Abstract: A semiconductor device includes a base region of a second conduction type provided over a drain region of a first conduction type, an outer peripheral well region of a second conduction type provided to cover the outer peripheral end of the base region and having an impurity concentration lower than that of the base region, a buried electrode buried in the semiconductor substrate not to overlap the outer peripheral well region, plural gate electrodes connected to the buried electrode and buried in the substrate such that each of them is adjacent to a source region, a gate interconnect provided over the substrate to overlap a portion of the outer peripheral well region in a plan view and connected to the buried electrode, and a grounding electrode provided over the substrate and connected to a portion of the outer peripheral well region not overlapping the gate interconnect in a plan view.

Abstract: Trenches are formed in a base layer and extend parallel to each other. A gate insulating film is formed on the inner wall of each of multiple trenches. A gate electrode GE is buried in each of the trenches. The source layer is formed in the base layer to a depth less than the base layer. The source layer is disposed between each of the trenches. A second conduction type high concentration layer is formed between the source layer and the trench in a plan view. The trench, the source layer, and the second conduction type high concentration are arranged in this order repetitively in a plan view. One lateral side of the trench faces the source layer and the other lateral side of the trench faces the second conduction type high concentration layer.

Abstract: A trench gate type MISFET and a diode are formed in a semiconductor substrate. First and second trenches are formed in the semiconductor substrate. A gate electrode is formed in the first trench through a gate insulating film. A dummy gate electrode is formed in the second trench through a dummy gate insulating film. A cathode n+-type semiconductor region and an anode p-type semiconductor region are formed in the semiconductor substrate and the second trench is formed so as to surround the n+-type semiconductor region in a planar view. A part of the anode p-type semiconductor region is formed directly below the n+-type semiconductor region, so that a PN junction is formed between the part of the anode p-type semiconductor region and the n+-type semiconductor region. Thereby a diode is formed. The dummy gate electrode is electrically coupled to one of an anode and a cathode.

Abstract: A reticle includes a repetition pattern and a peripheral pattern, one of which has a first side in a first direction and the other a second side in the first direction. The first side has a first length that is n times the second length of the second side, where n is an integer equal to or larger than 1. The first pattern has at least one of first misalignment measurement patterns provided at positions distant by a third length and ((the third length)+(n?1).times.(the second length)) from an upper end of the first pattern. The third length is equal to or smaller than the second length. The second pattern has a second misalignment measurement pattern provided at a position distant by the third length from an upper end of the second pattern.

Abstract: A reticle includes: a repetition pattern; and a peripheral pattern. One of the repetition pattern and peripheral pattern is a first pattern with a first side in a first direction and the other is a second pattern with a second side in the first direction. The first side has a first length equal to or longer than a second length of the second side. The first length is n (n is an integer equal to or larger than 1) times as large as the second length. The first pattern has at least one of first misalignment measurement patterns provided at positions distant by a third length and ((the third length)+(n?1)×(the second length)) from an upper end of the first pattern. The third length is equal to or smaller than the second length. The second pattern has a second misalignment measurement pattern provided at a position distant by the third length from an upper end of the second pattern.

Abstract: A pad structure 100 includes an electrode pad (a first electrically conducting film 104 and a second electrically conducting film 110) and an insulating film provided over a peripheral region of the electrode pad so as to surround the electrode pad, and the insulating film has a structure including a protective film (a cover oxide film 106) and a transparent resin film (a transparent resin 108) provided on the cover oxide film 106.

Abstract: A reticle includes: a repetition pattern; and a peripheral pattern. One of the repetition pattern and peripheral pattern is a first pattern with a first side in a first direction and the other is a second pattern with a second side in the first direction. The first side has a first length equal to or longer than a second length of the second side. The first length is n (n is an integer equal to or larger than 1) times as large as the second length. The first pattern has at least one of first misalignment measurement patterns provided at positions distant by a third length and ((the third length)+(n?1)×(the second length)) from an upper end of the first pattern. The third length is equal to or smaller than the second length. The second pattern has a second misalignment measurement pattern provided at a position distant by the third length from an upper end of the second pattern.

Abstract: A pad structure 100 includes an electrode pad (a first electrically conducting film 104 and a second electrically conducting film 110) and an insulating film provided over a peripheral region of the electrode pad so as to surround the electrode pad, and the insulating film has a structure including a protective film (a cover oxide film 106) and a transparent resin film (a transparent resin 108) provided on the cover oxide film 106.

Abstract: A pad structure 100 includes an electrode pad (a first electrically conducting film 104 and a second electrically conducting film 110) and an insulating film provided over a peripheral region of the electrode pad so as to surround the electrode pad, and the insulating film has a structure including a protective film (a cover oxide film 106) and a transparent resin film (a transparent resin 108) provided on the cover oxide film 106.

Abstract: The invention reduces dark current of a solid-state imaging device. A solid-state imaging device containing photodiode comprises: a diffusion layer placed side by side with the photodiode on the surface of an N-type semiconductor substrate; a first polycrystalline silicon electrode provided on the diffusion layer; a first Al interconnect provided on the first polycrystalline silicon electrode; a contact plug connecting the lower surface of the first Al interconnect and the first polycrystalline silicon electrode; and an adhesive film that is a titanium-containing film selectively provided within the contact plug.

Abstract: A pad structure 100 includes an electrode pad (a first electrically conducting film 104 and a second electrically conducting film 110) and an insulating film provided over a peripheral region of the electrode pad so as to surround the electrode pad, and the insulating film has a structure including a protective film (a cover oxide film 106) and a transparent resin film (a transparent resin 108) provided on the cover oxide film 106.