Accurately measuring the electronic properties of nanowires is a crucial step in the development of novel semiconductor nanowire-based devices. With this in mind, optical pump-terahertz probe (OPTP) spectroscopy is ideally suited to studies of nanowires: it provides non-contact measurement of carrier transport and dynamics at room temperature. OPTP spectroscopy has been used to assess key electrical properties, including carrier lifetime and carrier mobility, of GaAs, InAs and InP nanowires. The measurements revealed that InAs nanowires exhibited the highest mobilities and InP nanowires exhibited the lowest surface recombination velocity. © 2013 Copyright SPIE
We have performed a comparative study of ultrafast charge carrier dynamics in a range of III-V nanow...
We have used optical-pump-terahertz-probe spectroscopy (OPTPS) to study a range of novel of semicond...
© 2017 IEEE. Reliable doping in semiconductor nanowires is essential for the development of novel op...
Accurately measuring the electronic properties of nanowires is a crucial step in the development of ...
Accurately measuring the electronic properties of nanowires is a crucial step in the development of ...
Accurately measuring and controlling the electrical properties of semiconductor nanowires is of para...
Accurately measuring and controlling the electrical properties of semiconductor nanowires is of para...
Accurately measuring and controlling the electrical properties of semiconductor nanowires is of para...
Accurately measuring and controlling the electrical properties of semiconductor nanowires is of para...
Optical pump-terahertz probe spectroscopy was used to study the key electronic properties of GaAs, I...
We have performed a comparative study of ultrafast charge carrier dynamics in a range of III-V nanow...
We have performed a comparative study of ultrafast charge carrier dynamics in a range of III-V nanow...
We have performed a comparative study of ultrafast charge carrier dynamics in a range of III-V nanow...
Optical pump-terahertz probe spectroscopy was used to study the key electronic properties of GaAs, I...
© 2018 SPIE. Optical pump-terahertz probe spectroscopy is a powerful contact-free technique for prob...
We have performed a comparative study of ultrafast charge carrier dynamics in a range of III-V nanow...
We have used optical-pump-terahertz-probe spectroscopy (OPTPS) to study a range of novel of semicond...
© 2017 IEEE. Reliable doping in semiconductor nanowires is essential for the development of novel op...
Accurately measuring the electronic properties of nanowires is a crucial step in the development of ...
Accurately measuring the electronic properties of nanowires is a crucial step in the development of ...
Accurately measuring and controlling the electrical properties of semiconductor nanowires is of para...
Accurately measuring and controlling the electrical properties of semiconductor nanowires is of para...
Accurately measuring and controlling the electrical properties of semiconductor nanowires is of para...
Accurately measuring and controlling the electrical properties of semiconductor nanowires is of para...
Optical pump-terahertz probe spectroscopy was used to study the key electronic properties of GaAs, I...
We have performed a comparative study of ultrafast charge carrier dynamics in a range of III-V nanow...
We have performed a comparative study of ultrafast charge carrier dynamics in a range of III-V nanow...
We have performed a comparative study of ultrafast charge carrier dynamics in a range of III-V nanow...
Optical pump-terahertz probe spectroscopy was used to study the key electronic properties of GaAs, I...
© 2018 SPIE. Optical pump-terahertz probe spectroscopy is a powerful contact-free technique for prob...
We have performed a comparative study of ultrafast charge carrier dynamics in a range of III-V nanow...
We have used optical-pump-terahertz-probe spectroscopy (OPTPS) to study a range of novel of semicond...
© 2017 IEEE. Reliable doping in semiconductor nanowires is essential for the development of novel op...