Paper Thermoelectrics: Merging Nanotechnology with Naturally Abundant Fibrous Material
Document Type
Article
Publication Date
8-31-2016
Abstract
The development of paper-based sensors, antennas, and energy-harvesting devices can transform the way electronic devices are manufactured and used. Herein we describe an approach to fabricate paper thermoelectric generators for the first time by directly impregnating naturally abundant cellulose materials with p- or n-type colloidal semiconductor quantum dots. We investigate Seebeck coefficients and electrical conductivities as a function of temperature between 300 and 400 K as well as in-plane thermal conductivities using Angstrom's method. We further demonstrate equipment-free fabrication of flexible thermoelectric modules using p- and n-type paper strips. Leveraged by paper's inherently low thermal conductivity and high flexibility, these paper modules have the potential to efficiently utilize heat available in natural and man-made environments by maximizing the thermal contact to heat sources of arbitrary geometry.
Identifier
84985903296 (Scopus)
Publication Title
ACS Applied Materials and Interfaces
External Full Text Location
https://doi.org/10.1021/acsami.6b05843
e-ISSN
19448252
ISSN
19448244
First Page
22182
Last Page
22189
Issue
34
Volume
8
Recommended Citation
Sun, Chengjun; Goharpey, Amir Hossein; Rai, Ayush; Zhang, Teng; and Ko, Dong Kyun, "Paper Thermoelectrics: Merging Nanotechnology with Naturally Abundant Fibrous Material" (2016). Faculty Publications. 10318.
https://digitalcommons.njit.edu/fac_pubs/10318
