We have developed an innovative approach without the use of ion implantation to transfer a high-quality thin Si layer for the fabrication of silicon-on-insulator wafers. The technique uses a buried strained SiGe layer, a few nanometers in thickness, to provide H trapping centers. In conjunction with H plasma hydrogenation, lift-off of the top Si layer can be realized with cleavage occurring at the depth of the strained SiGe layer. This technique avoids irradiation damage within the top Si layer that typically results from ion implantation used to create H trapping regions in the conventional ion-cut method. We explain the strain-facilitated layer transfer as being due to preferential vacancy aggregation within the strained layer and subsequ...
International audienceWe have studied the impact of the incorporation of a buried and ultrathin laye...
Mechanically induced layer transfer of single-crystal silicon by hydrogen ion implantation, low-temp...
We report the creation of strained silicon on silicon (SSOS) substrate technology. The method uses a...
We have developed an innovative approach without the use of ion implantation to transfer a high-qual...
We have developed an innovative approach without the use of ion implantation to transfer a high-qual...
The use of plasma hydrogenation for relaxed SiGe layer transfer is demonstrated. It is found that th...
In this work, we demonstrate a novel approach for the transfer of Si layers onto handle wafers, indu...
We report a process for the lift-off of an ultrathin Si layer. By plasma hydrogenation of a molecula...
In this paper, we explore the possibility to combine plasma hydrogenation and stress engineering to ...
Hydrogen ion implantation is conventionally used to initiate the transfer of Si thin layers onto Si ...
International audienceWe have quantitatively studied by transmission electron microscopy the growth ...
We demonstrate that a controllable cracking can be realized in Si with a buried strain layer when hy...
We have studied hydrogen diffusion in plasma hydrogenated Si/SiGe/Si heterostructure at different te...
The objective of this dissertation was to study the mechanisms that affect an efficient hydrogenatio...
International audienceWe have studied the impact of the incorporation of a buried and ultrathin laye...
Mechanically induced layer transfer of single-crystal silicon by hydrogen ion implantation, low-temp...
We report the creation of strained silicon on silicon (SSOS) substrate technology. The method uses a...
We have developed an innovative approach without the use of ion implantation to transfer a high-qual...
We have developed an innovative approach without the use of ion implantation to transfer a high-qual...
The use of plasma hydrogenation for relaxed SiGe layer transfer is demonstrated. It is found that th...
In this work, we demonstrate a novel approach for the transfer of Si layers onto handle wafers, indu...
We report a process for the lift-off of an ultrathin Si layer. By plasma hydrogenation of a molecula...
In this paper, we explore the possibility to combine plasma hydrogenation and stress engineering to ...
Hydrogen ion implantation is conventionally used to initiate the transfer of Si thin layers onto Si ...
International audienceWe have quantitatively studied by transmission electron microscopy the growth ...
We demonstrate that a controllable cracking can be realized in Si with a buried strain layer when hy...
We have studied hydrogen diffusion in plasma hydrogenated Si/SiGe/Si heterostructure at different te...
The objective of this dissertation was to study the mechanisms that affect an efficient hydrogenatio...
International audienceWe have studied the impact of the incorporation of a buried and ultrathin laye...
Mechanically induced layer transfer of single-crystal silicon by hydrogen ion implantation, low-temp...
We report the creation of strained silicon on silicon (SSOS) substrate technology. The method uses a...