摘要:
Provided are methods of forming a more highly-oriented silicon thin layer having a larger grain size, and a substrate having the same. The methods may include forming an aluminum (Al) layer on a base substrate, forming a more highly-oriented Al layer by recrystallizing the Al layer under vacuum, forming a more highly-oriented γ-Al2O3 layer on the more highly-oriented Al layer and/or epitaxially growing a silicon layer on the more highly-oriented γ-Al2O3 layer. The method may be used to manufacture a semiconductor device having higher carrier mobility.
摘要翻译:提供了形成具有较大晶粒尺寸的更高取向硅薄层的方法以及具有其的基板。 所述方法可以包括在基底基板上形成铝(Al)层,通过在真空下重结晶Al层,形成更高取向的Al层,形成更高取向的γ-Al 2 O 在更高取向的Al层上和/或在更高取向的γ-Al 2 O 3上外延生长硅层3层 >层。 该方法可用于制造具有较高载流子迁移率的半导体器件。
摘要:
A method of fabricating a large substrate with a locally integrated single crystalline silicon layer is provided. The method includes: forming a buffer layer on a support plate; separately fabricating a single crystalline silicon layer; attaching the single crystalline silicon layer having a predetermined thickness, which is separately fabricated, to a predetermined portion in the support plate; forming a non-single crystalline silicon layer having a predetermined thickness to cover the single crystalline silicon layer and the buffer layer; and processing the non-single crystalline silicon layer to expose a surface of the non-single crystalline silicon layer and to level the surface of the non-single crystalline silicon layer with a surface of the amorphous silicon layer.
摘要:
Provided may be a method of fabricating nanowires and a method of fabricating a transistor having the same. The method may include: forming a template layer on a substrate, the template layer having a first lateral surface and a second lateral surface facing the first surface; forming pores in the template layer, the pores disposed between the first lateral surface and the second lateral surface in the template layer and having first apertures in the first lateral surface; forming a single-crystalline material layer contacting the first apertures disposed in the first lateral surface of the template layer; forming second apertures connecting pores disposed in the second lateral surface; supplying gaseous crystal growth materials through the second apertures; and forming crystalline nanowires in the pores by crystal growth from the single-crystalline material layer. The nanowires may be made of crystalline materials, e.g., Si or SiGe, and may be formed parallel to the substrate. Higher quality nanowires, whose orientation may be controlled, may be formed. A higher quality transistor may be formed on the substrate by applying a method of fabricating the nanowires.
摘要:
Provided may be a method of fabricating nanowires and a method of fabricating a transistor having the same. The method may include: forming a template layer on a substrate, the template layer having a first lateral surface and a second lateral surface facing the first surface; forming pores in the template layer, the pores disposed between the first lateral surface and the second lateral surface in the template layer and having first apertures in the first lateral surface; forming a single-crystalline material layer contacting the first apertures disposed in the first lateral surface of the template layer; forming second apertures connecting pores disposed in the second lateral surface; supplying gaseous crystal growth materials through the second apertures; and forming crystalline nanowires in the pores by crystal growth from the single-crystalline material layer. The nanowires may be made of crystalline materials, e.g., Si or SiGe, and may be formed parallel to the substrate. Higher quality nanowires, whose orientation may be controlled, may be formed. A higher quality transistor may be formed on the substrate by applying a method of fabricating the nanowires.
摘要:
Provided are methods of forming a more highly-oriented silicon thin layer having a larger grain size, and a substrate having the same. The methods may include forming an aluminum (Al) layer on a base substrate, forming a more highly-oriented Al layer by recrystallizing the Al layer under vacuum, forming a more highly-oriented γ-Al2O3 layer on the more highly-oriented Al layer and/or epitaxially growing a silicon layer on the more highly-oriented γ-Al2O3 layer. The method may be used to manufacture a semiconductor device having higher carrier mobility.
摘要翻译:提供了形成具有较大晶粒尺寸的更高取向硅薄层的方法以及具有其的基板。 所述方法可以包括在基底上形成铝(Al)层,通过在真空下重结晶Al层形成更高取向的Al层,在更高取向的Al层上形成更高取向的γ-Al 2 O 3层 和/或在更高取向的γ-Al 2 O 3层上外延生长硅层。 该方法可用于制造具有较高载流子迁移率的半导体器件。
摘要:
A method of fabricating a large substrate with a locally integrated single crystalline silicon layer is provided. The method includes: forming a buffer layer on a support plate; separately fabricating a single crystalline silicon layer; attaching the single crystalline silicon layer having a predetermined thickness, which is separately fabricated, to a predetermined portion in the support plate; forming a non-single crystalline silicon layer having a predetermined thickness to cover the single crystalline silicon layer and the buffer layer; and processing the non-single crystalline silicon layer to expose a surface of the non-single crystalline silicon layer and to level the surface of the non-single crystalline silicon layer with a surface of the amorphous silicon layer.
摘要:
A microlens, an image sensor including the microlens, a method of forming the microlens and a method of manufacturing the image sensor are provided. The microlens includes a polysilicon pattern, having a cylindrical shape, formed on a substrate, and a round-type shell portion enclosing the polysilicon pattern. The microlens may further include a filler material filling an interior of the shell portion, or a second shell portion covering the first shell portion. The method of forming a microlens includes forming a silicon pattern on a semiconductor substrate having a lower structure, forming a capping film on the semiconductor substrate over the silicon pattern, annealing the silicon pattern and the capping film altering the silicon pattern to a polysilicon pattern having a cylindrical shape and the capping film to a shell portion for a round-type microlens, and filling an interior of the shell portion with a lens material through an opening between the semiconductor substrate and an edge of the shell portion. The image sensor includes a microlens formed by a similar method and a photodiode having a cylindrical shape.
摘要:
A semiconductor device including a substrate, a P-MOS single crystal TFT formed on the substrate, and an N-MOS single crystal TFT formed on the P-MOS single crystal TFT. The source region of the P-MOS single crystal TFT and the source region of the N-MOS single crystal TFT may be connected to each other. The P-MOS single crystal TFT and the N-MOS single crystal TFT may share a common gate. Also, the P-MOS single crystal TFT may include a single crystal silicon layer with a crystal plane of (100) and a crystal direction of . The N-MOS single crystal TFT may include a single crystal silicon layer having the same crystal direction as the single crystal silicon layer of the P-MOS single crystal TFT and having a tensile stress greater than the single crystal silicon layer of the P-MOS single crystal TFT.
摘要:
A thin film transistor (TFT) and a method of manufacturing the same are provided. The TFT includes a transparent substrate, an insulating layer on a region of the transparent substrate, a monocrystalline silicon layer, which includes source, drain, and channel regions, on the insulating layer and a gate insulating film and a gate electrode on the channel region of the monocrystalline silicon layer.
摘要:
A silicon nanowire substrate having a structure in which a silicon nanowire film having a fine line-width is formed on a substrate, a method of manufacturing the same, and a method of manufacturing a thin film transistor using the same. The method of manufacturing the silicon nanowire substrate includes preparing a substrate, forming an insulating film on the substrate, forming a silicon film on the insulating film, patterning the insulating film and the silicon film into a strip shape, reducing the line-width of the insulating film by undercut etching at least one lateral side of the insulating film, and forming a self-aligned silicon nanowire film on an upper surface of the insulating film by melting and crystallizing the silicon film.