving lifestyle. © 2022 Elsevier Ltd
URI
http://hdl.handle.net/20.500.11750/17285
DOI
10.1016/j.nanoen.2022.107620
Publisher
Elsevier BV
Related Researcher
  • 김회준 Kim, Hoe Joon
  • Research Interests MEMS/NEMS; Micro/Nano Sensors; Piezoelectric Devices; Nanomaterials; Heat Transfer; Atomic Force Microscope
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Department of Robotics and Mechatronics Engineering Nano Materials and Devices Lab 1. Journal Articles

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