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Unveiling InTe for flexible thermoelectric applications with enhanced performance via Bi/Se co-doping and MnO₂ integration. [PDF]
Sci RepShankar MR, Prabhu AN, Nayak R.
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Functional Polymers for Ionic Thermoelectrics: Multiscale Design Strategies for Ion Dynamics, Mechanics, and Energy Harvesting. [PDF]
Adv MaterKim S, Kwon JH, Kang J, Moon HC.
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Low-power biomimetic ionic thermoelectric device for multi-gas olfaction. [PDF]
Natl Sci RevLiu G +9 more
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Ion diffusion overestimates figures of merit in polymeric mixed conductors. [PDF]
Nat CommunShahi M +7 more
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This Striking Blue Made Pigment History. Could Red Be Next? [PDF]
ACS Cent SciArnold C.
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Next steps for organic thermoelectrics
Nature Reviews Materials, Chong-An Di, Wang Dongyang
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Modeling thermoelectric transport in organic materials
Physical Chemistry Chemical Physics, 2012Thermoelectric energy converters can directly convert heat to electricity using semiconducting materials via the Seebeck effect and electricity to heat via the Peltier effect. Their efficiency depends on the dimensionless thermoelectric figure of merit of the material, which is defined as zT = S(2)σT/κ with S, σ, κ, and T being the Seebeck coefficient,
Dong, Wang +4 more
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THERMOELECTRIC PROPERTIES OPTIMIZATION OF PEDOT:PSS FOR ORGANIC THERMOELECTRIC GENERATOR
202371 pages ; The thermoelectric effect, otherwise known as “Seebeck effect”, is the direct conversion of a temperature difference between two dissimilar electrical conductors or semiconductors to an electrical voltage. By making use of this process, the thermoelectric generator (TEG) becomes a promising technology for the waste heat recovery. Compared to
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