Abstract: Disclosed is a method of fabricating a semiconductor device including forming an insulating film on a silicon substrate; forming a contact hole in the insulating film; depositing a titanium film to be in contact with the silicon substrate in the contact hole; and causing a heat reaction between the titanium film and the silicon substrate such that the titanium film is subjected to silicide reaction with the thickness 4 nm to 48 nm or, more preferably, with the thickness of 8 nm to 34 nm. In the instance where the contact hole is filled with doped polycrystal silicon material, the titanium film is deposited to be in contact with the polycrystal silicon in the contact hole. The silicon substrate/silicon body may have at least a MISFET formed thereon in which case the contact hole is formed to expose an active region of the MISFET, as one example.

Abstract: A semiconductor device comprises a silicon substrate, an electrical wiring metal, an insulating film formed on the silicon substrate, a plurality of contact holes formed in the insulating film for connecting the silicon substrate and the electrical wiring metal to each other, and a titanium silicide film formed in the contact holes. The thickness of the titanium silicide film is 10 nm to 120 nm, or preferably, 20 nm to 84 nm. Semiconductor regions and the electrical wiring metal are connected to each other through the titanium silicide film.

Abstract: A semiconductor integrated circuit device comprises a plurality of holes in an interlayer insulating film beneath a bonding pad wherein a plug is buried in the respective holes and is made of the same conductive film (W/TiN/Ti) as a plug in a through-hole. Any wire as a second layer is not formed in a lower region of the bonding pad. The plug buried in the holes is connected only to the upper boding pad and is not connected to a lower wire.

Abstract: A semiconductor device comprises a silicon substrate, an electrical wiring metal, an insulating film formed on the silicon substrate, a plurality of contact holes formed in the insulating film for connecting the silicon substrate and the electrical wiring metal to each other, and a titanium silicide film formed in the contact holes. The thickness of the titanium silicide film is 10 nm to 120 nm or, preferably, 20 nm to 84 nm. Semiconductor regions and the electrical wiring metal are connected to each other through the titanium silicide film.

Abstract: In a semiconductor memory circuit device wherein each memory cell is constituted by a series circuit of a memory cell selecting MISFET and an information storing capacitor of a stacked structure, there are present in a first region as a memory cell array region a first MISFET having a gate electrode and source and drain regions; first and second capacity electrodes and a dielectric film extending onto a first insulating film on the gate electrode; a second insulating film positioned on the second capacity electrode; and a first wiring positioned on the second insulating film, while in a second region as a peripheral circuit region there are present a second MISFET having a gate electrode and source and drain regions; a first insulating film on the gate electrode; a third insulating film on the first insulating film; a second insulating film on the third insulating film; and a second wiring on the second insulating film.

Abstract: A semiconductor device comprises a silicon substrate, an electrical wiring metal, an insulating film formed on the silicon substrate, a plurality of contact holes formed in the insulating film for connecting the silicon substrate and the electrical wiring metal to each other, and a titanium silicide film formed in the contact holes. The thickness of the titanium silicide film is 10 nm to 120 nm or, preferably, 20 nm to 84 nm. Semiconductor regions and the electrical wiring metal are connected to each other through the titanium silicide film.

Abstract: In a semiconductor memory circuit device wherein each memory cell is constituted by a series circuit of a memory cell selecting MISFET and an information storing capacitor of a stacked structure, there are present in a first region as a memory cell array region a first MISFET having a gate electrode and source and drain regions; first and second capacity electrodes and a dielectric film extending onto a first insulating film on the gate electrode; a second insulating film positioned on the second capacity electrode; and a first wiring positioned on the second insulating film, while in a second region as a peripheral circuit region there are present a second MISFET having a gate electrode and source and drain regions; a first insulating film on the gate electrode; a third insulating film on the first insulating film; a second insulating film on the third insulating film; and a second wiring on the second insulating film.

Abstract: In a semiconductor memory circuit device wherein each memory cell is constituted by a series circuit of a memory cell selecting MISFET and an information storing capacitor of a stacked structure, there are present in a first region as a memory cell array region a first MISFET having a gate electrode and source and drain regions; first and second capacity electrodes and a dielectric film extending onto a first insulating film on the gate electrode; a second insulating film positioned on the second capacity electrode; and a first wiring positioned on the second insulating film, while in a second region as a peripheral circuit region there are present a second MISFET having a gate electrode and source and drain regions; a first insulating film on the gate electrode; a third insulating film on the first insulating film; a second insulating film on the third insulating film; and a second wiring on the second insulating film.

Abstract: In a semiconductor memory circuit device wherein each memory cell is constituted by a series circuit of a memory cell selecting MISFET and an information storing capacitor of a stacked structure, there are present in a first region, which is a memory cell array region, a first MISFET having a gate electrode and source and drain regions; first and second capacitor electrodes and a dielectric film extended over a first insulating film and over the gate electrode; a second insulating film disposed on the second capacitor electrode; a third insulating film interposed between the first insulating film and first capacitor electrode; and a first wiring positioned on the second insulating film.