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Thermoelectronic energy conversion: Concepts and materials

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Abstract

Thermoelectronic energy conversion can potentially provide an exceptionally efficient way to convert heat into electric power. Key components of such converters are materials with designed, small work functions. We present the principles of thermoelectronic energy conversion and discuss the advantages and challenges of the conversion process, as well the state of the art of the respective research.

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Acknowledgements

We gratefully acknowledge productive collaborations and discussions with G. Gassler, T.H. Geballe, P. Hansmann, G. Hassink, S. Meir, C. Stephanos, and Z. Zhong. A. Kyriazis thanks the Max Planck–UBC Center for Quantum Materials for support. This work was supported by the DFG (Leibniz-Preis program).

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Authors and Affiliations

  1. Department of Solid State Quantum Electronics, Max Planck Institute for Solid State Research, Germany

    R. Wanke, W. Voesch, I. Rastegar, A. Kyriazis, W. Braun & J. Mannhart

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  1. R. Wanke
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  2. W. Voesch
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  3. I. Rastegar
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  4. A. Kyriazis
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  5. W. Braun
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  6. J. Mannhart
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Correspondence to R. Wanke.

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Wanke, R., Voesch, W., Rastegar, I. et al. Thermoelectronic energy conversion: Concepts and materials. MRS Bulletin 42, 518–524 (2017). https://doi.org/10.1557/mrs.2017.140

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