Abstract: The semiconductor device includes a first MIS transistor including a gate insulating film 92, a gate electrode 108 formed on the gate insulating film 92 and source/drain regions 154, a second MIS transistor including a gate insulating film 96 thicker than the gate insulating film 92, a gate electrode 108 formed on the gate insulating film 96, source/drain regions 154 and a ballast resistor 120 connected to one of the source/drain regions 154, a salicide block insulating film 146 formed on the ballast resistor 120 with an insulating film 92 thinner than the gate insulating film 96 interposed therebetween, and a silicide film 156 formed on the source/drain regions 154.

Abstract: A semiconductor device manufacturing method includes, forming isolation region having an aspect ratio of 1 or more in a semiconductor substrate, forming a gate insulating film, forming a silicon gate electrode and a silicon resistive element, forming side wall spacers on the gate electrode, heavily doping a first active region with phosphorus and a second active region and the resistive element with p-type impurities by ion implantation, forming salicide block at 500° C. or lower, depositing a metal layer covering the salicide block, and selectively forming metal silicide layers. The method may further includes, forming a thick and a thin gate insulating films, and performing implantation of ions of a first conductivity type not penetrating the thick gate insulating film and oblique implantation of ions of the opposite conductivity type penetrating also the thick gate insulating film before the formation of side wall spacers.

Abstract: A semiconductor device includes a first CMOS inverter, a second CMOS inverter, a first transfer transistor and a second transfer transistor wherein the first and second transfer transistors are formed respectively in first and second device regions defined on a semiconductor device by a device isolation region so as to extend in parallel with each other, the first transfer transistor contacting with a first bit line at a first bit contact region on the first device region, the second transfer transistor contacting with a second bit line at a second bit contact region on the second device region, wherein the first bit contact region is formed in the first device region such that a center of said the bit contact region is offset toward the second device region, and wherein the second bit contact region is formed in the second device region such that a center of the second bit contact region is offset toward the first device region.

Abstract: The semiconductor device includes a first MIS transistor including a gate insulating film 92, a gate electrode 108 formed on the gate insulating film 92 and source/drain regions 154, a second MIS transistor including a gate insulating film 96 thicker than the gate insulating film 92, a gate electrode 108 formed on the gate insulating film 96, source/drain regions 154 and a ballast resistor 120 connected to one of the source/drain regions 154, a salicide block insulating film 146 formed on the ballast resistor 120 with an insulating film 92 thinner than the gate insulating film 96 interposed therebetween, and a silicide film 156 formed on the source/drain regions 154.

Abstract: The method of manufacturing a semiconductor device, including a first region where a transistor including a gate electrode of a stacked structure is formed, a second region where a transistor including a gate electrode of a single-layer structure is formed, and a third region positioned in a boundary part between the first region and the second region, includes: depositing a first conductive film, patterning the first conductive film in the first region and the third region so that the outer edge is positioned in the third region, depositing the second conductive film, patterning the second conductive film to form a control gate in the first region while leaving the second conductive film, covering the second region and having the inner edge positioned inner of the outer edge of the first conductive film, and patterning the second conductive film in the second region to form the gate electrode.

Abstract: The semiconductor device includes a first MIS transistor including a gate insulating film 92, a gate electrode 108 formed on the gate insulating film 92 and source/drain regions 154, a second MIS transistor including a gate insulating film 96 thicker than the gate insulating film 92, a gate electrode 108 formed on the gate insulating film 96, source/drain regions 154 and a ballast resistor 120 connected to one of the source/drain regions 154, a salicide block insulating film 146 formed on the ballast resistor 120 with an insulating film 92 thinner than the gate insulating film 96 interposed therebetween, and a silicide film 156 formed on the source/drain regions 154.

Abstract: A semiconductor device manufacturing method includes, forming isolation region having an aspect ratio of 1 or more in a semiconductor substrate, forming a gate insulating film, forming a silicon gate electrode and a silicon resistive element, forming side wall spacers on the gate electrode, heavily doping a first active region with phosphorus and a second active region and the resistive element with p-type impurities by ion implantation, forming salicide block at 500° C. or lower, depositing a metal layer covering the salicide block, and selectively forming metal silicide layers. The method may further includes, forming a thick and a thin gate insulating films, and performing implantation of ions of a first conductivity type not penetrating the thick gate insulating film and oblique implantation of ions of the opposite conductivity type penetrating also the thick gate insulating film before the formation of side wall spacers.

Abstract: A semiconductor device includes a memory transistor including a first side wall insulating film and a second side wall insulating film disposed on the outside; a high-voltage transistor including a third side wall insulating film having the same composition as that of the first side wall insulating film, and a fourth side wall insulating film having the same composition as that of the second side wall insulating film, the fourth side wall insulating film being disposed on the outside; and a low-voltage transistor including a fifth side wall insulating film having the same composition as that of the second and fourth side wall insulating films. The memory transistor, the high-voltage transistor, and the low-voltage transistor are disposed on the same substrate. A total side wall spacer width of the low-voltage transistor is smaller than that of the high-voltage transistor by a thickness corresponding to the third side wall insulating film.

Abstract: The semiconductor device includes a first conductor formed over a semiconductor substrate; a first insulator formed over the first conductor; a second insulator formed over the first insulator, the second insulator having an etching characteristic different from an etching characteristic of the first insulator; a second conductor formed on the second insulator, the second conductor being in contact with the second insulator; a third insulator formed over the second conductor, the third insulator having an etching characteristic different from the etching characteristic of the second insulator; a first contact hole formed through the third insulator and the second conductor, the first contact hole reaching the second insulator; a third conductor formed in the first contact hole, wherein a side wall of the third conductor is electrically connected to a side wall of the second conductor; a second contact hole formed through the third insulator and the first insulator, the second contact hole reaching the first c

Abstract: The method of manufacturing a semiconductor device includes a first conductor over a semiconductor substrate; forming a first insulator over the first conductor; forming a second insulator, having an etching characteristic different from an etching characteristic of the first insulator, over the first insulator; forming a second conductor on the second insulator, the second conductor being in contact with the second insulator; forming a third insulator, having an etching characteristic different from the etching characteristic of the second insulator, over the second conductor; forming a first contact hole though the third insulator and the second conductor, the first contact hole exposing the second insulator; forming a second contact hole through the third insulator and the first insulator, the second contact hole exposing the first conductor; forming a third conductor in the first contact hole, wherein a side wall of the third conductor is electrically connected to a side wall of the second conductor; form

Abstract: The method of manufacturing a semiconductor device, including a first region where a transistor including a gate electrode of a stacked structure is formed, a second region where a transistor including a gate electrode of a single-layer structure is formed, and a third region positioned in a boundary part between the first region and the second region, includes: depositing a first conductive film, patterning the first conductive film in the first region and the third region so that the outer edge is positioned in the third region, depositing the second conductive film, patterning the second conductive film to form a control gate in the first region while leaving the second conductive film, covering the second region and having the inner edge positioned inner of the outer edge of the first conductive film, and patterning the second conductive film in the second region to form the gate electrode.

Abstract: A semiconductor device includes a first CMOS inverter, a second CMOS inverter, a first transfer transistor and a second transfer transistor wherein the first and second transfer transistors are formed respectively in first and second device regions defined on a semiconductor device by a device isolation region so as to extend in parallel with each other, the first transfer transistor contacting with a first bit line at a first bit contact region on the first device region, the second transfer transistor contacting with a second bit line at a second bit contact region on the second device region, wherein the first bit contact region is formed in the first device region such that a center of said the bit contact region is offset toward the second device region, and wherein the second bit contact region is formed in the second device region such that a center of the second bit contact region is offset toward the first device region.

Abstract: The semiconductor storage device comprises memory cell transistors formed on a semiconductor substrate 10; first insulation films 42 covering the top surfaces and the side surfaces of gate electrodes 20 of the memory cell transistors; through-holes 40 opened on first diffused layers 24; a second insulation film 36 with through-holes 40 opened on first diffused layers 24 and through-holes 38 opened on second diffused layers 26 formed in; capacitors formed on the inside walls and the bottoms of the through-holes 40 and including capacitor storage electrodes 46, connected to the first diffused layers 24; capacitor dielectric films 48 covering the capacitor storage electrodes 46, and capacitor-opposed electrodes 54 covering at least a part of the capacitor dielectric films 48; and, contact conducting films 44 formed on the inside walls and bottoms of the through-holes 38, and connected to the second diffused layers.

Abstract: A semiconductor device manufacturing method includes, forming isolation region having an aspect ratio of 1 or more in a semiconductor substrate, forming a gate insulating film, forming a silicon gate electrode and a silicon resistive element, forming side wall spacers on the gate electrode, heavily doping a first active region with phosphorus and a second active region and the resistive element with p-type impurities by ion implantation, forming salicide block at 500° C. or lower, depositing a metal layer covering the salicide block, and selectively forming metal silicide layers. The method may further includes, forming a thick and a thin gate insulating films, and performing implantation of ions of a first conductivity type not penetrating the thick gate insulating film and oblique implantation of ions of the opposite conductivity type penetrating also the thick gate insulating film before the formation of side wall spacers.

Abstract: A semiconductor device includes a first CMOS inverter, a second CMOS inverter, a first transfer transistor and a second transfer transistor wherein the first and second transfer transistors are formed respectively in first and second device regions defined on a semiconductor device by a device isolation region so as to extend in parallel with each other, the first transfer transistor contacting with a first bit line at a first bit contact region on the first device region, the second transfer transistor contacting with a second bit line at a second bit contact region on the second device region, wherein the first bit contact region is formed in the first device region such that a center of said the bit contact region is offset toward the second device region, and wherein the second bit contact region is formed in the second device region such that a center of the second bit contact region is offset toward the first device region.

Abstract: A semiconductor device with a multi-layer wiring structure includes a first conductive region: a second conductive region that has an upper surface located in a higher position than the first conductive region with respect to the substrate; an insulating that covers the first and second conductive regions; a wiring groove that is formed in the insulating film so as to expose the second conductive region; a contact hole that is formed in the insulating film so as to expose the first conductive region; and a wiring pattern that fills the wiring groove and the contact hole. In this semiconductor device, the upper surface of the wiring pattern is located on the same plane as the upper surface of the insulating film.

Abstract: According to the present invention, provided is a semiconductor device including: a p-type silicon substrate; a shallow n-well formed in the silicon substrate; a shallow p-well formed beside the shallow n-well in the silicon substrate; and a deep n-well which is formed beside the shallow p-well in the silicon substrate, and which is deeper than the shallow p-well. In addition, a deep p-well, which is deeper than the shallow p-well, is formed between the shallow p-well and the deep n-well in the silicon substrate.

Abstract: An integrated circuit device comprises a memory cell well formed with a flash memory device, first and second well of opposite conductivity types for formation of high voltage transistors, and third and fourth wells of opposite conductivity types for low voltage transistors, wherein at least one of the first and second wells and at least one of the third and fourth wells have an impurity distribution profile steeper than the memory cell well.

Abstract: A semiconductor device includes: a first insulating layer with a flat surface formed over a semiconductor substrate structure in which a plurality of semiconductor elements are formed; column-like conductive plugs formed to penetrate the first insulating layer in the thickness direction; elongated wall-like conductive plugs formed through the first insulating layer in the thickness direction; a second insulating layer with a flat surface formed on the first insulating layer covering the column-like conductive plugs and the wall-like conductive plugs; and first wirings having dual damascene structures. Each of the first wirings has a first portion penetrating the second insulating layer in the thickness direction and connected to at least one of the columnar conductive plugs, and a second portion formed in the second insulating layer to an intermediate depth and apparently intersects at least one of the wall-like conductive plugs when viewed above.

Abstract: An integrated circuit device comprises a memory cell well formed with a flash memory device, first and second well of opposite conductivity types for formation of high voltage transistors, and third and fourth wells of opposite conductivity types for low voltage transistors, wherein at least one of the first and second wells and at least one of the third and fourth wells have an impurity distribution profile steeper than the memory cell well.