Abstract: Provided are a resin composition including a compound represented by Formula (1) and a resin, a film and a filter including the resin composition, a liquid crystal display device and a solid-state imaging element including the filter, and a compound suitable as a light absorbing component of the resin composition and the filter. In Formula (1), Dye represents a colorant structural part obtained by removing n1 hydrogen atoms from a squarylium compound having a specific structure. Q1 is a structural part in which energy levels of a highest occupied molecular orbital and a lowest unoccupied molecular orbital satisfy a specific condition. L1 represents a divalent linking group and n1 represents an integer of 1 to 4.

Abstract: An endoscope system includes a first light source that emits visible light, a second light source that emits non-visible light, an image sensor that generates a first image including a subject through first photoelectric conversion using the visible light and generates a second image including a subject that emits fluorescence emission light due to excitation by the non-visible light through second photoelectric conversion using the non-visible light, and an output device that alternately switches between and outputs the first image and the second image. The second light source starts light emission by a predetermined time before start of the second photoelectric conversion due to driving of the driving circuit.

Abstract: In a solid-state image capturing device, one or more vertical signal lines are disposed along one of columns of a pixel portion, and each of the vertical signal lines is divided into two parts between an upper region and a lower region of the pixel portion. Pixel signals output from a plurality of pixels of the one of the columns are read out to a plurality of column readout circuits through two or more parts of the vertical signal lines including the two parts of the one or more vertical signal lines disposed along the one of the columns. A division position of one vertical signal line among the vertical signal lines disposed in the pixel portion is different from a division position of another vertical signal line among the vertical signal lines in a row direction.

Abstract: A solid-state imaging device includes: an imager that includes a plurality of pixels; a row selection circuit that controls a charge accumulation period and that selects pixels from the plurality of pixels on a row-by-row basis; and a read circuit that reads signals held in the pixels selected by the row selection circuit, wherein each of the plurality of pixels included in the imager is classified into one of a plurality of types of pixels that receive light with different characteristics, and for pixels disposed in the same row of the imager, the row selection circuit controls the charge accumulation period so that the charge accumulation period for a first type out of the plurality of types of pixels (G pixel, R pixel, B pixel) is a first charge accumulation period, and the charge accumulation period for a second type of pixels (IR pixel) is a second charge accumulation period.

Abstract: An endoscope system includes a first light source that emits visible light, a second light source that emits non-visible light, an image sensor that generates a first image including a subject through first photoelectric conversion using the visible light and generates a second image including a subject that emits fluorescence emission light due to excitation by the non-visible light through second photoelectric conversion using the non-visible light, and an output device that alternately switches between and outputs the first image and the second image. The second light source starts light emission by a predetermined time before start of the second photoelectric conversion due to driving of the driving circuit.

Abstract: In a solid-state image capturing device, one or more vertical signal lines are disposed along one of columns of a pixel portion, and each of the vertical signal lines is divided into two parts between an upper region and a lower region of the pixel portion. Pixel signals output from a plurality of pixels of the one of the columns are read out to a plurality of column readout circuits through two or more parts of the vertical signal lines including the two parts of the one or more vertical signal lines disposed along the one of the columns A division position of one vertical signal line among the vertical signal lines disposed in the pixel portion is different from a division position of another vertical signal line among the vertical signal lines in a row direction.

Abstract: Upon producing a transparent polycrystalline material, a suspension liquid (or slurry 1) is prepared, the suspension liquid being made by dispersing a raw-material powder in a solution, the raw-material powder including optically anisotropic single-crystalline particles to which a rare-earth element is added. A formed body is obtained from the suspension liquid by means of carrying out slip casting in a space with a magnetic field applied. On this occasion, while doing a temperature control so that the single-crystalline particles demonstrate predetermined magnetic anisotropy, one of static magnetic fields and rotary magnetic fields is selected in compliance with a direction of an axis of easy magnetization in the single-crystalline particles, and is then applied to them. A transparent polycrystalline material is obtained by sintering the formed body, the transparent polycrystalline material having a polycrystalline structure whose crystal orientation is controlled.

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: Upon producing a transparent polycrystalline material, a suspension liquid (or slurry 1) is prepared, the suspension liquid being made by dispersing a raw-material powder in a solution, the raw-material powder including optically anisotropic single-crystalline particles to which a rare-earth element is added. A formed body is obtained from the suspension liquid by means of carrying out slip casting in a space with a magnetic field applied. On this occasion, while doing a temperature control so that the single-crystalline particles demonstrate predetermined magnetic anisotropy, one of static magnetic fields and rotary magnetic fields is selected in compliance with a direction of an axis of easy magnetization in the single-crystalline particles, and is then applied to them. A transparent polycrystalline material is obtained by sintering the formed body, the transparent polycrystalline material having a polycrystalline structure whose crystal orientation is controlled.

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: Upon producing a transparent polycrystalline material, a suspension liquid (or slurry 1) is prepared, the suspension liquid being made by dispersing a raw-material powder in a solution, the raw-material powder including optically anisotropic single-crystalline particles to which a rare-earth element is added. A formed body is obtained from the suspension liquid by means of carrying out slip casting in a space with a magnetic field applied. On this occasion, while doing a temperature control so that the single-crystalline particles demonstrate predetermined magnetic anisotropy, one of static magnetic fields and rotary magnetic fields is selected in compliance with a direction of an axis of easy magnetization in the single-crystalline particles, and is then applied to them. A transparent polycrystalline material is obtained by sintering the formed body, the transparent polycrystalline material having a polycrystalline structure whose crystal orientation is controlled.

Abstract: The present invention provides a solid-state imaging device which is capable of high-speed and high-quality pixel mixture. The solid-state imaging device includes: a plurality of pixels; a row selecting circuit; a plurality of column signal lines each of which is provided to a corresponding one of columns of pixels, is connected to pixels of the corresponding column, and transfers the signals outputted from the connected pixels; a pixel current source which (i) is provided to a corresponding one of the column signal lines, (ii) is connected to the corresponding column signal line, and (iii) supplies to the connected column signal line a current when the signal is outputted from the selected pixel to the connected column signal line; and a control unit which changes the number of rows of pixels being simultaneously selected by the row selecting circuit, and values of the current supplied by the pixel current source.

Abstract: A solid-state image capturing device according to the present invention includes: pixel units arranged in rows and columns for outputting pixel signals corresponding to the amount of received light; and a first and a second vertical signal lines which are provided in each column of the pixel units and transmit the pixel signals. The pixel units in each of the columns are connected to the first and second vertical signal lines such that plural pixel signals of the same color are distributed among the plural vertical signal lines. The pixel signals of the same color in each of the columns may be evenly distributed among the vertical signal lines.

Abstract: A solid-state imaging device includes first-group pixels 41, second-group pixels 42 skipped during thinning drive, and a scanning section 13. The scanning section 13 drives each of the first-group pixels 41 to perform read operation of outputting the output signal and initializing the amount of the signal charge accumulated in the photoelectric conversion element to a first level, and also drives each of the second-group pixels 42 to perform discharge operation of initializing the amount of the signal charge accumulated in the photoelectric conversion element to a second level that is higher than the first level and lower than a saturation signal level of the photoelectric conversion element 12.

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 solid-state imaging device counts down clock pulses until a comparator indicates a predetermined comparison result using a counter while comparing, in the comparator, a reset component outputted from one of pixel circuits which is yet to receive light with a reference signal, and holds in a latch a value indicated by the counter as a result of the count down. The solid-state imaging device counts up, after presetting the value held in the latch to the counter, the clock pulses until the comparator indicates a predetermined comparison result using the counter while comparing, in the comparator, a signal component outputted from one of the pixel circuits which has received light with the reference signal, and outputs a value indicated by the counter as a result of the count up as a digital signal that indicates an amount of light received by the one of the pixel circuits.

Abstract: A solid-state imaging device includes first-group pixels 41, second-group pixels 42 skipped during thinning drive, and a scanning section 13. The scanning section 13 drives each of the first-group pixels 41 to perform read operation of outputting the output signal and initializing the amount of the signal charge accumulated in the photoelectric conversion element to a first level, and also drives each of the second-group pixels 42 to perform discharge operation of initializing the amount of the signal charge accumulated in the photoelectric conversion element to a second level that is higher than the first level and lower than a saturation signal level of the photoelectric conversion element 12.

Abstract: In a pixel part, in a first active region, a photodiode and a transferring transistor are formed. In a second active region, a resetting transistor is formed. In a pixel part, in a first active region, a photodiode and a transferring transistor are formed. In a second active region, an amplifying transistor is formed. The first and second active regions are respectively the same in shape in image pixel parts. The resetting transistor and the amplifying transistor are shared by the pixel parts.

Abstract: A solid-state imaging device includes first-group pixels 41, second-group pixels 42 skipped during thinning drive, and a scanning section 13. The scanning section 13 drives each of the first-group pixels 41 to perform read operation of outputting the output signal and initializing the amount of the signal charge accumulated in the photoelectric conversion element to a first level, and also drives each of the second-group pixels 42 to perform discharge operation of initializing the amount of the signal charge accumulated in the photoelectric conversion element to a second level that is higher than the first level and lower than a saturation signal level of the photoelectric conversion element 12.