AbstractThe introduction of large concentrations of lattice vacancies in silicon nano-films creates more than a 20-fold reduction in thermal conductivity, while electrical conductivity and Seebeck coefficient are largely maintained. This results in thermoelectric performance comparable to silicon nanowires, but crucially leaves the silicon structure indistinguishable from bulk silicon, resulting in a robust material that is straight-forward to fabricate. This finding significantly advances the potential of silicon ultra-thin-films as a high-performance thermoelectric material
Silicon is the most widely used functional material, as it is geo-abundant and atoxic. Unfortunately...
Silicon nanostructures with reduced dimensionality, such as nanowires, membranes, and thin films, ar...
The increasing demand for fossil fuels, and the need to reduce greenhouse gases, requires ‘clean’ en...
AbstractThe introduction of large concentrations of lattice vacancies in silicon nano-films creates ...
Silicon offers many advantages as a next generation thermoelectric material, meeting modern demands ...
A more than 70% enhancement in the thermoelectric power factor of single-crystal silicon is demonstr...
Thermoelectric power sources have consistently demonstrated their extraordinary reliability and long...
The figure of merit of thermoelectric material is determined by electrical and thermal conductivitie...
Thermoelectric (TE) phenomenon can be used to convert thermal energy into electricity directly. Sinc...
Arrays of freestanding Si nanowires have been fabricated by electron beam lithography, low-damage d...
Most approaches to silicon-based thermoelectrics are focused on reducing the lattice thermal conduct...
The potentialities of silicon as a starting material for electronic devices are well known and large...
The focus of this chapter is on the experimental results of the thermal conductivity of silicon nano...
Nanostructuring has opened new ways to increase the thermoelectric performance of a host of material...
This work investigated the thermoelectric properties of thin silicon membranes that have been decora...
Silicon is the most widely used functional material, as it is geo-abundant and atoxic. Unfortunately...
Silicon nanostructures with reduced dimensionality, such as nanowires, membranes, and thin films, ar...
The increasing demand for fossil fuels, and the need to reduce greenhouse gases, requires ‘clean’ en...
AbstractThe introduction of large concentrations of lattice vacancies in silicon nano-films creates ...
Silicon offers many advantages as a next generation thermoelectric material, meeting modern demands ...
A more than 70% enhancement in the thermoelectric power factor of single-crystal silicon is demonstr...
Thermoelectric power sources have consistently demonstrated their extraordinary reliability and long...
The figure of merit of thermoelectric material is determined by electrical and thermal conductivitie...
Thermoelectric (TE) phenomenon can be used to convert thermal energy into electricity directly. Sinc...
Arrays of freestanding Si nanowires have been fabricated by electron beam lithography, low-damage d...
Most approaches to silicon-based thermoelectrics are focused on reducing the lattice thermal conduct...
The potentialities of silicon as a starting material for electronic devices are well known and large...
The focus of this chapter is on the experimental results of the thermal conductivity of silicon nano...
Nanostructuring has opened new ways to increase the thermoelectric performance of a host of material...
This work investigated the thermoelectric properties of thin silicon membranes that have been decora...
Silicon is the most widely used functional material, as it is geo-abundant and atoxic. Unfortunately...
Silicon nanostructures with reduced dimensionality, such as nanowires, membranes, and thin films, ar...
The increasing demand for fossil fuels, and the need to reduce greenhouse gases, requires ‘clean’ en...