In this work, we demonstrate highly thermosensitive silicon nanowires (SiNWs) for thermal-sensing applications. Crystalline Si was amorphized by Focused Ion Beam in the fabrication process of the SiNWs, and subsequently recrystallized by a thermal annealing process to improve their electrical conductivity. A temperature coefficient of resistance (TCR) from −8000 ppm/K to −12,000 ppm/K was measured for the SiNWs. This large negative TCR is attributed to the boundary potential barrier of 110 meV between silicon crystallites in the poly crystalline SiNWs
By using molecular dynamics simulations, we study thermal conductivity of silicon nanowires (SiNWs) ...
Thermoelectrics operating at high temperature can cost-effectively convert waste heat and compete wi...
The focus of this chapter is on the experimental results of the thermal conductivity of silicon nano...
Silicon nanowires (SiNWs) attract growing attention in view of their promising thermoelectric applic...
The potentialities of silicon as a starting material for electronic devices are well known and large...
The thermoelectric properties of doped polycrystalline silicon nanowires have been investigated usin...
It is traditionally challenging to measure the thermal conductivity of nanoscale devices. In this Le...
The increasing demand for fossil fuels, and the need to reduce greenhouse gases, requires ‘clean’ en...
We report indirect measurements of thermal conductivity in silicon nanostructures. We have exploite...
The thermal conductivity of amorphous-oxide-coated silicon nanowires (SiNWs) was investigated based ...
Thermal transport in silicon nanowires has captured the attention of scientists for understanding ph...
The one-dimensional geometry of silicon nanowire helps to overcome the rigid and brittle nature of b...
Thermal transport in silicon nanowires has captured the attention of scientists for understanding ph...
The effects of suspension and functionalisation on electrical conduction of silicon nanowires (SiNWs...
Remarkable nanoscale electro-thermo-mechanical properties of silicon nanowires are increasingly stud...
By using molecular dynamics simulations, we study thermal conductivity of silicon nanowires (SiNWs) ...
Thermoelectrics operating at high temperature can cost-effectively convert waste heat and compete wi...
The focus of this chapter is on the experimental results of the thermal conductivity of silicon nano...
Silicon nanowires (SiNWs) attract growing attention in view of their promising thermoelectric applic...
The potentialities of silicon as a starting material for electronic devices are well known and large...
The thermoelectric properties of doped polycrystalline silicon nanowires have been investigated usin...
It is traditionally challenging to measure the thermal conductivity of nanoscale devices. In this Le...
The increasing demand for fossil fuels, and the need to reduce greenhouse gases, requires ‘clean’ en...
We report indirect measurements of thermal conductivity in silicon nanostructures. We have exploite...
The thermal conductivity of amorphous-oxide-coated silicon nanowires (SiNWs) was investigated based ...
Thermal transport in silicon nanowires has captured the attention of scientists for understanding ph...
The one-dimensional geometry of silicon nanowire helps to overcome the rigid and brittle nature of b...
Thermal transport in silicon nanowires has captured the attention of scientists for understanding ph...
The effects of suspension and functionalisation on electrical conduction of silicon nanowires (SiNWs...
Remarkable nanoscale electro-thermo-mechanical properties of silicon nanowires are increasingly stud...
By using molecular dynamics simulations, we study thermal conductivity of silicon nanowires (SiNWs) ...
Thermoelectrics operating at high temperature can cost-effectively convert waste heat and compete wi...
The focus of this chapter is on the experimental results of the thermal conductivity of silicon nano...