Magnesium Silicide is one of the interesting thermoelectric materials known for relative abundance of its constituents, thermal stability, non-toxicity and environmental friendly nature. In this paper we have theoretically studied Bi doped Mg2Si. The electronic structure calculations predict non-existence of the energy gap for Mg2Si1−xBix with (0.125≤ x≤0.5). It has been found that the system with x=0.125 exhibits highest Seebeck coefficient and electrical conductivity. Due to low thermal conductivity at x=0.125, Mg2Si0.875Bi0.125 attained maximum value of dimensionless figure of merit 0.67 at 1200 K. With increase in concentration of Bi, the value of figure of merit decreases
Magnesium silicides are favorable thermoelectric materials considering resource abundance and cost. ...
This paper reports about a new synthesis method for preparing Mg2Si in an efficient way. The interme...
More than 1000 crystalline silicide materials have been screened for thermoelectric properties using...
Doping is one of the possible ways to significantly increase the thermoelectric properties of many d...
Magnesium silicides are favorable thermoelectric materials considering resource abundance and cost. ...
The narrow-gap magnesium silicide semiconductor Mg2Si is a promising mid-temperature (600–900 K) the...
The narrow-gap magnesium silicide semiconductor Mg2Si is a promising mid-temperature (600–900 K) the...
Thermoelectric materials can convert waste or process heat directly into usable electrical energy. T...
Solid solutions of magnesium silicide and magnesium stannide exhibit excellent thermoelectric proper...
Current research in thermoelectric materials is focused on increasing the figure of merit ZT=(S2σ/κ)...
Mg2Si-based thermoelectrics are currently the most promising, environmentally benign and inexpensive...
We report the use of Boltzmann transport theory to investigate the electrical properties of thermoel...
Mg2Si-Mg2Sn solid solutions are promising thermoelectric materials for vehicle waste-heat recovery o...
Thermoelectric materials are unique in their ability to directly convert thermal energy into electri...
International audienceDensity functional and Boltzmann transport theories have been used to investig...
Magnesium silicides are favorable thermoelectric materials considering resource abundance and cost. ...
This paper reports about a new synthesis method for preparing Mg2Si in an efficient way. The interme...
More than 1000 crystalline silicide materials have been screened for thermoelectric properties using...
Doping is one of the possible ways to significantly increase the thermoelectric properties of many d...
Magnesium silicides are favorable thermoelectric materials considering resource abundance and cost. ...
The narrow-gap magnesium silicide semiconductor Mg2Si is a promising mid-temperature (600–900 K) the...
The narrow-gap magnesium silicide semiconductor Mg2Si is a promising mid-temperature (600–900 K) the...
Thermoelectric materials can convert waste or process heat directly into usable electrical energy. T...
Solid solutions of magnesium silicide and magnesium stannide exhibit excellent thermoelectric proper...
Current research in thermoelectric materials is focused on increasing the figure of merit ZT=(S2σ/κ)...
Mg2Si-based thermoelectrics are currently the most promising, environmentally benign and inexpensive...
We report the use of Boltzmann transport theory to investigate the electrical properties of thermoel...
Mg2Si-Mg2Sn solid solutions are promising thermoelectric materials for vehicle waste-heat recovery o...
Thermoelectric materials are unique in their ability to directly convert thermal energy into electri...
International audienceDensity functional and Boltzmann transport theories have been used to investig...
Magnesium silicides are favorable thermoelectric materials considering resource abundance and cost. ...
This paper reports about a new synthesis method for preparing Mg2Si in an efficient way. The interme...
More than 1000 crystalline silicide materials have been screened for thermoelectric properties using...