High quality germanium (Ge) epitaxial film is grown directly on silicon (001) substrate using a “three-step growth” approach in a reduced pressure chemical vapor deposition system. The growth steps consist of sequential low temperature (LT) at 400 °C, intermediate temperature ramp (LT-HT) of ~ 6.5 °C/min and high temperature (HT) at 600 °C. This is followed by post-growth anneal in hydrogen at temperature ranging from 680 to 825 °C. Analytical characterizations have shown that the Ge epitaxial film of thickness ~ 1 μm experiences thermally induced tensile strain of 0.20% with a threading dislocation density of < 107 cm− 2 under optical microscope and root mean square roughness of ~ 0.9 nm. Further analysis has shown that the annealing time ...
High quality germanium(Ge)epitaxialfilm is grown directly on silicon (001) substrate with 6° off-cut...
High quality germanium(Ge)epitaxialfilm is grown directly on silicon (001) substrate with 6° off-cut...
International audienceIn this work, the growth of germanium by ultrahigh vacuum chemical vapor depos...
The quality of germanium (Ge) epitaxial film grown directly on a silicon (Si) (001) substrate with 6...
As the present Si Technology is reaching its physical and technological limits, the trend for the fu...
This work presents the growth of high-quality Ge epilayers on Si (001) substrates using a reduced pr...
This work presents the growth of high-quality Ge epilayers on Si (001) substrates using a reduced pr...
High quality germanium (Ge) epitaxial film is grown directly on silicon (001) substrate with 6° off-...
High quality germanium (Ge) epitaxial film is grown directly on silicon (001) substrate with 6° off-...
This work presents the growth of high-quality Ge epilayers on Si (001) substrates using a reduced pr...
After a long period of developing integrated circuit technology through simple scaling of silicon de...
A method to remove the misfit dislocations and reduce the threading dislocations density (TDD) in th...
A method to remove the misfit dislocations and reduce the threading dislocations density (TDD) in th...
High-quality and thick Ge epitaxial films are grown on Si substrates utilizing the low-temperature(L...
The growth of germanium at low temperature by ultrahigh vacuum chemical vapor deposition on Si(001) ...
High quality germanium(Ge)epitaxialfilm is grown directly on silicon (001) substrate with 6° off-cut...
High quality germanium(Ge)epitaxialfilm is grown directly on silicon (001) substrate with 6° off-cut...
International audienceIn this work, the growth of germanium by ultrahigh vacuum chemical vapor depos...
The quality of germanium (Ge) epitaxial film grown directly on a silicon (Si) (001) substrate with 6...
As the present Si Technology is reaching its physical and technological limits, the trend for the fu...
This work presents the growth of high-quality Ge epilayers on Si (001) substrates using a reduced pr...
This work presents the growth of high-quality Ge epilayers on Si (001) substrates using a reduced pr...
High quality germanium (Ge) epitaxial film is grown directly on silicon (001) substrate with 6° off-...
High quality germanium (Ge) epitaxial film is grown directly on silicon (001) substrate with 6° off-...
This work presents the growth of high-quality Ge epilayers on Si (001) substrates using a reduced pr...
After a long period of developing integrated circuit technology through simple scaling of silicon de...
A method to remove the misfit dislocations and reduce the threading dislocations density (TDD) in th...
A method to remove the misfit dislocations and reduce the threading dislocations density (TDD) in th...
High-quality and thick Ge epitaxial films are grown on Si substrates utilizing the low-temperature(L...
The growth of germanium at low temperature by ultrahigh vacuum chemical vapor deposition on Si(001) ...
High quality germanium(Ge)epitaxialfilm is grown directly on silicon (001) substrate with 6° off-cut...
High quality germanium(Ge)epitaxialfilm is grown directly on silicon (001) substrate with 6° off-cut...
International audienceIn this work, the growth of germanium by ultrahigh vacuum chemical vapor depos...