Abstract: An imaging apparatus of the present disclosure includes: a pixel array including a plurality of light-receiving pixels including a first light-receiving pixel, a second light-receiving pixel, and a third light-receiving pixel, each generating a pixel signal in response to a received light amount, in which the first light-receiving pixel, the second light-receiving pixel, and the third light-receiving pixel are arranged in this order in a first direction; and a readout section including a first AD converter that performs AD conversion on the basis of each of the pixel signal generated by the first light-receiving pixel and the pixel signal generated by the third light-receiving pixel, and a second AD converter that performs AD conversion on the basis of the pixel signal generated by the second light-receiving pixel.

Abstract: An information processing device estimates an attitude of a hand of a user holding a controller with the hand. The information processing device has an acquisition unit, a determination unit, and an estimation unit. The acquisition unit acquires inertial information from an inertial sensor provided in the controller. The determination unit determines whether a specific portion of the hand of the user is detected in a captured image acquired by imaging of an imaging unit. The estimation unit estimates the attitude of the hand of the user on a basis of the captured image and the inertial information in a case where the specific portion is detected in the captured image.

Abstract: Provided is a solid-state imaging device that readily accommodates a design change of a pixel chip or a circuit chip. The solid-state imaging device according to the present technology includes a pixel chip including a pixel having a photoelectric conversion element, at least one circuit chip including a circuit configured to process a signal generated in the pixel, and a connecting substrate electrically connecting the pixel chip and the circuit chip, in which the pixel chip, the connecting substrate, and the circuit chip are stacked in this order. It is possible to provide a solid-state imaging device that readily accommodates a design change of a pixel chip or a circuit chip on the basis of the solid-state imaging device according to the present technology.

Abstract: An apparatus includes at least one memory configured to store instructions, at least one processor in communication with the at least one memory and configured to execute the instructions to receive a photographing instruction, and an optical system configured to perform a first photographing method before reception of the photographing instruction, and a second photographing method after reception of the photographing instruction. The at least one processor further executes instructions to combine a plurality of first images at different in-focus positions captured by using the first photographing method with a plurality of second images at different in-focus positions captured by using the second photographing method. The optical system performs readout an image sensor, while keeping the drive of a focus lens, in the first photographing method, and stops the focus lens at different positions in the second photographing method.

Abstract: An information processing apparatus that displays a captured image captured by an imaging apparatus on a display unit, the information processing apparatus includes a display controller configured to perform display control to display an image of a region of interest included in the captured image, on the display unit, wherein, the display controller displays, in a case where the region of interest is in an angle of view of a frame of the captured image, the image of the region of interest included in the frame, and displays, in a case where the region of interest is off from the angle of view of the frame of the captured image, the image of the region of interest included in a preceding frame preceding the frame.

Abstract: An apparatus includes at least one memory configured to store instructions, at least one processor in communication with the at least one memory and configured to execute the instructions to receive a photographing instruction, and an optical system configured to perform a first photographing method before reception of the photographing instruction, and a second photographing method after reception of the photographing instruction. The at least one processor further executes instructions to combine a plurality of first images at different in-focus positions captured by using the first photographing method with a plurality of second images at different in-focus positions captured by using the second photographing method. The optical system performs readout an image sensor, while keeping the drive of a focus lens, in the first photographing method, and stops the focus lens at different positions in the second photographing method.

Abstract: A motorcycle (300) includes a clutch lever (14), a clutch switch (15) configured to detect whether or not the clutch lever (14) is gripped, a vehicle speed sensor (16) configured to detect a vehicle speed, a hydraulic rear brake (18), a pressurizing unit (17) configured to perform a pressurizing process that applies an oil pressure to the rear brake (18), and a microcontroller (19) configured to control the pressurizing process by the pressurizing unit (17) based on results of the detection by the vehicle speed sensor (16) and the clutch switch (15).

Abstract: A motorcycle (300) includes a clutch lever (14), a clutch switch (15) configured to detect whether or not the clutch lever (14) is gripped, a vehicle speed sensor (16) configured to detect a vehicle speed, a hydraulic rear brake (18), a pressurizing unit (17) configured to perform a pressurizing process that applies an oil pressure to the rear brake (18), and a microcontroller (19) configured to control the pressurizing process by the pressurizing unit (17) based on results of the detection by the vehicle speed sensor (16) and the clutch switch (15).

Abstract: An input buffer chooses, in accordance with first control clocks, to output an input data signal or output a high-impedance signal. A master flip-flop chooses, in accordance with second control clocks, to output a data signal received from the input buffer or retain a currently output data signal. A master-slave switch chooses, in accordance with the second control clocks, to output a high-impedance signal or output a data signal received from the master flip-flop. A slave flip-flop chooses, in accordance with the second control clocks, to retain a currently output data signal or output a data signal received from the master-slave switch. A clock buffer inputs the second control clocks, and generates and outputs the first control clocks.

Abstract: An input buffer chooses, in accordance with first control clocks, to output an input data signal or output a high-impedance signal. A master flip-flop chooses, in accordance with second control clocks, to output a data signal received from the input buffer or retain a currently output data signal. A master-slave switch chooses, in accordance with the second control clocks, to output a high-impedance signal or output a data signal received from the master flip-flop. A slave flip-flop chooses, in accordance with the second control clocks, to retain a currently output data signal or output a data signal received from the master-slave switch. A clock buffer inputs the second control clocks, and generates and outputs the first control clocks.

Abstract: An image processing apparatus comprises a captured image data acquisition unit configured to acquire captured image data, an information acquisition unit configured to acquire information of object distances of objects, a refocus image generation unit configured to generate a refocus image at a predetermined focus position in the captured image data, a display unit configured to display the refocus image on a display medium, a designation unit configured to designate an address in the refocus image displayed by the display unit, and a distance calculation unit configured to calculate distances between the designated address and positions of the objects in the refocus image, wherein the refocus image generation unit generates a refocus image using, as a focus position, an object distance of one of the objects based on the distances.

Abstract: An input buffer chooses, in accordance with first control clocks, to output an input data signal or output a high-impedance signal. A master flip-flop chooses, in accordance with second control clocks, to output a data signal received from the input buffer or retain a currently output data signal. A master-slave switch chooses, in accordance with the second control clocks, to output a high-impedance signal or output a data signal received from the master flip-flop. A slave flip-flop chooses, in accordance with the second control clocks, to retain a currently output data signal or output a data signal received from the master-slave switch. A clock buffer inputs the second control clocks, and generates and outputs the first control clocks.

Abstract: An input buffer chooses, in accordance with first control clocks, to output an input data signal or output a high-impedance signal. A master flip-flop chooses, in accordance with second control clocks, to output a data signal received from the input buffer or retain a currently output data signal. A master-slave switch chooses, in accordance with the second control clocks, to output a high-impedance signal or output a data signal received from the master flip-flop. A slave flip-flop chooses, in accordance with the second control clocks, to retain a currently output data signal or output a data signal received from the master-slave switch. A clock buffer inputs the second control clocks, and generates and outputs the first control clocks.

Abstract: An image processing apparatus comprises a captured image data acquisition unit configured to acquire captured image data, an information acquisition unit configured to acquire information of object distances of objects, a refocus image generation unit configured to generate a refocus image at a predetermined focus position in the captured image data, a display unit configured to display the refocus image on a display medium, a designation unit configured to designate an address in the refocus image displayed by the display unit, and a distance calculation unit configured to calculate distances between the designated address and positions of the objects in the refocus image, wherein the refocus image generation unit generates a refocus image using, as a focus position, an object distance of one of the objects based on the distances.

Abstract: An input buffer chooses, in accordance with first control clocks, to output an input data signal or output a high-impedance signal. A master flip-flop chooses, in accordance with second control clocks, to output a data signal received from the input buffer or retain a currently output data signal. A master-slave switch chooses, in accordance with the second control clocks, to output a high-impedance signal or output a data signal received from the master flip-flop. A slave flip-flop chooses, in accordance with the second control clocks, to retain a currently output data signal or output a data signal received from the master-slave switch. A clock buffer inputs the second control clocks, and generates and outputs the first control clocks.

Abstract: A hard-macro arranged on a semiconductor chip for constituting a part of a semiconductor integrated circuit includes at least one wire passing therethrough. The wire is formed in the hard-macro before the hard-macro is arranged on the semiconductor chip, and the wire starts a first outer edge of the hard-macro and terminates at a second outer edge of the hard-macro intersecting with the first outer edge.