Abstract: A solid-state image pickup device relating to the present invention has a specific gap in a part of a lattice-shaped light blocking film pattern or wiring pattern having an opening enclosing a light reception region. Peripheral circuits and wiring layers on a pixel may be used as the light blocking film. In such a case, when multiple wiring layers are used as the light blocking film, layouts of a second and subsequent wiring layers is determined according to the layout of the first wiring layer above the light reception region. The specific gap is created in a part of the wiring enclosing the light reception region.

Abstract: A solid-state image pickup device relating to the present invention has a specific gap in a part of a lattice-shaped light blocking film pattern or wiring pattern having an opening enclosing a light reception region. Peripheral circuits and wiring layers on a pixel may be used as the light blocking film. In such a case, when multiple wiring layers are used as the light blocking film, layouts of a second and subsequent wiring layers is determined according to the layout of the first wiring layer above the light reception region. The specific gap is created in a part of the wiring enclosing the light reception region.

Abstract: The semiconductor device of the present invention includes a bootstrap circuit, the bootstrap circuit including: a selection transistor composed of an n-channel MOS transistor; a booster transistor of which a gate is connected to a drain of the selection transistor; and a boosting circuit that is connected between the gate and a source of the booster transistor, and boosts gate voltage with respect to the source of the booster transistor, wherein gate dimensions of the selection transistor are smaller than gate dimensions of the booster transistor. According to this configuration, the semiconductor device can realize increasing an action of a circuit, decreasing a chip size and simplifying processes.

Abstract: A solid-state imaging device including: a plurality of photosensitive cells, each having a photodiode, arranged on a semiconductor substrate (1) in a matrix; and a peripheral driving circuit that has a plurality of transistors for driving the plurality of photosensitive cells. The plurality of transistors includes a first transistor and a second transistor, the first transistor having a first diffusion layer (2) as a source or a drain where a signal potential corresponding to a signal charge generated by the photodiode is transmitted and held, and the second transistor having a second diffusion layer as a source and a drain where the signal potential is not transmitted.

Abstract: A solid-state imaging device includes: a plurality of N-type photodiode regions formed inside a P-type well; a gate electrode having one edge being positioned adjacent to each of the photodiode regions; a N-type drain region positioned adjacent to the other edge of the gate electrode; an element-isolating portion having a STI structure, and a gate oxide film having a thickness of not more than 10 nm. One edge of the gate electrode overlaps the photodiode region.

Abstract: A solid-state imaging device including: a plurality of photosensitive cells, each having a photodiode, arranged on a semiconductor substrate (1) in a matrix; and a peripheral driving circuit that has a plurality of transistors for driving the plurality of photosensitive cells. The plurality of transistors includes a first transistor and a second transistor, the first transistor having a first diffusion layer (2) as a source or a drain where a signal potential corresponding to a signal charge generated by the photodiode is transmitted and held, and the second transistor having a second diffusion layer as a source and a drain where the signal potential is not transmitted.

Abstract: An integrated circuit includes: a semiconductor substrate that has a well region containing a first conductivity type impurity; and an enhancement type MOS transistor and a plurality of depletion type MOS transistors, each of which is formed in the well region and has a channel region under a gate electrode. At least one of the depletion type MOS transistors has, in the channel region, an implantation region into which a second conductivity type impurity is implanted so that a threshold voltage is adjusted. The implantation region has the first conductivity type impurity and the second conductivity type impurity. Further, the second conductivity type impurity has a concentration that is higher than a concentration of the first conductivity type impurity.

Abstract: The semiconductor device of the present invention includes a bootstrap circuit, the bootstrap circuit including: a selection transistor composed of an n-channel MOS transistor; a booster transistor of which a gate is connected to a drain of the selection transistor; and a boosting circuit that is connected between the gate and a source of the booster transistor, and boosts gate voltage with respect to the source of the booster transistor, wherein gate dimensions of the selection transistor are smaller than gate dimensions of the booster transistor. According to this configuration, the semiconductor device can realize increasing an action of a circuit, decreasing a chip size and simplifying processes.

Abstract: A solid-state imaging device includes: a plurality of N-type photodiode regions formed inside a P-type well; a gate electrode having one edge being positioned adjacent to each of the photodiode regions; a N-type drain region positioned adjacent to the other edge of the gate electrode; an element-isolating portion having a STI structure, and a gate oxide film having a thickness of not more than 10 nm. One edge of the gate electrode overlaps the photodiode region.

Abstract: A solid-state imaging device includes: a plurality of N-type photodiode regions formed inside a P-type well; a gate electrode having one edge being positioned adjacent to each of the photodiode regions; a N-type drain region positioned adjacent to the other edge of the gate electrode; an element-isolating portion having a STI structure, and a gate oxide film having a thickness of not more than 10 nm. One edge of the gate electrode overlaps the photodiode region.

Abstract: A solid-state imaging device includes: a plurality of N-type photodiode regions formed inside a P-type well; a gate electrode having one edge being positioned adjacent to each of the photodiode regions; a N-type drain region positioned adjacent to the other edge of the gate electrode; an element-isolating portion having a STI structure, and a gate oxide film having a thickness of not more than 10 nm. One edge of the gate electrode overlaps the photodiode region.

Abstract: A method for forming a semiconductor device is provided that allows a desirable semiconductor device to be obtained by preventing a gate electrode of a non-volatile semiconductor memory from having an abnormal shape and the surfaces of high concentration source and drain regions of the non-volatile semiconductor memory from being worn away. The method includes a first step of forming a non-volatile semiconductor memory in a first region of a substrate of the semiconductor device and a second step of forming a semiconductor device in a second region on the substrate. The non-volatile semiconductor memory includes a first gate including a tunnel insulating film, a floating gate electrode, a capacitor insulating film, and a control gate electrode, and the semiconductor device includes a second gate including a gate insulating film and a gate electrode.

Abstract: A method for forming a semiconductor device is provided that allows a desirable semiconductor device to be obtained by preventing a gate electrode of a non-volatile semiconductor memory from having an abnormal shape and the surfaces of high concentration source and drain regions of the non-volatile semiconductor memory from being worn away. The method includes a first step of forming a non-volatile semiconductor memory in a first region of a substrate of the semiconductor device and a second step of forming a semiconductor device in a second region on the substrate. The non-volatile semiconductor memory includes a first gate including a tunnel insulating film, a floating gate electrode, a capacitor insulating film, and a control gate electrode, and the semiconductor device includes a second gate including a gate insulating film and a gate electrode.