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Additive manufacturing-based recycling of laboratory waste into energy harvesting device for self-powered applications

Title
Additive manufacturing-based recycling of laboratory waste into energy harvesting device for self-powered applications
Authors
Sahu, ManishaHajra, SugatoKim, Hang-GyeomRubahn, Horst-GünterKumar, Mishra YogendraKim, Hoe Joon
DGIST Authors
Sahu, Manisha; Hajra, Sugato; Kim, Hang-Gyeom; Rubahn, Horst-Günter; Kumar, Mishra Yogendra; Kim, Hoe Joon
Issue Date
2021-10
Citation
Nano Energy, 88, 106255
Type
Article
Author Keywords
3D printingEnergy harvestingLaboratory wasteRecyclingTriboelectric
Keywords
LaboratoriesNanogeneratorsRecyclingTriboelectricity3-D printing3D-printingElectrical outputEnergyEnergy harvesting deviceLaboratory wasteNanogeneratorsScaled-upSelf-poweredTriboelectric3D printers
ISSN
2211-2855
Abstract
The laboratory waste produced in several parts of the world has scaled up the pollution and adverse effect on human health in the present era. The “3 R” (reduce, reuse, and recycle) scheme is adopted by many communities for efficiently recovering waste products and utilizing them for the production of energy. In the present work, the laboratory waste is collected and directly utilized for fabricating a laboratory waste-based triboelectric nanogenerator (LW-TENG) operating in vertical contact-separation mode. The substrate, electrode, and triboelectric layer are randomly selected from lab waste. The waste plastic petri dishes were extruded into thin filament wires for 3D printing of the substrate for the LW-TENG. The effective electrical output is generated by LW-TENG having a triboelectric layer plastic-glass delivering voltage of 185 V, current of 1.25 μA, and power density of 8.1 μW/cm2 across the load resistance of 500 MΩ. The positive and negative triboelectric layers are altered and the electrical output is systematically investigated. Additionally, the LW-TENG device is attached to various locations of the laboratory to demonstrate the energy harvesting from the mechanical motions. It is also utilized for demonstrating real-time applications that could be beneficial as a self-powered human tracking device (HSD) that tracks the location of the human during an emergency and self-powered exercise counter. © 2021
URI
http://hdl.handle.net/20.500.11750/14003
DOI
10.1016/j.nanoen.2021.106255
Publisher
Elsevier Ltd
Related Researcher
  • Author Kim, Hoe Joon Nano Materials and Devices Lab
  • Research Interests MEMS/NEMS; Micro/Nano Sensors; Piezoelectric Devices; Nanomaterials; Heat Transfer; Atomic Force Microscope
Files:
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Collection:
Department of Robotics and Mechatronics EngineeringNano Materials and Devices Lab1. Journal Articles


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