摘要:
An SOI CMOS structure includes a v-shape trench in a pFet region. The v-shape trench has a surface in a (111) plane and extends into an SOI layer in the pFet region. A layer, such as a gate oxide or high-k material, is formed in the v-shape trench. Poly-Si is deposited on top of the layer.
摘要:
A semiconductor structure and method of forming the same, comprising forming a uniform buffer layer of diffusion-controlling stable material on top of a base gate dielectric layer, and then forming a uniform layer which contains a source of transitional metal atoms, and then annealing the structure to diffuse the transitional metal atoms from their source through the diffusion-controlling material and into the base gate dielectric layer.
摘要:
A silicon nitride layer is provided on an uppermost surface of a graphene layer and then a hafnium dioxide layer is provided on an uppermost surface of the silicon nitride layer. The silicon nitride layer acts as a wetting agent for the hafnium dioxide layer and thus prevents the formation of discontinuous columns of hafnium dioxide atop the graphene layer. The silicon nitride layer and the hafnium dioxide layer, which collectively form a low EOT bilayer gate dielectric, exhibit continuous morphology atop the graphene layer.
摘要:
A novel buried-channel graphene device structure and method for manufacture. The new structure includes a two level channel layer comprised of a buried-channel graphene layer with an amorphous silicon top channel layer. The method for making such structure includes the steps of depositing a graphene layer on a substrate, depositing an amorphous silicon layer on the graphene layer, converting the upper layer of the amorphous silicon layer to a gate dielectric by nitridation, oxidation or oxynitridation, while keeping the lower layer of the amorphous silicon layer to serve as part of the channel to form the buried-channel graphene device.
摘要:
A novel buried-channel graphene device structure and method for manufacture. The new structure includes a two level channel layer comprised of a buried-channel graphene layer with an amorphous silicon top channel layer. The method for making such structure includes the steps of depositing a graphene layer on a substrate, depositing an amorphous silicon layer on the graphene layer, converting the upper layer of the amorphous silicon layer to a gate dielectric by nitridation, oxidation or oxynitridation, while keeping the lower layer of the amorphous silicon layer to serve as part of the channel to form the buried-channel graphene device.
摘要:
A semiconductor structure includes a semiconductor layer that includes an inverted V shaped channel region that allows avoidance of a raised source/drain region within the semiconductor structure. In one embodiment, a generally conventional gate electrode is located over a planar surface of the semiconductor layer over the inverted V shaped channel region. In another embodiment, the foregoing generally conventional gate electrode is used in conjunction with an inverted V shaped gate electrode that is located within an inverted V shaped notch that comprises the inverted V shaped channel region.
摘要:
A technique for a nanodevice is provided. A reservoir is separated into two parts by a membrane. A nanopore is formed through the membrane, and the nanopore connects the two parts of the reservoir. The nanopore and the two parts of the reservoir are filled with ionic buffer. The membrane includes a graphene layer and insulating layers. The graphene layer is wired to first and second metal pads to form a graphene transistor in which transistor current flowing through the graphene transistor is modulated by charges or dipoles passing through the nanopore.
摘要:
A method of forming a semiconductor device includes forming a field-effect transistor (FET), and forming a fuse which includes a graphene layer and is electrically connected to the FET.
摘要:
Embodiments relate to a method for representing data in a graphene-based memory device. The method includes applying a first voltage to a back gate of a graphene-based memory device and a second voltage to a first graphene layer of the graphene-based memory device. The graphene-based memory device includes the first graphene layer and a second graphene layer and a first insulation layer located between the first and second graphene layers. The first insulation layer has an opening between the first and second graphene layers. The back gate is located on an opposite side of the second graphene layer from the first insulation layer. The first graphene layer is configured to bend into the opening of the first insulation layer to contact the second graphene layer based on a first electrostatic force generated by the applying the first voltage to the back gate.
摘要:
Embodiments relate to a method for representing data in a graphene-based memory device. The method includes applying a first voltage to a back gate of a graphene-based memory device and a second voltage to a first graphene layer of the graphene-based memory device. The graphene-based memory device includes the first graphene layer and a second graphene layer and a first insulation layer located between the first and second graphene layers. The first insulation layer has an opening between the first and second graphene layers. The back gate is located on an opposite side of the second graphene layer from the first insulation layer. The first graphene layer is configured to bend into the opening of the first insulation layer to contact the second graphene layer based on a first electrostatic force generated by the applying the first voltage to the back gate.