Abstract: Provided is a crystallized glass having a desired semitransparency and capable of being easily made transparent as necessary. A crystallized glass has an average haze of more than 0 to 30% at wavelengths of 380 to 780 nm in terms of a thickness of 4 mm and has a main crystal with an average particle diameter of 1 to 100 nm.

Abstract: A connector combined body includes a cable side connector and a board side connector electrically connected and mated with the cable side connector. The cable side connector includes a main body part, a movable part connected to the main body part, and a first compound contact disposed in the main body part. The movable part is movable in one direction into the main body part and has a retaining portion in which a cable is inserted and retained. The cable includes a plurality of conductors, a plurality of insulators each separately surrounding one of the conductors, and a sheath surrounding the insulators. A first end side of the first compound contact is an insulation displacement contact. A movement of the movable part in the one direction pushes the insulation displacement contact into contact with the conductors of the cable.

Abstract: An audio output device and associated output method produce sound effects that are more natural to a listener are given to a piece of music. A mode is selected from a plurality of modes, and first sound source data and second sound source data are respectively outputted as the sound effects with music data at an output level that is determined based on the mode selected by a mode selection unit.

Abstract: An electrical connector includes a housing adapted to mate with a mating connector, and an indicator at least part of which is housed in the housing. The indicator includes a visual feature region movable as the housing mates with the mating connector from a non-display position to a display position in a mating direction. As the housing completely mates with the mating connector, the indicator moves from the non-display position to the display position where the visual feature region is viewable from outside the housing.

Abstract: An imaging device is provided with a pixel array section including multiple pixels arranged in a matrix of rows and columns, and a column signal processor. The multiple pixels include multiple imaging pixels that each output a pixel signal corresponding to incident light and multiple reference pixels which are aligned in the column direction in at least two columns and which each output a reset signal corresponding to the output signal at reset of each of the multiple first pixels. The column signal processor outputs the difference between the pixel signal outputted by one imaging pixel from among the multiple imaging pixels and a reference signal based on the reset signals outputted by at least two reference pixels, from among the multiple reference pixels, located in the same row as the one imaging pixel.

Abstract: On a lower side of a floor (2), a battery storage section (31) is formed on a front side of a cross member (27) that connects left and right side members (3l, 3r) to dispose a driving battery (34), a tank storage section (30) is formed on a rear side to dispose a fuel tank (32) and a driving motor (9) is disposed on a rear side of the tank storage section (30). A power cable (26) from a terminal block (34a) of the driving battery (34) is routed and fixed as appropriate so as to bypass the fuel tank (32) via the left side of the fuel tank (32) in the tank storage section (30) and connected to the driving motor (9) via a junction box (21). In an extra length routing area (37) on a side wall (27a) of the cross member (27), an extra length area (26a) is formed by slackening the power cable (26) in a semicircular shape.

Abstract: An imaging device 100 includes a pixel array PA. A first period, a third period, and a second period appear in this order in a first frame. During the first period, pixel signal readout is performed on a first row in the pixel array PA. During the second period, pixel signal readout is performed on a second row in the pixel array PA. Each of the first period and the second period is a high-sensitivity exposure period. The third period is a low-sensitivity exposure period.

Abstract: An imaging device is provided with a pixel array section including multiple pixels arranged in a matrix of rows and columns, and a column signal processor. The multiple pixels include multiple imaging pixels that each output a pixel signal corresponding to incident light and multiple reference pixels which are aligned in the column direction in at least two columns and which each output a reset signal corresponding to the output signal at reset of each of the multiple first pixels. The column signal processor outputs the difference between the pixel signal outputted by one imaging pixel from among the multiple imaging pixels and a reference signal based on the reset signals outputted by at least two reference pixels, from among the multiple reference pixels, located in the same row as the one imaging pixel.

Abstract: An imaging device 100 includes a pixel array PA. A first period, a third period, and a second period appear in this order in a first frame. During the first period, pixel signal readout is performed on a first row in the pixel array PA. During the second period, pixel signal readout is performed on a second row in the pixel array PA. Each of the first period and the second period is a high-sensitivity exposure period. The third period is a low-sensitivity exposure period.

Abstract: An imaging device 100 includes a pixel array PA. A first period, a third period, and a second period appear in this order in a first frame. During the first period, pixel signal readout is performed on a first row in the pixel array PA. During the second period, pixel signal readout is performed on a second row in the pixel array PA. Each of the first period and the second period is a high-sensitivity exposure period. The third period is a low-sensitivity exposure period.

Abstract: To provide a Li2O—Al2O3—SiO2-based crystallized glass in which yellow coloration caused by TiO2, Fe2O3, and the like is suppressed and yet transparency is ensured. The Li2O—Al2O3—SiO2-based crystallized glass is characterized by containing, in mass %, less than 0.5% of TiO2 and having a ?-OH value from 0.001 to 2/mm.

Abstract: A connector assembly comprising a male connector, and a female connector mateable to the male connector. Each of the male and female connectors include a shielding shell having two identical shielding half shells each comprising a bottom wall and a pair of side walls, a protrusion formed on one of the pair of side walls, and a latch formed on the other of the pair of side walls. The latch of one of the two shielding half shells engages with the protrusion of the other of the two shielding half shells for locking the two shielding half shells together. A terminal module is installed in each of the shielding shells. The terminal module and shielding shell of the male connector is adapted to be received within and electrically connected to the female connector.

Abstract: A distance measurement device includes a light source that projects pulse light toward an object, a detector that receives reflected light of the projected pulse light from the object, the detector including a first pixel having sensitivity that is variable, and a control unit. The light source projects first pulse light in a first period. The control unit sets the sensitivity of the first pixel to sensitivity ?1 in a second period and sets the sensitivity of the first pixel to sensitivity ?2 different from the sensitivity ?1 in a third period following the second period. A length of the second period is equal to a length of the first period. A start time of the second period is after a start time of the first period. The second period and the third period are included in a first light-reception period.

Abstract: An imaging device includes an imaging unit including a plurality of pixels, respectively including photoelectric converters and charge accumulation nodes that accumulate signal charge. The imaging unit outputs image data based on signals corresponding to the signal charge accumulated in the charge accumulators. The imaging device includes an image processing unit that processes the image data output by the imaging unit. The imaging unit sequentially outputs a plurality of pieces of image data in one frame period by performing readout nondestructively. The image processing unit generates difference image data by determining a difference between two pieces of image data, selects output image data from initial image data and the difference image data, and combines the output image data and normal readout image data included in the plurality of pieces of image data, to generate combination-result image data.

Abstract: An imaging device includes an imaging unit including a plurality of pixels, respectively including photoelectric converters and charge accumulation nodes that accumulate signal charge. The imaging unit outputs image data based on signals corresponding to the signal charge accumulated in the charge accumulators. The imaging device includes an image processing unit that processes the image data output by the imaging unit. The imaging unit sequentially outputs a plurality of pieces of image data in one frame period by performing readout nondestructively. The image processing unit generates difference image data by determining a difference between two pieces of image data, selects output image data from initial image data and the difference image data, and combines the output image data and normal readout image data included in the plurality of pieces of image data, to generate combination-result image data.

Abstract: An imaging device including: a first pixel and a second pixel that are arranged along a first direction, the first pixel and the second pixel each including a photoelectric converter that converts light into a charge, a charge accumulator that accumulates the charge, and a first transistor one of a source and a drain of which is connected to the charge accumulator; a first line and a second line that each extend along the first direction; first voltage supply circuitry that is connected to the first transistor of the first pixel through the first line; and second voltage supply circuitry that is connected to the first transistor of the second pixel through the second line.

Abstract: An imaging device includes: a photoelectric converter whose sensitivity changes depending on a value of a voltage to be applied; and a voltage supply circuit that alternately supplies a first voltage and a second voltage, which is different from the first voltage, to the photoelectric converter, in which in a first frame period, a length of a first period from a first point in time at which the first voltage is switched to the second voltage until a second point in time at which the first voltage is switched to the second voltage subsequently to the first point in time differs from a length of a second period from the second point in time until a third point in time at which the first voltage is switched to the second voltage subsequently to the second point in time.

Abstract: An imaging device 100 includes a pixel array PA. A first period, a third period, and a second period appear in this order in one frame. During the first period, pixel signal readout is performed on at least one first row in the pixel array PA. During the second period, pixel signal readout is performed on at least one second row in the pixel array PA. At least one of the at least one first row or the at least one second row includes two rows in the pixel array PA. During the third period, no pixel signal readout is performed on the rows in the pixel array PA. Each of the first period and the second period is one of the high-sensitivity exposure period and the low-sensitivity exposure period. The third period is the other of the high-sensitivity exposure period and the low-sensitivity exposure period.

Abstract: On a lower side of a floor (2), a battery storage section (31) is formed on a front side of a cross member (27) that connects left and right side members (3l, 3r) to dispose a driving battery (34), a tank storage section (30) is formed on a rear side to dispose a fuel tank (32) and a driving motor (9) is disposed on a rear side of the tank storage section (30). A power cable (26) from a terminal block (34a) of the driving battery (34) is routed and fixed as appropriate so as to bypass the fuel tank (32) via the left side of the fuel tank (32) in the tank storage section (30) and connected to the driving motor (9) via a junction box (21). In an extra length routing area (37) on a side wall (27a) of the cross member (27), an extra length area (26a) is formed by slackening the power cable (26) in a semicircular shape.

Abstract: An imaging device includes an imaging unit including a plurality of pixels, respectively including photoelectric converters and charge accumulation nodes that accumulate signal charge. The imaging unit outputs image data based on signals corresponding to the signal charge accumulated in the charge accumulators. The imaging device includes an image processing unit that processes the image data output by the imaging unit. The imaging unit sequentially outputs a plurality of pieces of image data in one frame period by performing readout nondestructively. The image processing unit generates difference image data by determining a difference between two pieces of image data, selects output image data from initial image data and the difference image data, and combines the output image data and normal readout image data included in the plurality of pieces of image data, to generate combination-result image data.