Prediction of thermomagnetic and thermoelectric properties for novel materials and systems

Abstract

We express the link between conductivity and coefficients of Seebeck, Nernst-Ettingshausen, Peltier, and Thompson and Reghi-Leduc via the temperature derivative of the chemical potential of a system. These general expressions are applied to three-, two- and one-dimensional systems of charge carriers having a parabolic or Dirac spectrum. The method allows for predicting thermoelectric and thermomagnetic properties of novel materials and structures.

5 pages, 2 figures

References in corpus (3)

• Thermoelectric and Magnetothermoelectric Transport Measurements of Graphene
• Giant Nernst Effect due to Fluctuating Cooper Pairs in Superconductors
• Giant Nernst-Ettingshausen oscillations in Semiclassically strong magnetic fields

Cited by in corpus (11)

• Thermoelectric properties of iron-based superconductors and parent compounds
• A note on the electrochemical nature of the thermoelectric power
• Enhanced thermoelectric coupling near electronic phase transition: the role of fluctuation Cooper pairs
• Detection of topological phase transitions through entropy measurements: the case of germanene
• Entropy spikes as a signature of Lifshitz transitions in the Dirac materials
• Orbital magnetic ratchet effect
• Entropy Signatures of Topological Phase Transitions
• Theory of the effective Seebeck coefficient for photoexcited 2D materials: the case of graphene
• Magnetization Currents of Fluctuative Cooper Pairs
• Proposed Model of the Giant Thermal Hall Effect in Two-Dimensional Superconductors: An Extension to the Superconducting Fluctuations Regime
• The thermoelectric conversion efficiency problem: Insights from the electron gas thermodynamics close to a phase transition