Abstract: An imaging device includes: a unit pixel cell comprising: a photoelectric converter generating an electric signal and comprising a first and second electrodes and a photoelectric conversion film located therebetween, the first electrode being located on a light receiving side of the photoelectric conversion film, a signal detection circuit detecting the electric signal and comprising a first transistor and a second transistor that are connected to the second electrode, the first transistor amplifying the electric signal, and a capacitor circuit comprising a first capacitor and a second capacitor having a capacitance value larger than that of the first capacitor that are serially connected to each other, the capacitor circuit being provided between the second electrode and a reference voltage; and a feedback circuit comprising the first transistor and an inverting amplifier and negatively feeding back the electric signal to the second transistor via the first transistor and the inverting amplifier.

Abstract: An imaging device comprising a unit pixel cell comprising: a photoelectric converter that generates an electric signal through photoelectric conversion of incident light; and a signal detection circuit that detects the electric signal, the signal detection circuit comprising a first transistor that amplifies the electric signal, a second transistor that selectively transmits output of the first transistor to outside of the unit pixel cell, and a feedback circuit that forms a feedback loop through which the electric signal is negatively fed back, the feedback loop not passing through the first transistor.

Abstract: A power plant for a vehicle of the present invention includes an electric motor attached to a transmission housing attached to an engine. The electric motor is attached to the side of the transmission housing toward the engine and is connected to the engine interposed by an anchor point. When the engine is viewed in a crankshaft direction, a line connecting the anchor point and the center of gravity of the electric motor intersects a line extending along a direction in which the electric motor vibrates due to vibration of the engine in the absence of an anchor point.

Abstract: An electronic device storage case for use in storing a substrate therein, includes a hollow box-shaped case body. The case body includes an open surface with an opening, a bottom surface opposite to the opening and a sidewall extending upright from the peripheral edge of the bottom surface, wherein the sidewall of the case body including a plurality of deformable ribs each having a slant surface inclined inwards toward the bottom surface, and wherein the substrate is introduced into the case body through the opening and slidingly moves along the slant surface of each of the deformable ribs to make pressure contact with the slant surface.

Abstract: A solid-state imaging device includes the following. Pixels arranged in matrix converts received light into signal voltage. A column AD conversion unit, which includes a comparison unit and an up-down counting unit, converts signal voltage to digital signal. The comparison unit compares a value of signal voltage to a gradually changing value of reference signal voltage. The up-down counting unit counts, by one of down-counting and up-counting, a time period until the comparison result is reversed if the signal voltage is of a base signal component of each pixel at reset level, and counts, by an other of down-counting and up-counting, the time period if the signal voltage is of a superimposed signal component in which the base signal component is superimposed on a pixel signal component corresponding to an amount of light received by the pixel. The comparison unit has switchable kinds of frequency band characteristics.

Abstract: An imaging device comprising: a pixel array that includes pixels arranged in rows and columns, each of the pixels outputting a pixel signal; vertical signal lines each of which is provided for each of the columns; a reference-signal generator that generates a reset signal corresponding to a reset voltage of the pixels; a signal processor that outputs a differential signal corresponding to a difference between the pixel signal and the reset signal; a first switch that is connected between one of the vertical signal lines and the signal processor, the first switch switching between input and interruption of the pixel signal from each of the pixels to the signal processor; and a second switch that is connected between the reference-signal generator and the signal processor, the second switch switching between input and interruption of the reset signal from the reference-signal generator to the signal processor.

Abstract: In a malfunction detection mode, a controller is configured to compare an output of a phase-detector obtained when controlling to input an oscillation signal to only the phase-detector, with an output of the phase-detector obtained when controlling to input the oscillation signal to both of a transmitter and the phase-detector. If a change (difference) of signal levels of the outputs is equal to or more than a prescribed threshold, the controller determines that there is no malfunction in the transmitter and a receiver. If the change of the signal levels is less than the prescribed threshold, the controller determines that there is a malfunction in the transmitter or the receiver.

Abstract: The ramp-signal generator circuit includes a reference voltage generator that changes the voltage of a reference signal Vr to a comparator setting voltage VR for compensating for a voltage difference between a reference signal Vr and an analog input signal (Vs1-Vsn) before comparison by an analog-to-digital converter circuit and outputs a ramp signal whose slope starts from the comparator setting voltage VR in response to a start of the comparison. The ramp-signal generator circuit is configured to add a predetermined enhanced voltage VA to the comparator setting voltage VR before the comparison.

Abstract: A power plant for a vehicle of the present invention includes an electric motor attached to a transmission housing attached to an engine. The electric motor is attached to the side of the transmission housing toward the engine and is connected to the engine interposed by an anchor point. When the engine is viewed in a crankshaft direction, a line connecting the anchor point and the center of gravity of the electric motor intersects a line extending along a direction in which the electric motor vibrates due to vibration of the engine in the absence of an anchor point.

Abstract: The ion sensors using TFT or MOSFET are low in the measurement sensitivity so that it is difficult to detect an extremely small amount of sensing-target substance. A TFT ion sensor includes both a gate electrode (a silicon substrate) and a reference electrode, in which the electrostatic capacitance of a gate insulating film (a thermal oxide film) is set to be larger than the electrostatic capacitance of an ion sensitive insulating film. Therefore, it is possible to detect the concentration of ions, hormones, and the like in a sensing-target substance from the shift in the threshold voltage of the gate-source voltage to source-drain current property.

Abstract: A solid-state imaging device including: a plurality of pixels which are on a same semiconductor substrate and each of which generates a pixel signal; a comparison circuit that is connected to the pixels in each of columns; a D/A conversion circuit that generates a comparison potential and provide the generated comparison potential in common to the comparison circuit in each column; and a D/A conversion circuit output unit provided in a common line for providing the comparison potential to the comparison circuit in each column, wherein the D/A conversion circuit output unit includes: a source follower circuit that is provided to the line and includes a first current source having a transistor, and an amplification transistor having a gate oxide film that is thinner than a gate oxide film of the transistor; and a voltage control circuit that controls a drain-to-source voltage of the amplification transistor.

Abstract: It is possible to easily change CAM tables, which are used for executing an electronic CAM operation. A CAM computation program performs an electronic CAM operation, using a CAM table that is an array in which displacements of a slave axis of an electronic CAM are associated with phases of a master axis of the electronic CAM. A CAM table generating program receives input of a CAM definition variable that defines an electronic CAM operation to be realized by a motion control, and generates a CAM table in which a CAM curve is stored as an array corresponding to the inputted CAM definition variable. A microprocessor performs a CAM computation program using the CAM table. If the microprocessor receives the input of the CAM definition variable, the microprocessor performs the CAM table generating program to generate the CAM table, and stores the generated CAM table into the main memory.

Abstract: A solid-state imaging device includes a plurality of pixel cells arranged in rows and columns, a plurality of vertical signal lines each of which is provided for a corresponding one of the columns, and a plurality of column circuits each of which is provided for a corresponding one or more of the columns and into each of which are input the signal voltages output to one or more of the vertical signal lines disposed in the corresponding one or more of the columns. Each of the plurality of column circuits includes an amplifier that includes a constant current source transistor, the solid-state imaging device further includes a reference current source circuit that supplies a first bias voltage to gates of a plurality of the constant current source transistors included in the column circuits, and each of the column circuits further includes a sample-and-hold circuit that holds the first bias voltage.

Abstract: A solid-state imaging device includes: a pixel unit which includes a plurality of pixels arranged in rows and columns and which generates pixel signals according to an amount of incident light; a column analog-to-digital converter (ADC) which is disposed for each of the columns of the pixel unit and which performs digital conversion on each of the pixel signals output from the pixels in the column; a timing control unit which generates a control signal for controlling the digital conversion performed by the column ADC; and a logic swing and delay adjusting circuit which is disposed in a signal path for supplying the control signal from the timing control unit to the column ADC and which at least either reduces an amplitude of the control signal or delays the control signal.

Abstract: In a solid-state imaging device which includes column analog-to-digital conversion circuits (ADCs) for converting pixel signals output from pixels into digital signals, each of the column ADCs includes a comparator which outputs a result of voltage comparison (comparison result signal) between the voltage of the pixel signal and an analog ramp voltage; a column counter which counts a column counter clock signal, which is either a clock signal or a phase-shifted clock signal, and stores a value represented by upper bits of a count value at a time of change in the comparison result signal; and a first latch unit which stores a value represented by lower bits of the count value. A second latch unit stores the value stored in the first latch unit.

Abstract: An arylalkyloxypyrimidine derivative represented by the formula (I) wherein R1 is an alkyl group, a cycloalkyl group, an alkenyl group, an alkynyl group, a haloalkyl group, a haloalkenyl group, a haloalkynyl group, an alkoxyalkyl group, a dioxolane group and the like; R2 and R3 are each a hydrogen atom, an alkyl group and the like; X is an alkyl group, a cycloalkyl group, an alkenyl group, an alkynyl group, a haloalkyl group, a haloalkenyl group, a haloalkynyl group, a trialkylsilyl group and the like; Y is CH or a nitrogen atom; q is an integer of 1 to 3; m is an integer of 0 to 5; and n is 0 or 1 or a salt thereof, and an agrohorticultural insecticide containing the compound as an active ingredient and a method of use thereof.

Abstract: A solid-state imaging device including: a plurality of pixels which are on a same semiconductor substrate and each of which generates a pixel signal; a comparison circuit that is connected to the pixels in each of columns; a D/A conversion circuit that generates a comparison potential and provide the generated comparison potential in common to the comparison circuit in each column; and a D/A conversion circuit output unit provided in a common line for providing the comparison potential to the comparison circuit in each column, wherein the D/A conversion circuit output unit includes: a source follower circuit that is provided to the line and includes a first current source having a transistor, and an amplification transistor having a gate oxide film that is thinner than a gate oxide film of the transistor; and a voltage control circuit that controls a drain-to-source voltage of the amplification transistor.

Abstract: A solid-state imaging device includes the following. Pixels arranged in matrix converts received light into signal voltage. A column AD conversion unit, which includes a comparison unit and an up-down counting unit, converts signal voltage to digital signal. The comparison unit compares a value of signal voltage to a gradually changing value of reference signal voltage. The up-down counting unit counts, by one of down-counting and up-counting, a time period until the comparison result is reversed if the signal voltage is of a base signal component of each pixel at reset level, and counts, by an other of down-counting and up-counting, the time period if the signal voltage is of a superimposed signal component in which the base signal component is superimposed on a pixel signal component corresponding to an amount of light received by the pixel. The comparison unit has switchable kinds of frequency band characteristics.

Abstract: In a malfunction detection mode, a controller is configured to compare an output of a phase-detector obtained when controlling to input an oscillation signal to only the phase-detector, with an output of the phase-detector obtained when controlling to input the oscillation signal to both of a transmitter and the phase-detector. If a change (difference) of signal levels of the outputs is equal to or more than a prescribed threshold, the controller determines that there is no malfunction in the transmitter and a receiver. If the change of the signal levels is less than the prescribed threshold, the controller determines that there is a malfunction in the transmitter or the receiver.

Abstract: An ultrasonic sensor includes an ultrasonic element. The ultrasonic element includes an ultrasonic oscillator for sending, receiving or transceiving ultrasonic waves, an element body having an opening for passage of ultrasonic waves formed on one surface, the ultrasonic oscillator being arranged within the element body, and terminal portions protruding from the element body to feed an electric current to the ultrasonic oscillator. The ultrasonic sensor further includes a housing having an opening formed on one surface for communication with the opening of the element body. The housing includes a receiving portion for receiving the ultrasonic element and a positioning portion integrally formed with the receiving portion to position the ultrasonic element in place. The ultrasonic sensor includes a printed wiring board arranged to interpose the ultrasonic element between the printed wiring board and the receiving portion. The terminal portions of the ultrasonic element are mounted to the printed wiring board.