The authors report on the first known growth of high-quality epitaxial Si via the hot wire chemical vapor deposition (HWCVD) method. This method yields device-quality epitaxial Si at the comparatively low temperatures of 195 to 450 C, and relatively high growth rates of 3 to 20 {angstrom}/sec. Layers up to 4,500-{angstrom} thick have been grown. These epitaxial layers have been characterized by transmission electron microscopy (TEM), indicating large regions of nearly perfect atomic registration. Electron channeling patterns (ECPs) generated on a scanning electron microscope (SEM) have been used to characterize as well as optimize the growth process. Electron beam induced current (EBIC) characterization has also been performed, indicating d...
The University of Barcelona is developing a pilot-scale hot wire chemical vapor deposition (HW-CVD) ...
The key process steps for growing high-quality Si-based epitaxial films via reduced pressure chemica...
Over the past several years, advances in the SiGe technologies have shown impressive potential for f...
We have investigated the low-temperature epitaxial growth of thin silicon films by hot-wire chemical...
We have investigated the low-temperature epitaxial growth of thin silicon films by hot-wire chemical...
During the last few years, hot wire chemical vapor deposition HWCVD has been explored as a low te...
We have investigated epitaxial growth of poly crystalline intrinsic silicon film grown o...
We have previously reported on the low-temperature (T = 300–475 °C) epitaxial growth of thin silicon...
We have previously reported on the low-temperature (T = 300–475 °C) epitaxial growth of thin silicon...
There has been a growing interest in using low cost material as a substrate for the large grained po...
Low-temperature (<= 200 degrees C) epitaxial growth yields precise thickness, doping, and thermal-bu...
We report the surface and structural evolution of hotwire chemical vapor deposited (HWCVD) crystall...
The authors demonstrate the first reported use of electron channeling patterns (ECPs) as a response ...
Hot wire chemical vapour deposition (HWCVD) is explored as a way of growing boron-doped silicon for ...
We report on fabricating film c-Si solar cells on Si wafer templates by hot-wire chemical vapor depo...
The University of Barcelona is developing a pilot-scale hot wire chemical vapor deposition (HW-CVD) ...
The key process steps for growing high-quality Si-based epitaxial films via reduced pressure chemica...
Over the past several years, advances in the SiGe technologies have shown impressive potential for f...
We have investigated the low-temperature epitaxial growth of thin silicon films by hot-wire chemical...
We have investigated the low-temperature epitaxial growth of thin silicon films by hot-wire chemical...
During the last few years, hot wire chemical vapor deposition HWCVD has been explored as a low te...
We have investigated epitaxial growth of poly crystalline intrinsic silicon film grown o...
We have previously reported on the low-temperature (T = 300–475 °C) epitaxial growth of thin silicon...
We have previously reported on the low-temperature (T = 300–475 °C) epitaxial growth of thin silicon...
There has been a growing interest in using low cost material as a substrate for the large grained po...
Low-temperature (<= 200 degrees C) epitaxial growth yields precise thickness, doping, and thermal-bu...
We report the surface and structural evolution of hotwire chemical vapor deposited (HWCVD) crystall...
The authors demonstrate the first reported use of electron channeling patterns (ECPs) as a response ...
Hot wire chemical vapour deposition (HWCVD) is explored as a way of growing boron-doped silicon for ...
We report on fabricating film c-Si solar cells on Si wafer templates by hot-wire chemical vapor depo...
The University of Barcelona is developing a pilot-scale hot wire chemical vapor deposition (HW-CVD) ...
The key process steps for growing high-quality Si-based epitaxial films via reduced pressure chemica...
Over the past several years, advances in the SiGe technologies have shown impressive potential for f...