Abstract: A reception apparatus including an extraction section; a transmission line characteristic estimation section; an interpolation section; a compensation section; a detection section; and a selection section.

Abstract: A semiconductor device manufacturing apparatus is provided with a drawing pattern printing part having a print head which injects a conductive solvent, an insulative solvent and an interface treatment solution. The print head is formed in such a way that desired circuit drawing pattern can be printed on a wafer based on information on the drawing pattern from a wafer testing part, information on the wafer from a storage part and coordinate information from a chip coordinate recognition part. In a semiconductor device manufacturing method according to the present invention, a semiconductor device is manufactured by using the semiconductor device manufacturing apparatus in such a manner that desired circuits are formed through printing process. In the semiconductor device, pad electrodes and so on are formed in such a way that trimming process can be conducted by printing circuit drawing patterns.

Abstract: According to one embodiment, a semiconductor device includes a stacked structure that is formed by laminating a first insulating film, first conductive layer, second insulating film and second conductive layer on a semiconductor substrate and in which the first and second conductive layers are connected with a via electrically, an interlayer insulating film formed to electrically separate the second conductive layer into a first region including a connecting portion with the first conductive layer and a second region that does not include the connecting portion, a first contact plug formed on the first region and a second contact plug formed on the second region. An isolation insulating film is buried in portions of the substrate, first insulating film and first conductive layer in one peripheral portion on the second region side of the stacked structure and the second contact plug is formed above the isolation insulating film.

Abstract: A semiconductor device manufacturing apparatus is provided with a drawing pattern printing part having a print head which injects a conductive solvent, an insulative solvent and an interface treatment solution. The print head is formed in such a way that desired circuit drawing pattern can be printed on a wafer based on information on the drawing pattern from a wafer testing part, information on the wafer from a storage part and coordinate information from a chip coordinate recognition part. In a semiconductor device manufacturing method according to the present invention, a semiconductor device is manufactured by using the semiconductor device manufacturing apparatus in such a manner that desired circuits are formed through printing process. In the semiconductor device, pad electrodes and so on are formed in such a way that trimming process can be conducted by printing circuit drawing patterns.

Abstract: Disclosed is a multilayer wiring board in which a copper foil is bonded by a thermocompression bonding onto an insulating layer having a bump for interlayer connection buried therein, and the copper foil and the bump are electrically connected to each other. The copper foil is provided with an oxide film having a thickness of 50 ? to 350 ? on a surface in contact with the bump and an insulating layer. In a manufacturing process, for example, an oxide coating of the copper foil to be subject to the thermocompression bonding is removed by acid cleaning, and then an oxide film having an appropriate thickness is formed by irradiating the copper foil with ultraviolet light. Consequently, reliability in electrical connection between the copper foil and the burn is adequately ensured, while achieving sufficient mechanical connection strength between the copper foil and the insulating layer.

Abstract: A select gate transistor has a select gate electrode composed of a first-level conductive layer and a second-level conductive layer. The first-level conductive layer has contact areas. The second-level conductive layer has its portions removed that are located above the contact areas. Two adjacent select gate electrodes that are adjacent to each other in the column direction are arranged such that the contact areas of one select gate electrode are not opposed to the contact areas of the other select gate electrode. One select gate electrode has its first- and second-level conductive layers removed in their portions that are opposed to the contact areas of the other select gate electrode.

Abstract: In a non-volatile semiconductor memory device and a method for manufacturing the device, each memory cell and its select Tr have the same gate insulating film as a Vcc Tr. Further, the gate electrodes of a Vpp Tr and Vcc Tr are realized by the use of a first polysilicon layer. A material such as salicide or a metal, which differs from second polysilicon (which forms a control gate layer), may be provided on the first polysilicon layer. With the above features, a non-volatile semiconductor memory device can be manufactured by reduced steps and be operated at high speed in a reliable manner.

Abstract: A non volatile semiconductor memory device includes: a semiconductor substrate comprising element regions; gate structures each comprising a first gate insulation film, a charge storage layer, a second gate insulation film, and a control gate; element isolation insulation films defining the element regions and electrically isolating the element regions; impurity diffusion layers in the element regions; a third gate insulation film of a first insulation material located between the gate structures; and a fourth gate insulation film of a second insulation material which is different from the first insulation material configured to be in contact with side walls of the gate structures. A bottom face of the fourth gate insulation film is located so as to be remote from a surface of the semiconductor substrate by a distance equal to at least half of a height of the charge storage layer.

Abstract: A select gate transistor has a select gate electrode composed of a first-level conductive layer and a second-level conductive layer. The first-level conductive layer has contact areas. The second-level conductive layer has its portions removed that are located above the contact areas. Two adjacent select gate electrodes that are adjacent to each other in the column direction are arranged such that the contact areas of one select gate electrode are not opposed to the contact areas of the other select gate electrode. One select gate electrode has its first- and second-level conductive layers removed in their portions that are opposed to the contact areas of the other select gate electrode.

Abstract: Disclosed herein is a signal processing apparatus including a first detection block; a second detection block; a duration detection block; a duration information output block; and a demodulation block.

Abstract: In a non-volatile semiconductor memory device and a method for manufacturing the device, each memory cell and its select Tr have the same gate insulating film as a Vcc Tr. Further, the gate electrodes of a Vpp Tr and Vcc Tr are realized by the use of a first polysilicon layer. A material such as salicide or a metal, which differs from second polysilicon (which forms a control gate layer), may be provided on the first polysilicon layer. With the above features, a non-volatile semiconductor memory device can be manufactured by reduced steps and be operated at high speed in a reliable manner.

Abstract: A semiconductor memory device capable of preventing a defect caused by lowering the etching precision in an end area of the memory cell array is provided. A first block is constructed by first memory cell units each having of memory cells, a second block is constructed by second memory cell units each having a plurality of memory cells, and the memory cell array is constructed by arranging the first blocks on both end portions thereof and arranging the second blocks on other portions thereof. The structure of the first memory cell unit on the end side of the memory cell array is different from that of the second memory cell unit. Wirings for connecting the selection gate lines of the memory cell array to corresponding transistors in a row decoder are formed of wiring layers formed above wirings for connecting control gate lines of the memory cell array to the transistors in the row decoder.

Abstract: A semiconductor memory device capable of preventing a defect caused by lowering the etching precision in an end area of the memory cell array is provided. A first block is constructed by first memory cell units each having of memory cells, a second block is constructed by second memory cell units each having a plurality of memory cells, and the memory cell array is constructed by arranging the first blocks on both end portions thereof and arranging the second blocks on other portions thereof. The structure of the first memory cell unit on the end side of the memory cell array is different from that of the second memory cell unit. Wirings for connecting the selection gate lines of the memory cell array to corresponding transistors in a row decoder are formed of wiring layers formed above wirings for connecting control gate lines of the memory cell array to the transistors in the row decoder.

Abstract: A semiconductor device includes a low-side circuit, high-side circuit, a virtual ground potential pad, a common ground potential pad and a diode, formed on a semiconductor substrate. The low-side circuit drives a low-side power transistor. The high-side circuit is provided at a high potential region, and drives a high-side power transistor. The virtual ground potential pad is arranged at the high potential region, and coupled to a connection node of both power transistors to supply a virtual ground potential to the high-side circuit. The common ground potential pad supplies a common ground potential to the low-side circuit and high-side circuit. The diode has its cathode connected to the virtual ground potential pad and its anode connected to the common ground potential pad.

Abstract: A nonvolatile semiconductor memory device includes an element isolation insulating film buried in first trenches, a floating gate electrode formed on an element forming region with a first gate insulating film being interposed between them, and a second gate insulating film formed on upper portions of the floating gate electrode and an element isolation insulating film. The floating gate electrode is formed so as to have a side that extends from a bottom thereof to its upper portion and is substantially an extension of a sidewall of each first trench. The element isolation insulating film includes a portion located between its sidewall and the sidewall of a second trench, and the portion of the element isolation insulating film having a film thickness in a direction along the upper surface of the semiconductor substrate. The film thickness is equal to a film thickness of the second gate insulating film.

Abstract: A semiconductor memory device capable of preventing a defect caused by lowering the etching precision in an end area of the memory cell array is provided. A first block is constructed by first memory cell units each having of memory cells, a second block is constructed by second memory cell units each having a plurality of memory cells, and the memory cell array is constructed by arranging the first blocks on both end portions thereof and arranging the second blocks on other portions thereof. The structure of the first memory cell unit on the end side of the memory cell array is different from that of the second memory cell unit. Wirings for connecting the selection gate lines of the memory cell array to corresponding transistors in a row decoder are formed of wiring layers formed above wirings for connecting control gate lines of the memory cell array to the transistors in the row decoder.

Abstract: A semiconductor device is provided which is capable of avoiding malfunction and latchup breakdown resulting from negative variation of high-voltage-side floating offset voltage (VS). In the upper surface of an n-type impurity region, a p+-type impurity region is formed between an NMOS and a PMOS and in contact with a p-type well. An electrode resides on the p+-type impurity region and the electrode is connected to a high-voltage-side floating offset voltage (VS). The p+-type impurity region has a higher impurity concentration than the p-type well and is shallower than the p-type well. Between the p+-type impurity region and the PMOS, an n+-type impurity region is formed in the upper surface of the n-type impurity region. An electrode resides on the n+-type impurity region and the electrode is connected to a high-voltage-side floating supply absolute voltage (VB).

Abstract: A semiconductor device is configured that a high-withstand voltage semiconductor device and logic circuits are integrated on a single chip and that a high-withstand voltage high-potential island including the high-potential-side logic circuit is separated using multiple partition walls enclosing therearound. The semiconductor device is provided with a multi-trench separation region having a level shift wire region that is used to connect the high-potential-side logic circuit to the high-potential-side electrode of the high-withstand voltage semiconductor device.

Abstract: Extending from an upper surface of an n? semiconductor layer on a p? semiconductor substrate to the interface between the n? semiconductor layer and the p? semiconductor substrate, a p+ impurity region is provided. The p+ impurity region defines a high-potential island region, a low-potential island region and a slit region in the n? semiconductor layer. The n? semiconductor layer in the high-potential island region and the n? semiconductor layer in the low-potential island region are connected by the n? semiconductor layer in the slit region, and a logic circuit is formed in the n? semiconductor layer in the high-potential island region. A width in the direction of Y axis of the n? semiconductor layer in the slit region is set to be narrower than a width in the direction of the Y axis of the n? semiconductor layer in the high-potential island region.

Abstract: An RESURF region is formed so as to surround a high-potential logic region with an isolation region interposed therebetween, in which a sense resistance and a first logic circuit which are applied with a high potential are formed in high-potential logic region. On the outside of RESURF region, a second logic circuit region is formed, which is applied with the driving voltage level required for driving a second logic circuit with respect to the ground potential. In RESURF region, a drain electrode of a field-effect transistor is formed along the inner periphery, and a source electrode is formed along the outer periphery. Furthermore, a polysilicon resistance connected to sense resistance is formed in the shape of a spiral from the inner peripheral side toward the outer peripheral side.