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Kiarash Gordiz, Akanksha Menon, S. Yee (2017)
Interconnect patterns for printed organic thermoelectric devices with large fill factorsJournal of Applied Physics, 122
Mitsuhiro Ito, T. Koizumi, H. Kojima, T. Saito, M. Nakamura (2017)
From materials to device design of a thermoelectric fabric for wearable energy harvestersJournal of Materials Chemistry, 5
K. Kirihara, Qingshuo Wei, M. Mukaida, T. Ishida (2017)
Thermoelectric power generation using nonwoven fabric module impregnated with conducting polymer PEDOT:PSSSynthetic Metals, 225
Cong-cong Liu, Baoyang Lu, Jun Yan, Jingkun Xu, Ruirui Yue, Zhaojin Zhu, Shuyun Zhou, Xiujie Hu, Zhuo Zhang, Ping Chen (2010)
Highly conducting free-standing poly(3,4-ethylenedioxythiophene)/poly(styrenesulfonate) films with iThe Lancet
Ziyang Wang, V. Leonov, P. Fiorini, C. Hoof (2009)
Realization of a wearable miniaturized thermoelectric generator for human body applicationsSensors and Actuators A-physical, 156
Qian Wu, Jinlian Hu (2016)
Waterborne polyurethane based thermoelectric composites and their application potential in wearable thermoelectric textilesComposites Part B-engineering, 107
Akanksha Menon, Rylan Wolfe, S. Marder, J. Reynolds, S. Yee (2018)
Systematic Power Factor Enhancement in n‐Type NiETT/PVDF Composite FilmsAdvanced Functional Materials, 28
Akanksha Menon, E. Uzunlar, Rylan Wolfe, J. Reynolds, S. Marder, S. Yee (2017)
Metallo-organic n-type thermoelectrics: Emphasizing advances in nickel-ethenetetrathiolatesJournal of Applied Polymer Science, 134
M. Nishita, Seung-Yeol Park, T. Nishio, Koki Kamizaki, Zhichao Wang, Kota Tamada, T. Takumi, Ryuju Hashimoto, H. Otani, G. Pazour, V. Hsu, Y. Minami (2017)
Ror2 signaling regulates Golgi structure and transport through IFT20 for tumor invasivenessScientific Reports, 7
V. Leonov (2013)
Thermoelectric Energy Harvesting of Human Body Heat for Wearable SensorsIEEE Sensors Journal, 13
Xiaofeng Zheng, C. Liu, Yuying Yan, Qi Wang (2014)
A review of thermoelectrics research – Recent developments and potentials for sustainable and renewable energy applicationsRenewable & Sustainable Energy Reviews, 32
Zhisong Lu, Huihui Zhang, Cuiping Mao, Chang Li (2016)
Silk fabric-based wearable thermoelectric generator for energy harvesting from the human bodyApplied Energy, 164
Cong-cong Liu, F. Jiang, Mingyu Huang, Ruirui Yue, Baoyang Lu, Jingkun Xu, Guodong Liu (2011)
Thermoelectric Performance of Poly(3,4-Ethylenedioxy-thiophene)/Poly(Styrenesulfonate) Pellets and FilmsJournal of Electronic Materials, 40
Yong Du, K. Cai, S. Shen, R. Donelsonand, JY Xu, Hongxia Wang, Tong Lin (2017)
Multifold enhancement of the output power of flexible thermoelectric generators made from cotton fabrics coated with conducting polymerRSC Advances, 7
Li Peng, Guo Yang, Jiuke Mu, Hongzhi Wang, Qinghong Zhang, Yaogang Li (2016)
Single-walled carbon nanotubes/polyaniline-coated polyester thermoelectric textile with good interface stability prepared by ultrasonic inductionRSC Advances, 6
M. Mahmud, N. Huda, Shahjadi Farjana, M. Asadnia, Candace Lang (2018)
Recent Advances in Nanogenerator‐Driven Self‐Powered Implantable Biomedical DevicesAdvanced Energy Materials, 8
Akanksha Menon, Rylan Wolfe, Sampath Kommandur, S. Yee (2019)
Progress in Nickel‐Coordinated Polymers as Intrinsically Conducting n‐Type Thermoelectric MaterialsAdvanced Electronic Materials, 5
J. Bahk, Haiyu Fang, K. Yazawa, A. Shakouri (2015)
Flexible thermoelectric materials and device optimization for wearable energy harvestingJournal of Materials Chemistry C, 3
Rylan Wolfe, Akanksha Menon, T. Fletcher, S. Marder, J. Reynolds, S. Yee (2018)
Simultaneous Enhancement in Electrical Conductivity and Thermopower of n‐Type NiETT/PVDF Composite Films by AnnealingAdvanced Functional Materials, 28
S. Twaha, Jie Zhu, Yuying Yan, Bo Li (2016)
A comprehensive review of thermoelectric technology: materials, applications, modelling and performance improvementRenewable & Sustainable Energy Reviews, 65
Xuan Cao, Haitian Chen, X. Gu, Bilu Liu, Wenli Wang, Yu Cao, Fanqi Wu, Chongwu Zhou (2014)
Screen printing as a scalable and low-cost approach for rigid and flexible thin-film transistors using separated carbon nanotubes.ACS nano, 8 12
Hyeongdo Choi, Yongjun Kim, C. Kim, Hyeong Yang, M. Oh, B. Cho (2018)
Enhancement of reproducibility and reliability in a high-performance flexible thermoelectric generator using screen-printed materialsNano Energy, 46
H. Berger (1972)
Contact Resistance and Contact ResistivityJournal of The Electrochemical Society, 119
Lewis Cowen, Jonathan Atoyo, Matthew Carnie, Derya Baran, B. Schroeder (2017)
Review—Organic Materials for Thermoelectric Energy GenerationECS Journal of Solid State Science and Technology, 6
Z. Cao, M. Tudor, R. Torah, S. Beeby (2016)
Screen Printable Flexible BiTe–SbTe-Based Composite Thermoelectric Materials on Textiles for Wearable ApplicationsIEEE Transactions on Electron Devices, 63
Qinglin Jiang, Cong-cong Liu, Jingkun Xu, Baoyang Lu, Haijun Song, Hui Shi, Yuanyuan Yao, Long Zhang (2014)
Paper: An effective substrate for the enhancement of thermoelectric properties in PEDOT:PSSJournal of Polymer Science Part B, 52
Jason Ryan, D. Mengistie, R. Gabrielsson, Anja Lund, C. Müller (2017)
Machine-Washable PEDOT:PSS Dyed Silk Yarns for Electronic TextilesACS Applied Materials & Interfaces, 9
Integrating thermoelectric generators (TEGs) into textiles is attractive for body heat harvesting to power wearable electronics. Textile‐integrated TEGs have the advantage of conformity to the body that ensures efficient heat transfer and does not impede movement. Additive printing techniques and solution processable polymer‐based thermoelectric (TE) materials can be used for this purpose. However, a number of fabrication challenges limit the realization of a printed polymer‐based textile TEG using a low cost, scalable, and textile compatible process. In this work, stencil and transfer printing techniques are successfully employed to fabricate a 32‐leg device with a modest fill factor (≈30%) on a commercial sports fabric substrate. PEDOT:PSS and Poly[Na(NiETT)] are formulated into inks and used as the p‐type and the n‐type polymer materials, respectively. The textile‐integrated TE device yields an open circuit voltage of ≈3 mV at ΔT = 3 K. The fabrication process is scaled up to demonstrate an 864‐leg device that yields a voltage output of ≈47 mV. This work is the first demonstration of a textile TEG based on p‐ and n‐type conducting polymers capable of through‐plane body heat harvesting. It serves as a proof‐of‐concept for integrating TE devices into mainstream fabrics and clothing.
Advanced Materials Technologies – Wiley
Published: Jul 1, 2019
Keywords: ; ; ; ;
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