摘要:
An aspect of the present invention provides a method of manufacturing a semiconductor device, including, forming an insulating film on a silicide layer formed at the surface of a silicon semiconductor substrate, etching the insulating film to form a contact hole in which the silicide layer is exposed, forming a metal nitride film on the bottom and side wall of the contact hole, carrying out a first heating process at 600° C. or lower on the substrate, carrying out, during the first heating process, a second heating process for 10 msec or shorter with light whose main wavelength is shorter than a light absorbing end of silicon, forming a contact conductor in the contact hole after the second heating process, and forming, on the insulating film, wiring that is electrically connected to the substrate through the contact conductor.
摘要:
Disclosed is a semiconductor device having an N-type MIS transistor formed in a first region and a P-type MIS transistor formed in a second region, wherein, the N-type MIS transistor includes a first gate insulating film formed on at least the bottom of a first concave portion formed in the first region and a first gate electrode formed on the first gate insulating film, the P-type MIS transistor includes a second gate insulating film formed on at least the bottom of a second concave portion formed in the second region and a second gate electrode formed on the second gate insulating film, each of the first and second gate electrodes includes at least one metal-containing film, and at least one of the first and second gate electrodes is of a laminate structure including a plurality of the metal-containing films, and the work function of the metal-containing film constituting at least a part of the first gate electrode and in contact with the first gate insulating film is smaller than the work function of the metal-containing film constituting at least a part of the second gate electrode and in contact with the second gate insulating film.
摘要:
A semiconductor device comprises a semiconductor substrate and a silicon nitride film formed on the semiconductor substrate. The silicon nitride film is substantially free from an Si—H bond and has an Si—H density per unit area of 1×1015 cm−2 or less.
摘要翻译:半导体器件包括形成在半导体衬底上的半导体衬底和氮化硅膜。 氮化硅膜基本上不含Si-H键,并且每单位面积的Si-H密度为1×10 15 cm -2以下。
摘要:
A p-type silicon substrate has an element isolation region of an STI structure formed therein. A transistor region isolated by the isolation region has a n-type source/drain diffusion layer. Further, a p-channel impurity layer is formed substantially only in its channel region for controlling its threshold voltage (Vth). A gate insulator film consisting of a high dielectric film is formed on the channel region with an Si3N4 film interposed therebetween. A metal gate electrode having its bottom and side surfaces covered with the gate insulator film is provided in a self-alignment manner with respect to the source/drain diffusion layer.
摘要翻译:p型硅衬底具有形成在其中的STI结构的元件隔离区域。 由隔离区隔离的晶体管区域具有n型源极/漏极扩散层。 此外,p沟道杂质层基本上仅在其沟道区域中形成,用于控制其阈值电压(Vth)。 在沟道区域上形成由高介电膜构成的栅极绝缘膜,其间插入有Si 3 N 4膜。 相对于源极/漏极扩散层以自对准的方式设置具有被栅极绝缘膜覆盖的底部和侧面的金属栅电极。
摘要:
A plurality of chips each having two or more alignment holes for transmitting a laser beam are stacked. The laser beam is irradiated onto the uppermost or lowermost one of the stacked chips. A photodetector detects the laser beam output from the stacked chips through the alignment holes in these chips. The positions of the chips are so controlled that the amount of the light detected by this photodetector is a maximum.
摘要:
A method of filling one or more trenches formed in a silicon substrate includes the steps of forming a thin polycrystalline silicon film in a trench such that the thin polycrystalline silicon film is sufficiently thin so as to not close the trench; forming an amorphous silicon film on thin polycrystalline film and the surface of the substrate and in the trenches; and annealing the amorphous silicon film such that the amorphous silicon layer migrates to fill the trenches to a first level. The deposition and annealing steps are performed in ambient atmospheres having low partial pressures of H.sub.2 O and O.sub.2, the annealing temperature is higher than the deposition temperature, and the annealing pressure is greater than the deposition pressure.
摘要:
A single crystal and a polycrystal having an excellent crystal quality and providing a highly reliable semiconductor device are formed by solid phase growth at low temperatures. An amorphous thin film is deposited on a substrate such that an average inter-atomic distance of main constituent element of the amorphous thin film is 1.02 times or more of an average inter-atomic distance of the elements in single crystal, and crystallization energy is applied to the amorphous thin film to perform solid phase growth to thereby form a single crystal. In another embodiment of the present invention, an amorphous semiconductor thin film is formed on a substrate or an insulating film such that an average inter-atomic distance distribution of main constituent element of the film substantially coincides with an average inter-atomic distance distribution of the element in a single crystal, and crystallization energy is applied to the amorphous semiconductor thin film to cause solid phase growth to thereby form a single crystalline semiconductor thin film.
摘要:
Inside a first cylinder for structuring an evaporator, a second cylinder is provided. The second cylinder has an undulated surface and a plurality of fine holes are provided on this surface. A liquid TEOS is contained in a first space positioned between the first cylinder and the second cylinder, and a second space positioned inside the second cylinder is filled with a gas TEOS evaporated from the fine holes. The pressure of the gas TEOS is set to be almost equal to the pressure of the liquid TEOS.
摘要:
A single crystal and a polycrystal having an excellent crystal quality and providing a highly reliable semiconductor device are formed by solid phase growth at low temperatures. An amorphous thin film is deposited on a substrate such that an average inter-atomic distance of main constituent element of the amorphous thin film is 1.02 times or more of an average inter-atomic distance of the elements in single crystal, and crystallization energy is applied to the amorphous thin film to perform solid phase growth to thereby form a single crystal. In another embodiment of the present invention, an amorphous semiconductor thin film is formed on a substrate or an insulating film such that an average inter-atomic distance distribution of main constituent element of the film substantially coincides with an average inter-atomic distance distribution of the element in a single crystal, and crystallization energy is applied to the amorphous semiconductor thin film to cause solid phase growth to thereby form a single crystalline semiconductor thin film.