Abstract: Each chip in a three-dimensional circuit includes a pair of connections, a test signal generation circuit, and a test result judgment circuit. The connections are electrically connected with an adjacent chip. The test signal generation circuit outputs a test signal to one of the connections. The test result judgment circuit receives a signal from the other of the connections and, from the state of the signal, detects the conducting state of the transmission path for the signal. Before layering the chips, a conductor connects the connections to form a series connection, and the conducting state of each connection is detected from the conducting state of the series connection. After layering the chips, the test signal generation circuit in one chip outputs a test signal, and the test result judgment circuit in another chip receives the test signal, and thus the conducting state of the connections between the chips is tested.

Abstract: A chip is layered on a rewiring member. A plurality of connecting members and a plurality of redundant connecting members are arranged in the chip, and electrically connect the chip to the rewiring member. Redundant circuits are embedded in each of the rewiring member and the chip. When one of the connecting members is faulty, the redundant circuits cause one of the redundant connecting members to transmit a signal between the rewiring member and the chip, instead of the faulty connecting member. The connecting members have first and second subsets arranged in first and second regions, respectively. A distance between the rewiring member and the chip exceeds a predetermined threshold value in the first region in contrast to the second region. The first subset has a higher proportion of connecting members that the redundant circuits can replace with a subset of the redundant connecting members than the second subset.

Abstract: According to a compressor of the present invention, the compressor further comprises an oil separating mechanism 40 which separates oil from the refrigerant gas discharged from the compressing mechanism 10, the oil separating mechanism 40 includes a cylindrical space 41 in which the refrigerant gas orbits, an inflow portion 42 for flowing the refrigerant gas discharged from the compressing mechanism 10 into the cylindrical space 41, a sending-out port 43 for sending out, from the cylindrical space 41 to the one container space 32, the refrigerant gas from which the oil is separated, and an exhaust port 44 for discharging the separated oil from the cylindrical space 41 into the other container space 32. According to this configuration, efficiency of the electric motor 20 is enhanced, volumetric efficiency is enhanced, and low oil circulation is realized.

Abstract: A memory access control device including: a bit position information storage unit storing bit position information indicating one or more bit positions in a bit sequence of a predetermined length; a reading unit configured to attempt to read a bit sequence from the range specified by the logical address received by the logical address receiving unit, thereby receiving a first bit sequence from the external memory in units of the predetermined length, the first bit sequence being composed of bits that are larger in number than bits stored in the range specified by the logical address; a bit sequence extracting unit configured to extract one or more bit sequences from the first bit sequence at the one or more bit positions indicated by the bit position information in units of the predetermined length.

Abstract: An object of the present invention is to provide a drug having the inhibitory activity on ENPP2 which is a different target from that of the existing drug, as a medicament useful in a urinary excretion disorder patient for whom the existing drug has the insufficient effect. The present invention provides a compound represented by the general formula (I): (wherein definition of each group is as defined in the description) having the ENPP2 inhibitory activity, a salt thereof or a solvate thereof or a prodrug thereof, and an agent for preventing or treating urinary excretion disorder and/or improving symptoms thereof, containing them as an active ingredient.

Abstract: A liquid crystal display device includes a group of first signal lines ( . . . , Sm?1, Sm, Sm+1, . . . ) arranged in parallel, a group of second signal lines ( . . . , Gn?1, Gn, Gn+1, . . . ) and a group of auxiliary capacity wirings ( . . . , Csn?1, Csn, Csn+1, . . . ) alternately arranged one by one in parallel so as to intersect with the group of the first signal lines, a plurality of pixel electrodes arranged in a pixel region, an auxiliary electrode connected to each of the pixel electrodes, and a TFT element corresponding to each of the pixel electrodes. The auxiliary electrode has a portion forming a capacitor by overlapping with auxiliary capacity wiring Csn and a portion forming a capacitor by overlapping with second signal line Gn?1.

Abstract: According to a compressor of the present invention, the compressor further comprises an oil separating mechanism 40 which separates oil from the refrigerant gas discharged from the compressing mechanism 10, the oil separating mechanism 40 includes a cylindrical space 41 in which the refrigerant gas orbits, an inflow portion 42 for flowing the refrigerant gas discharged from the compressing mechanism 10 into the cylindrical space 41, a sending-out port 43 for sending out, from the cylindrical space 41 to the one container space 32, the refrigerant gas from which the oil is separated, and an exhaust port 44 for discharging the separated oil and a portion of the refrigerant gas from the cylindrical space 41, and a center of the sending-out port 43 is deviated in a direction opposite from the inflow portion 42 from a center axis of the cylindrical space 41.

Abstract: One aspect of the present invention is a three-dimensional integrated circuit 1 including a first semiconductor chip and a second semiconductor chip that are layered on each other, wherein each of (i) a wiring layer closest to an interface between the first and second semiconductor chips among wiring layers of the first semiconductor chip and (ii) a wiring layer closest to the interface among wiring layers of the second semiconductor chip includes a power conductor area and a ground conductor area, a layout of the power conductor area and the ground conductor area in the first semiconductor chip is the same as a layout of the power conductor area and the ground conductor area in the second semiconductor chip, and the power conductor area in the first semiconductor chip at least partially faces the ground conductor area in the second semiconductor chip with an insulation layer therebetween.

Abstract: An integrated circuit is provided with a substrate, an electrode, two diffusion areas, and a resistance heater. The substrate includes a first surface and second surface that are substantially parallel to each other. The electrode is laminated onto the first surface. The two diffusion areas are disposed within the substrate in the vicinity of the electrode to form one transistor with the electrode. The resistance heater is located on an area of the second surface across the substrate from the electrode. The resistance heater produces heat by allowing electric current to flow.

Abstract: A worst-case temperature calculation unit 206 calculates, based on heat value information of each layer of a three-dimensional integrated circuit to be designed and stack structure information of the three-dimensional integrated circuit, a worst-case temperature of a layer during operation that is targeted for logic synthesis. A logic synthesis library selection unit 208 selects a library appropriate for the calculated worst-case temperature. A logic synthesis unit 209 performs logic synthesis on the targeted layer with use of the selected library.

Abstract: An armrest includes a stationary shaft, fixed to a seat frame, the shaft is inserted and is rotatable about an armrest body, a spring wound around the shaft, one end of the spring being a stationary-side hook locked to the armrest, the other spring end being a free-side hook, a hook-supporting part supporting the free-side hook in a raised direction of the shaft, a hook-joint enlarging a spring diameter by dropping the free-side hook on the hook-supporting part downward in the axial direction of the shaft, and a cam on the shaft 2 and having an unlocking cam part for unlocking the spring by dropping the free-side hook from the hook-supporting part into the hook-joint when the armrest body is rotated, and a relocking cam part for locking the spring by raising the free-side hook from the hook-joint and supporting it by the hook-supporting part when the armrest body is rotated.

Abstract: In a solid polyelectrolyte fuel cell, with a frame including a frame body main part placed along a peripheral edge portion of a membrane, a plurality of first retaining portions which are arrayed so as to protrude from an inner edge of the frame body main part and which retain the front surface side of the membrane, and a plurality of second retaining portions which are arrayed so as to protrude from the inner edge of the frame body main part and which retain the back surface side of the membrane, the first retaining portions and the second retaining portions are so arrayed that retaining positions of the membrane by the first retaining portions and retaining positions of the membrane by the second retaining portions are alternately placed.

Abstract: To provide a design support device of a three-dimensional integrated circuit capable of, in the case where a placement position of a through-via changes in the design phase of a three-dimensional integrated circuit composed of a plurality of semiconductor chips in layers, avoiding change of respective placement positions of other parts as much as possible. A design support device 400 includes a TSV placement unit 437 that determines respective placement positions of through-vias on one semiconductor chip, the through-bias each penetrating to connect to another semiconductor chip, a TSV reserved cell placement unit 439 that determines, based on the respective placement positions of the through-vias, respective placement positions of reserved cells as respective spare placement positions of the through-vias, and a mask data generation unit 445 that generates layout data that includes the respective placement positions of the through-vias and the respective placement positions of the reserved cells.

Abstract: Disclosed is a membrane electrode assembly provided with a polymer electrolyte membrane; a catalyst layer (A) which is laminated onto one surface of the polymer electrolyte membrane; a gas diffusion layer (A) which is laminated onto the catalyst layer (A); a catalyst layer (B); and a gas diffusion layer (B). The outer circumferential section of the catalyst layer (A) is the membrane electrode assembly with an integrated frame which comprises a membrane electrode assembly that protrudes from the gas diffusion layer (A) and a frame adhered to the outer circumferential section of the catalyst layer (A), whereby said frame surrounds the edge of the membrane electrode assembly. The surface that is adhered to the frame in the outer circumferential section of the catalyst layer (A) comprises a plurality of cracks.

Abstract: In an MEA member constituted by a polymer electrolyte membrane-electrode assembly (MEA) and a frame and in a polymer electrolyte fuel cell including this MEA member, the MEA and the frame can be easily separated from each other without using any special tool. An MEA member 7 includes an MEA 5 and a plate-shaped resin frame 6, and a separating portion for separating the MEA 5 from the frame 6 is formed in the MEA member 7. The MEA 5 includes a polymer electrolyte membrane 2 and a pair of electrodes 3 and 4 respectively disposed on both main surfaces of the polymer electrolyte membrane 2. The frame 6 sandwiches and holds a peripheral portion of main surfaces of the MEA 5 such that the MEA 5 is located inside the frame. The separating portion is a broken-line cutoff line 50 formed on the frame 6 to divide the frame 6 into two or more parts or a partial sandwiching portion 55 located at an inner peripheral portion of the frame 6 to partially sandwich the peripheral portion of the MEA 5.

Abstract: An imaging unit includes a mount unit, an imaging element unit, a plurality of elastic members, a plurality of adjusting screws, and at least one restricting member. The mount unit is configured to support the interchangeable lens unit. The imaging element unit is disposed apart from the mount unit and is configured to produce image data for the subject by opto-electrical conversion. The plurality of elastic members is disposed in a compressed state between the mount unit and the imaging element unit. The plurality of adjusting screws is mounted to the mount unit and/or the imaging element unit to adjust the distance between the mount unit and the imaging element unit. The restricting member is mounted to the mount unit and/or the imaging element unit and configured to restrict the imaging element unit from moving close to the mount unit against the elastic force of the elastic members.

Abstract: A shutter drive device includes a base member, an actuator, a first drive member, and a second drive member. The actuator is fixed to the base member and produces a driving force to drive the shutter mechanism. The first drive member is rotatably supported by the base member and configured to be rotated by the driving force. The second drive member is supported by the base member so as to be linearly movable in a first direction and configured to transmit the driving force of the actuator to the shutter mechanism. The first drive member has a gear component to drive the second drive member in the first direction, and a cam component configured to hold the second drive member in a specific position. The second drive member has a rack gear configured to mesh with the gear component, and a cam follower configured to contact the cam component.

Abstract: A fuel cell separator pair has first and second separators having front and back surfaces, a corrugated plate portion shaped in a wave form at the central portion, and a flat plate portion formed in the peripheral portion and surrounding the corrugated plate portion, wherein the corrugated plate portion of the front surface constitutes a reaction gas channel and the corrugated plate portion of the back surface constitutes a coolant channel. The back surfaces of the first and second separators are facing each other. The flat plate portions of the first and second separators are arranged on top of each other so as to be in contact with each other. The flat plate portion of the second separator protrudes toward the outside beyond the flat plate portion of the first separator.

Abstract: An ultrasonic scaler tip, capable of effectively removing tartar or the like adhered around an artificial tooth root, is provided. An ultrasonic scaler is also provided, which prevents metal material (for example, ion), except for titanium or titanium alloy, from adhering around the artificial tooth root and disturbing tissue growth and adhesion to the tooth root.

Abstract: In a manufacturing method for an electrode-membrane-frame assembly in a fuel cell, a first frame member and an electrolyte membrane member are arranged in a first mold for injection molding such that the edge of the electrolyte membrane member is arranged on the first frame member, a second mold is arranged to form a resin flow passage for forming a second frame member which is in contact with the first frame member by interposing the electrolyte membrane member, and a part of the edge of the electrolyte membrane member is pressed and fixed to the first frame member by a presser member mounted on the second mold and a molding resin material is injected into the resin flow passage to form a second frame member.