Abstract: A functional film 1 according to an embodiment includes: a substrate (10) containing an acetyl cellulose resin; a primer layer (20) containing a filler (40) and disposed on the substrate (10); and a functional layer (30) containing the filler (40) and disposed on the primer layer (20). The substrate (10) has a permeation layer (12) formed by permeation of the resin contained in the primer layer (20) into part of the substrate (10). The permeation layer (12) has a thickness of 0.1 ?m or more and 3.5 ?m or less. The primer layer (20) has a thickness of 0.1 ?m or more and 1.0 ?m or less. The filler (40) is silica particles having an average particle size of 20 nm or more and 80 nm or less. The filler (40) in the primer layer (20) has a density of ? or more and ¾ or less of the density of the filler (40) in the functional layer (30). The primer layer (20) and the functional layer (30) each contain a resin. The resin component of the primer layer (20) is the same as the resin component of the functional layer 30.

Abstract: A structure detection device according to an embodiment includes: a reading processing unit that reads, as three-dimensional point group data on an object present in a three-dimensional space, data including three-dimensional position information and color information at a point on a surface of the object; a filtering processing unit that performs filtering processing for extracting three-dimensional point group data on a detection-target structure from the three-dimensional point group data on the object present in the three-dimensional space based on the color information; and a generation processing unit that generates three-dimensional model data in which the detection-target structure is represented as a three-dimensional model based on the three-dimensional point group data on the detection-target structure, the three-dimensional point group data being extracted by the filtering processing unit.

Abstract: An imaging apparatus has: an imaging optical system; an imaging element configured to receive light transmitted through the imaging optical system to generate an electric signal; a main body; a display device provided on a back face of the main body and capable of displaying an image generated on the basis of the electric signal generated by the imaging element; and an electronic viewfinder provided inside the main body and capable of displaying the image generated on the basis of the electric signal generated by the imaging element, wherein an eyepiece part of the electronic viewfinder is provided to a transmissive region of the display device.

Abstract: A sensor insertion device comprises a main body, needle slider, disposal slider, spring, puncture knob, and opening mechanism (window member and handle). The needle slider grips a needle and a sensor on a first end side, and is slidable inside the main body. The disposal slider is slidable inside the main body. The puncture knob has an insertion hole into which the rear end portion of the needle slider can be inserted. The opening mechanism puts the insertion hole into a closed state when the needle slider is being slid in the sensor insertion direction, and, puts the insertion hole in an open state in which the second end side of the needle slider has been inserted into the insertion hole by opening up the contact portion between the puncture knob and the second end side of the needle slider when the puncture operation is complete.

Abstract: A sensor insertion device comprises a lower case and an upper case. A base holder and a needle holder are disposed in the lower case. A needle holder raising mechanism is disposed above the needle holder. A sensor base having a sensor unit is held by the base holder. When the upper case is pushed down, the base holder and the needle holder move toward an opening on the lower surface side of the lower case, and the needle holder is raised by the needle holder raising mechanism. A protrusion that holds the upper case on the lower case is provided to the upper case in a state in which the upper case has been pushed down until the opening on the lower surface side comes into contact with the skin.

Abstract: A wearable sensor device comprises a sensor at least part of which is inserted into a human body and which has a first connection terminal; a mount unit on which at least part of the first connection terminal is disposed and which is mounted on a skin of the human body; and an electronic unit that is mounted to the mount unit and has a second connection terminal connected to the first connection terminal via a mounting mechanism, and a control unit for acquiring signals from the sensor. The mounting mechanism forms a first state where the mount unit and the electronic unit are mounted such that the first connection terminal and the second connection terminal have yet to be connected, and a second state where the mount unit and the electronic unit are mounted such that the first connection terminal and the second connection terminal have been connected.

Abstract: The biological information measurement device comprises: an adhesive tape having on its bottom side an adhesive surface to be affixed to the skin of a user; a mounting substrate disposed on the top side of the adhesive tape; a guide needle insertion cylinder provided on the top side of the adhesive tape, on which the mounting substrate is held; a sensor electrically connected to the mounting substrate for measuring biological information; and a cover covering the top side of the mounting substrate. The bottom side of the mounting substrate is in a state of not being affixed to the top side of the adhesive tape, and the adhesive tape and the cover are more stretchable than the mounting substrate.

Abstract: A sensor insertion device comprises a lower case, an upper case, a sensor base, a needle holder, a needle holder pressing part that lowers the needle holder, and a needle holder raising mechanism that raises the needle holder. The needle holder raising mechanism has a pinion gear that raises the needle holder, a first rack gear that is engaged with the pinion gear, and a second rack gear that is disposed above the pinion gear. When the second rack gear reaches the pinion gear as the upper case is lowered, the pinion gear raises the needle holder by engagement with the second rack gear.

Abstract: With this analysis device, air that has been heated by a heater is blown by a fan in the direction of an analysis receptacle rotary driver and an analysis receptacle that is rotationally driven by the analysis receptacle rotary driver. The analysis receptacle rotary driver rotates the analysis receptacle within the analysis chamber in the same direction as the direction of air flow produced by the fan.

Abstract: A sensor insertion device comprises a main body, needle slider, disposal slider, spring, puncture knob, and opening mechanism (window member and handle). The needle slider grips a needle and a sensor on a first end side, and is slidable inside the main body. The disposal slider is slidable inside the main body. The puncture knob has an insertion hole into which the rear end portion of the needle slider can be inserted. The opening mechanism puts the insertion hole into a closed state when the needle slider is being slid in the sensor insertion direction, and, puts the insertion hole in an open state in which the second end side of the needle slider has been inserted into the insertion hole by opening up the contact portion between the puncture knob and the second end side of the needle slider when the puncture operation is complete.

Abstract: An uninterruptible power supply apparatus includes a power supply unit converting AC power to generate a DC voltage to be supplied to a loading device. The uninterruptible power supply apparatus further includes a first battery unit connected to the power supply unit to receive a DC current therefrom, and stores first DC power generated from the DC voltage. The first battery unit generates a DC voltage to be supplied to the loading device from the first DC power. The uninterruptible power supply apparatus includes a second battery unit connected in parallel to the power supply unit and stores second DC power, and generates, from the second DC power stored in the second battery unit, a DC voltage to be supplied to the loading device. The uninterruptible power supply apparatus further includes a controller for controlling operation of the power supply unit, the first battery unit and the second battery unit.

Abstract: With this analysis device, air that has been heated by a heater is blown by a fan in the direction of an analysis receptacle rotary driver and an analysis receptacle that is rotationally driven by the analysis receptacle rotary driver. The analysis receptacle rotary driver rotates the analysis receptacle within the analysis chamber in the same direction as the direction of air flow produced by the fan.

Abstract: An uninterruptible power supply apparatus includes a power supply unit converting AC power to generate a DC voltage to be supplied to a loading device. The uninterruptible power supply apparatus further includes a first battery unit connected to the power supply unit to receive a DC current therefrom, and stores first DC power generated from the DC voltage. The first battery unit generates a DC voltage to be supplied to the loading device from the first DC power. The uninterruptible power supply apparatus includes a second battery unit connected in parallel to the power supply unit and stores second DC power, and generates, from the second DC power stored in the second battery unit, a DC voltage to be supplied to the loading device. The uninterruptible power supply apparatus further includes a controller for controlling operation of the power supply unit, the first battery unit and the second battery unit.

Abstract: In a delay failure test circuit, a delay failure test between two clock domains among a plurality of clock domains having different operation clock rates is performed. The delay failure test circuit inputs, to a first clock domain, a clock signal having only a launch edge for transferring data from the first clock domain to a second clock domain, and to input, to the second clock domain, a clock signal having only a capture edge for capturing the data.

Abstract: There is provided a biological sample analysis plate on which, when a biological sample is transferred by rotating the plate, the biological sample can be easily transferred from an outer circumference side to an inner circumference side with respect to a center of rotation. A chamber part (16) which is provided on the inner circumference side with respect to the center of rotation and a sample holding part (20) which is provided on the outer circumference side are connected by channels (17) and (18), and the sample holding part (20) previously contains air inside, and the air in the sample holding part (20) is compressed and held in the sample holding part (20) when the biological sample moves from the chamber (16) toward the sample holding part (20) due to a centrifugal force that is caused by rotation of the plate.

Abstract: A design support apparatus includes a unit that inputs a user net list created by using hard macro cells excluding test circuits, and a unit that arranges hard macro cells using a frame into which hard macro cells, where timing-converged physical information includes test terminals, and test circuits are embedded as arrangement/wiring information. Moreover, includes a unit that arranges and wires the test circuits using the arrangement/wiring information of the test circuit embedded into the frame, a unit that recognizes arrangement/wiring information where the arrangement/wiring information of the test circuits is removed from arrangement/wiring information obtained by wiring, and a unit outputs a net list of a logic structure.

Abstract: In a delay failure test circuit, a delay failure test between two clock domains among a plurality of clock domains having different operation clock rates is performed. The delay failure test circuit inputs, to a first clock domain, a clock signal having only a launch edge for transferring data from the first clock domain to a second clock domain, and to input, to the second clock domain, a clock signal having only a capture edge for capturing the data.

Abstract: A built-in self-test (BIST) circuit is configured to divide data output bits of a RAM macro into a plurality of groups each consisting of 2 bits, and provide a 1-bit comparator of a signature analyzer for each group to share one 1-bit comparator by respective two data output bits. A selector of a bit changer sequentially selects a data output bit from each group, and the 1-bit comparator sequentially compares output data for the selected data output bit with expected value data.

Abstract: A design support apparatus includes a unit that inputs a user net list created by using hard macro cells excluding test circuits, and a unit that arranges hard macro cells using a frame into which hard macro cells, where timing-converged physical information includes test terminals, and test circuits are embedded as arrangement/wiring information. Moreover, includes a unit that arranges and wires the test circuits using the arrangement/wiring information of the test circuit embedded into the frame, a unit that recognizes arrangement/wiring information where the arrangement/wiring information of the test circuits is removed from arrangement/wiring information obtained by wiring, and a unit outputs a net list of a logic structure.

Abstract: Timing verification of the LSI test data is performed as follows. In test synthesis, a script text for static timing analysis (STA) is generated together with a test circuit. The STA script text is used to perform static timing analysis. Function verification is performed between a netlist generated through the test synthesis and a timing-verified netlist based on the static timing analysis. The function-verified netlist is released to a production division, and the netlist is used to automatically generate a test pattern by an automatic test pattern generation (ATPG) tool. A netlist comprising test vectors for automatic test equipment is acquired from the generated ATPG pattern.