Abstract: An image processing device includes an angle detection unit configured to detect an angle between a front portion of a movable apparatus and a rear portion of the movable apparatus, a combining unit configured to combine an image captured by a front portion imaging unit provided at the front portion and an image captured by a rear portion imaging unit provided at the rear portion, and a boundary calculation unit configured to calculate a boundary between the images combined in the combining unit on the basis of the angle.

Abstract: In a camera system, a captured image of a rear of a vehicle is acquired, an optical image having a high-resolution region and a low-resolution region is formed on an imaging unit, a first image is generated by cutting out a first region from an image region corresponding to the high-resolution region in an image read from the imaging unit, a second image is generated by cutting out a second region from an image region different from the first region, the first image and the second image are generated such that at least a portion of a lower end of the second region is positioned below a lower end of the first region, and at least a portion of an upper end of the second region is positioned below an upper end of the first region, and at least one of the first image and the second image is output for display.

Abstract: In a mobile object, a camera unit including an optical system that forms an optical image having a high-resolution region and a low-resolution region on a light receiving surface of an image pickup element and is disposed on a side of the mobile object, wherein the camera unit is installed to meet the following conditions: A tan (h/(d1+x))??v/2<?v<A tan (h/(d2+x))+?v/2, ?h_limit=max (A tan ((w1?y)/(d1+x))??h/2, A tan ((w2?y)/(d2+x))??h/2), ?h limit <?h <?A tan (y/(d1+x))+?h/2, where ?v and ?h denote a vertical and a horizontal field angle of the high-resolution region, ?v and ?h denote a vertical and a horizontal direction angle of the optical axis of the optical system, x, y, and h denotes offsets, and w1 and w2 denote predetermined widths on the ground at the distances d1 and d2.

Abstract: A method of installing a camera unit including an imaging device and an optical system that forms an optical image on a light receiving surface of the imaging device, wherein the light receiving surface includes a first area and a second area on a peripheral side of the first area, wherein an increase in an image height with respect to a unit half angle of view in the first area is larger than an increase in an image height with respect to a unit half angle of view in the second area, wherein the optical system and the imaging device are disposed such that the gravity center of the first area deviates in a first direction from the center of the light receiving surface, and wherein the method includes installing the camera unit such that the first direction is directed to an area other than a predetermined targeted area.

Abstract: An information processing device includes one or more memories and one or more processors. The one or more processors and the one or more memories are configured to receive control information and data that contains three-dimensional position information generated by a three-dimensional range sensor and convert, based on the received control information, the three-dimensional position information contained in the data received from the three-dimensional range sensor into two-dimensional image data containing information on a distance from a predetermined viewpoint.

Abstract: A liquid crystal driving apparatus includes a driver configured to form a gradation in the pixel based on each gradation value in the plurality of sub-frame image data by sequentially controlling an application of a first voltage and an application of a second voltage lower than the first voltage for the plurality of pixels in each of a plurality of sub-field periods contained in one frame period. Where an input gradation value is defined as the gradation value of the input frame image data, the image data generator generates a first sub-frame image data having a first gradation value higher than the input gradation value and a second sub-frame image data having a second gradation value lower than the input gradation value as at least the plurality of sub-frame image data.

Abstract: A liquid crystal display apparatus receives illumination light from a light source to a liquid crystal element, displays an image, and includes a gradation converter configured to generate a plurality of subframes by performing different gradation conversion processes for a plurality of input frames that are continuously input, a driver configured to drive the liquid crystal element by controlling an application period of a first voltage and an application period of a second voltage lower than the first voltage for each pixel in the liquid crystal element in accordance with gradation data for each subframe, and a controller configured to provide a light intensity control for each subframe so as to change an intensity of the illumination light or an intensity of display light from the liquid crystal element in accordance with the gradation conversion processing for generating the subframe.

Abstract: A liquid crystal driving apparatus includes a driver configured to form a gradation in the pixel based on each gradation value in the plurality of sub-frame image data by sequentially controlling an application of a first voltage and an application of a second voltage lower than the first voltage for the plurality of pixels in each of a plurality of sub-field periods contained in one frame period. Where an input gradation value is defined as the gradation value of the input frame image data, the image data generator generates a first sub-frame image data having a first gradation value higher than the input gradation value and a second sub-frame image data having a second gradation value lower than the input gradation value as at least the plurality of sub-frame image data.