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<p>Thermoelectric materials offer unique opportunities to convert otherwise wasted thermal energy into useful electrical energy. Many of the traditional thermoelectric materials, such as bismuth telluride and lead telluride, contain scarce and toxic elements. This has motivated the search for new high-performance materials containing readily-available and environmentally-less-damaging elements. Numerous advances in the development of high-performance thermoelectric materials exploit fundamental chemical-bonding principles. Much of the thermoelectric literature lies at the interface of chemistry, physics and materials science. In this Review, progress in the design of high-performance materials is discussed in terms of ideas that are familiar in chemistry. This includes the influence of concepts such as bonding heterogeneity, covalency, polarizability, lone pairs and different bonding models, including multi-centre, metallic and iono-covalent archetypes. In this way, we seek to present aspects of this diverse field of research in terms that are accessible to the chemistry community.</p><p></p>

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Exploiting chemical bonding principles to design high-performance thermoelectric materials

  • 期刊论文

  • 发表日期：

    2025年3月25日

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  • Anthony V. Powell,
  • Paz Vaqueiro,
  • Sahil Tippireddy,
  • Jesús Prado-Gonjal

摘要

Thermoelectric materials offer unique opportunities to convert otherwise wasted thermal energy into useful electrical energy. Many of the traditional thermoelectric materials, such as bismuth telluride and lead telluride, contain scarce and toxic elements. This has motivated the search for new high-performance materials containing readily-available and environmentally-less-damaging elements. Numerous advances in the development of high-performance thermoelectric materials exploit fundamental chemical-bonding principles. Much of the thermoelectric literature lies at the interface of chemistry, physics and materials science. In this Review, progress in the design of high-performance materials is discussed in terms of ideas that are familiar in chemistry. This includes the influence of concepts such as bonding heterogeneity, covalency, polarizability, lone pairs and different bonding models, including multi-centre, metallic and iono-covalent archetypes. In this way, we seek to present aspects of this diverse field of research in terms that are accessible to the chemistry community.