cited By 0International audienceIn this study, GaAs crystals were grown by chemical beam epitaxy on nominal (001) Si substrate over Ge nano-seeds placed within nano-holes opened through a 0.6 nm silica layer. GaAs crystal morphology and atomic organization at the interface between Ge and GaAs were studied by using complementary Scanning Transmission Electron Microscopy, energy dispersive X-ray spectrometry and dark-field electron holography. Fourfold symmetry GaAs crystals were obtained and found to be completely relaxed and twin free. Thus, the use of Ge nano-seeds to initiate the growth of GaAs results in the suppression of twins previously observed for direct GaAs growth on nominal (001) Si. Nevertheless, anti-phase domains were detected...
Nano-heteroepitaxial growth of GaAs on Si(001) by metal organic vapor phase epitaxy was investigated...
Nano-heteroepitaxial growth of GaAs on Si(001) by metal organic vapor phase epitaxy was investigated...
Monolithic integration of III-V compounds into high density Si integrated circuits is a key technol...
cited By 0International audienceIn this study, GaAs crystals were grown by chemical beam epitaxy on ...
cited By 4International audienceHigh quality micrometer scale GaAs crystals were grown by chemical b...
cited By 4International audienceHigh quality micrometer scale GaAs crystals were grown by chemical b...
cited By 4International audienceHigh quality micrometer scale GaAs crystals were grown by chemical b...
cited By 4International audienceHigh quality micrometer scale GaAs crystals were grown by chemical b...
cited By 4International audienceHigh quality micrometer scale GaAs crystals were grown by chemical b...
International audienceThe epitaxial lateral overgrowth of microscale GaAs crystals on a 0.6 nm thick...
International audienceThe epitaxial lateral overgrowth of microscale GaAs crystals on a 0.6 nm thick...
International audienceThe epitaxial lateral overgrowth of microscale GaAs crystals on a 0.6 nm thick...
International audienceThe epitaxial lateral overgrowth of microscale GaAs crystals on a 0.6 nm thick...
We present the nanoheteroepitaxial growth of gallium arsenide (GaAs) on nano-patterned silicon (Si) ...
We present the nanoheteroepitaxial growth of gallium arsenide (GaAs) on nano-patterned silicon (Si) ...
Nano-heteroepitaxial growth of GaAs on Si(001) by metal organic vapor phase epitaxy was investigated...
Nano-heteroepitaxial growth of GaAs on Si(001) by metal organic vapor phase epitaxy was investigated...
Monolithic integration of III-V compounds into high density Si integrated circuits is a key technol...
cited By 0International audienceIn this study, GaAs crystals were grown by chemical beam epitaxy on ...
cited By 4International audienceHigh quality micrometer scale GaAs crystals were grown by chemical b...
cited By 4International audienceHigh quality micrometer scale GaAs crystals were grown by chemical b...
cited By 4International audienceHigh quality micrometer scale GaAs crystals were grown by chemical b...
cited By 4International audienceHigh quality micrometer scale GaAs crystals were grown by chemical b...
cited By 4International audienceHigh quality micrometer scale GaAs crystals were grown by chemical b...
International audienceThe epitaxial lateral overgrowth of microscale GaAs crystals on a 0.6 nm thick...
International audienceThe epitaxial lateral overgrowth of microscale GaAs crystals on a 0.6 nm thick...
International audienceThe epitaxial lateral overgrowth of microscale GaAs crystals on a 0.6 nm thick...
International audienceThe epitaxial lateral overgrowth of microscale GaAs crystals on a 0.6 nm thick...
We present the nanoheteroepitaxial growth of gallium arsenide (GaAs) on nano-patterned silicon (Si) ...
We present the nanoheteroepitaxial growth of gallium arsenide (GaAs) on nano-patterned silicon (Si) ...
Nano-heteroepitaxial growth of GaAs on Si(001) by metal organic vapor phase epitaxy was investigated...
Nano-heteroepitaxial growth of GaAs on Si(001) by metal organic vapor phase epitaxy was investigated...
Monolithic integration of III-V compounds into high density Si integrated circuits is a key technol...