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Department of Robotics and Mechatronics Engineering
Bio-Micro Robotics Lab
1. Journal Articles
Synthesis of ultra-thin tellurium nanoflakes on textiles for high-performance flexible and wearable nanogenerators
He, Wen
;
Huynh Van Ngoc
;
Qian, Yong Teng
;
Hwang, Jae Seok
;
Yan, Ya Ping
;
Choi, Hongsoo
;
Kang, Dae Joon
Department of Robotics and Mechatronics Engineering
Bio-Micro Robotics Lab
1. Journal Articles
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Title
Synthesis of ultra-thin tellurium nanoflakes on textiles for high-performance flexible and wearable nanogenerators
Issued Date
2017-01
Citation
He, Wen. (2017-01). Synthesis of ultra-thin tellurium nanoflakes on textiles for high-performance flexible and wearable nanogenerators. Applied Surface Science, 392, 1055–1061. doi: 10.1016/j.apsusc.2016.09.157
Type
Article
Author Keywords
Textile
;
Tellurium nanoflake
;
Bending
;
Compressing
;
Nanogenerators
Keywords
Bending
;
Bending (Forming)
;
Compressing
;
Compression Testing
;
Compressive Forces
;
DEVICES
;
Driving Frequencies
;
Electrical Energy
;
Electronic Equipment Testing
;
ENERGY
;
Film
;
GENERATOR
;
Gold Coatings
;
Green Light emitting Diodes
;
High-Power Generation
;
Light emitting Diodes
;
Mechanical Energies
;
Nanogenerators
;
Nanotechnology
;
NANOWIRE ARRAYS
;
Open Circuit Voltage
;
Tellurium
;
Tellurium Compounds
;
Tellurium Nanoflake
;
Textile
;
Textiles
;
TRIBOELECTRIC NANOGENERATOR
;
V OUTPUT VOLTAGE
;
Wearable Technology
ISSN
0169-4332
Abstract
We report that ultra-thin tellurium (Te) nanoflakes were successfully grown on a sample of a gold-coated textile, which then was used as an active piezoelectric material. An output voltage of 4V and a current of 300nA were obtained from the bending test under a driving frequency of 10Hz. To test the practical applications, Te nanoflake nanogenerator (TFNG) device was attached to the subject's arm, and mechanical energy was converted to electrical energy by means of periodic arm-bending motions. The optimized open-circuit voltage and short-circuit current density of approximately 125V and 17μA/cm2, respectively, were observed when a TFNG device underwent a compression test with a compressive force of 8N and driving frequency of 10Hz. This high-power generation enabled the instantaneous powering of 10 green light-emitting diodes that shone without any assistance from an external power source. © 2016 Elsevier B.V.
URI
http://hdl.handle.net/20.500.11750/1594
DOI
10.1016/j.apsusc.2016.09.157
Publisher
Elsevier B.V.
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