Previously, it has been predicted that nanostructured crystals of tetrathiotetracene iodide are very promising candidates for thermoelectric applications. However, these predictions are based on a strictly one-dimensional (1D) model. In order to verify these conclusions, a two-dimensional (2D) model is elaborated which explicitly takes into account the weak interaction of carriers with the nearest conductive chains. It is shown that for crystals with a rather low degree of purity this interaction does not affect significantly the results obtained by the 1D approximation, but for ultrapure crystals this interaction can no longer be neglected
Thermoelectrics represent a unique opportunity in energy to directly convert thermal energy or secon...
There is renewed interested in novel thermoelectric materials driven by potential applications such ...
Different families of thermoelectric materials have been investigated since the discovery of thermoe...
A more complete three-dimensional (3D) physical model for nanostructured crystals of tetrathiotetrac...
A more complete physical model for nanostructured crystals of tetrathiotetracene-iodide that takes i...
Thermoelectric properties of quasi-one-dimensional TTT(TCNQ)2 organic crystals are investigated in o...
We present a theoretical study of the thermoelectric efficiency of “interlaced crystals”, recently d...
International audienceThe presented work demonstrates a multiscale approach for evaluating novel mat...
Thermoelectric devices make it possible for direct energy conversion between heat and electricity. I...
We present a theoretical study of the thermoelectric efficiency of interlaced crystals , recently d...
The efficiencies of state-of-the-art thermoelectric devices made from bulk materials remain too low ...
Thermoelectric materials have the capacity to convert a temperature differential into electrical pow...
Thermoelectric materials play an important role in energy conversion as they represent environmental...
Thermoelectric materials have the capacity to convert a temperature differential into electrical pow...
More than 70 % of the primary energy consumed world-wide is wasted, mostly as heat below 100 °C[1]. ...
Thermoelectrics represent a unique opportunity in energy to directly convert thermal energy or secon...
There is renewed interested in novel thermoelectric materials driven by potential applications such ...
Different families of thermoelectric materials have been investigated since the discovery of thermoe...
A more complete three-dimensional (3D) physical model for nanostructured crystals of tetrathiotetrac...
A more complete physical model for nanostructured crystals of tetrathiotetracene-iodide that takes i...
Thermoelectric properties of quasi-one-dimensional TTT(TCNQ)2 organic crystals are investigated in o...
We present a theoretical study of the thermoelectric efficiency of “interlaced crystals”, recently d...
International audienceThe presented work demonstrates a multiscale approach for evaluating novel mat...
Thermoelectric devices make it possible for direct energy conversion between heat and electricity. I...
We present a theoretical study of the thermoelectric efficiency of interlaced crystals , recently d...
The efficiencies of state-of-the-art thermoelectric devices made from bulk materials remain too low ...
Thermoelectric materials have the capacity to convert a temperature differential into electrical pow...
Thermoelectric materials play an important role in energy conversion as they represent environmental...
Thermoelectric materials have the capacity to convert a temperature differential into electrical pow...
More than 70 % of the primary energy consumed world-wide is wasted, mostly as heat below 100 °C[1]. ...
Thermoelectrics represent a unique opportunity in energy to directly convert thermal energy or secon...
There is renewed interested in novel thermoelectric materials driven by potential applications such ...
Different families of thermoelectric materials have been investigated since the discovery of thermoe...