J
Jose Ordonez-Miranda
Researcher at University of Poitiers
Publications - 115
Citations - 2129
Jose Ordonez-Miranda is an academic researcher from University of Poitiers. The author has contributed to research in topics: Thermal conductivity & Thermal conduction. The author has an hindex of 23, co-authored 100 publications receiving 1536 citations. Previous affiliations of Jose Ordonez-Miranda include University of Colorado Boulder & École Centrale Paris.
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Quantum Thermal Transistor
TL;DR: It is demonstrated that a thermal transistor can be made up with a quantum system of three interacting subsystems, coupled to a thermal reservoir each, and high amplification can be obtained in a wide range of energy parameters and temperatures.
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Nanophononics: state of the art and perspectives
Sebastian Volz,Jose Ordonez-Miranda,Andrey Shchepetov,Mika Prunnila,Jouni Ahopelto,Thomas Pezeril,Gwenaelle Vaudel,Vitaly Gusev,Pascal Ruello,Eva M. Weig,Martin Schubert,Mike Hettich,Martin Grossman,Thomas Dekorsy,Francesc Alzina,Bartlomiej Graczykowski,Emigdio Chavez-Angel,J. Sebastian Reparaz,Markus R. Wagner,Clivia M. Sotomayor-Torres,Shiyun Xiong,Sanghamitra Neogi,Sanghamitra Neogi,Davide Donadio +23 more
TL;DR: In this article, the authors assess the state of the art of nanophononics, describing the recent achievements and the open challenges in nanoscale heat transport, coherent phonon generation and exploitation, and in nano- and optomechanics.
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On the thermal conductivity of particulate nanocomposites
TL;DR: The modified effective medium approximation model proposed by Minnich and Chen [Appl. Phys. Lett. 91, 073105 (2007)] for the thermal conductivity of nanocomposites is extended for spheroidal inclusions in this paper.
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Thermal wave oscillations and thermal relaxation time determination in a hyperbolic heat transport model
TL;DR: In this paper, a system formed by a semi-infinite layer in contact with a finite one, that is excited by a modulated heat source is studied, and it is shown that a frequency range can be found in which the amplitude and phase of the spatial component of the oscillatory surface temperature show strong oscillations when the thermal relaxation time of the finite layer is close to its thermalization time.
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Quantum thermal diode based on two interacting spinlike systems under different excitations.
TL;DR: It is shown that the rectification ability of the diode increases with the excitation frequencies difference, which drives the asymmetry of the heat current, when the temperatures of the thermal baths are inverted.