Promoting thermoelectric technology to mitigate global climate change

C1: Waste heat recovery

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C1: Waste heat recovery

Ideal thermoelectric properties for a cost effective low grade waste heat recovery

Kazuaki Yazawa and Ali Shakouri

novel applications of TEG for waste heat recovery of high-power LED lighting

H. L. Tsai and L. W. Lai

Synthesis of skutterudite materials for industrial applications

Adam Peng, Bed Poudel, Luke Nally, Al Waring, Gregg Bosak, and Clint Ballinger

Thermoelectric Exhaust Heat Recovery with Heat Pipe-based Thermal Control

F.P. Brito¹N. Antunes²E. Hançer³L. M. Goncalves²J. Martins¹

Thermoelectric Generators based on Jet Impingement Concept

Sumeet Kumar¹, Andrei O. Dubitsky¹, Stephen D. Heister^1,2, Xianfan Xu¹and James R. Salvador³

Updraft gasifier integrated with thermoelectric generator using different biomass pellets

J. Jamradloedluk¹ and C. Lertsatitthanakorn²

Pages

Sorting Categories

A: Materials

A1: Low temperature materials
A2: Medium temperature materials
A3: High temperature materials
A4: Theory - bulk materials
A5: Nanoscale and low dimensional effects
A6: Characterization
A7: Developments in measurement techniques and preparation methods

B: Elements, modules & systems

B1: Contacting and insulation
B2: Module design
B3: Power management and load balancing
B4: Thermal management and dynamics
B5: Energy system design and optimization
B6: DC/DC inverters
B7: Device and system performance
B8: Modelling

C: End use applications and markets

C1: Waste heat recovery
C2: Automotive
C3: Cooling
C4: Generators
C5: Sensors
C6: Novel applications
C7: Markets