Abstract:
A marking analysis system includes a marking data storage unit to store a plurality of marking data indicating a plurality of positions marked by a user in a book so as to correspond respectively to a plurality of users, a marking distribution analysis unit that analyzes the marking data and calculates a marking frequency for each of a plurality of unit areas in the book, and generates marking distribution characteristic data indicating a distribution of the marking frequency with respect to a position in the unit area, a marking distribution characteristic data storage unit to store the marking distribution characteristic data, and a similar user retrieval unit that, when determining that the distribution of the marking frequency indicated by the marking distribution characteristic data of a target user selected as a processing target and the distribution of the marking frequency indicated by the marking distribution characteristic data of another user are similar, extracts the another user as a similar user who is similar to the target user.
Abstract:
A semiconductor device includes: a multilayer wiring layer located over a substrate and in which multiple wiring layers configured by a wiring and an insulating layer are stacked; a memory circuit which is formed in a memory circuit region in the substrate and has a capacitance element embedded in a concave part located in the multilayer wiring layer; a logic circuit which is formed in a logic circuit region in the substrate; an upper part coupling wiring which is stacked over the capacitance element configured by a lower part electrode, a capacitor insulating film and an upper part electrode; and a cap layer which is formed on the upper surface of the wiring configuring the logic circuit. The upper surface of the upper part coupling wiring and the upper surface of the cap film are provided on the same plane.
Abstract:
A semiconductor device includes a substrate, an interlayer insulation layer, first transistors, a multilayered interconnect layer, capacitance devices, metal interconnects, and first contacts. Interlayer insulation films are disposed over the substrate. The first transistors are disposed to the substrate and buried in the interlayer insulation layer. The first transistor has at least a gate electrode and a diffusion electrode. A multilayered interconnect layer is disposed over the interlayer insulation film. The capacitance devices are disposed in the multilayered interconnect layer. The metal interconnect is in contact with the upper surface of the gate electrode and buried in the interlayer insulation layer. The first contact is coupled to the diffusion layer of the first transistor and buried in the interlayer insulation layer. The metal interconnect includes a material identical with that of the first contact.
Abstract:
An inductor element is formed in a multiple layer lead structure including a lead, an insulative layer that insulates leads above and below, and a via provided in the insulative layer and connecting leads above and below wherein lead layers are multiply laminated layers, characterized in that: at least a portion of at least a pair of vertically adjacent leads are coiled leads; the coiled leads are connected in series, wherein current directions of vertically adjacent coiled leads are the same by a via provided on an end portion thereof, and form a serial inductance; and an inter-lead capacitance of the vertically adjacent coiled leads is larger than an inter-lead capacitance between other coiled leads formed in the same lead layer.
Abstract:
An object of the invention is to transmit a waveform suitable for the reception of signals, while suppressing an increase in man-hours needed for design. A transmission-reception device (2) includes: an antenna element (21) which is terminated at a virtual ground point side of the antenna element by a terminating element (213); a conductor plane (23) which has a predetermined potential and surrounds the antenna element (21); and a transmission circuit (25) that outputs a differential signal to both ends of the antenna element (21). An interval between the conductor plane (23) and a first outer edge (214) of the antenna element (21) is shorter than an interval between the conductor plane (23) and a second outer edge (215) of the antenna element (21).
Abstract:
A scanning system 9 according to the present invention includes an image acquisition unit 91 that acquires a plurality of pieces of image information generated by continuously scanning a medium to be scanned, a path calculation unit 92 that calculates a path of scanning the medium based on the plurality of pieces of image information acquired by the image acquisition unit 91, a processing method determination unit 93 that determines a processing method of the plurality of pieces of image information in accordance with a path calculated by the path calculation unit 92, and a processing unit 94 that processes the plurality of pieces of image information by a processing method determined by the processing method determination unit 93 and converts the plurality of pieces of image information into information in a form corresponding to the processing method.
Abstract:
An object of the present invention is to provide a skill teaching verification system and a skill teaching verification program that can verify an effect of a teaching method for a skill.An analyzing unit analyzes a plurality of pieces of sample data stored in a storing unit using a predetermined multivariate analyzing method. A motion template generation unit generates a standard human body motion model on the basis of an analysis result by the analyzing unit. A motion synthesizing unit generates a corrected human body motion model obtained by correcting the standard human body motion model on the basis of an instruction of a user. A verification unit predicts an attempt result obtained from the corrected human body motion model on the basis of the analysis result by the analyzing unit.
Abstract:
A semiconductor device includes a substrate, an interlayer insulation layer, first transistors, a multilayered interconnect layer, capacitance devices, metal interconnects, and first contacts. Interlayer insulation films are disposed over the substrate. The first transistors are disposed to the substrate and buried in the interlayer insulation layer. The first transistor has at least a gate electrode and a diffusion electrode. A multilayered interconnect layer is disposed over the interlayer insulation film. The capacitance devices are disposed in the multilayered interconnect layer. The metal interconnect is in contact with the upper surface of the gate electrode and buried in the interlayer insulation layer. The first contact is coupled to the diffusion layer of the first transistor and buried in the interlayer insulation layer. The metal interconnect includes a material identical with that of the first contact.
Abstract:
A first communication device includes a first coupling element and a second communication device includes a second coupling element. The first and second communication devices are configured to wirelessly transmit, between the first and second communication devices, a differential-mode signal and a common-mode signal simultaneously through non-contact coupling between the first and second coupling elements.
Abstract:
Disclosed is a semiconductor device including a semiconductor chip and a semiconductor package. The semiconductor package includes an antenna formed of a lead frame, a first wire that connects the antenna and a first electrode pad of the semiconductor chip, and a second wire that connects the antenna and a second electrode pad of the semiconductor chip. The semiconductor chip is disposed in one of four regions in the semiconductor package sectioned by line segments connecting midpoints of two pairs of opposing sides of the semiconductor package. A centroid of the semiconductor chip is positioned outside a closed curve composed of a straight line segment connecting a first connection point where the antenna and the first wire are connected and a second connection point where the antenna and the second wire are connected, and a line connecting the first and second connection points along the antenna.