An electronic device includes a lens, an image sensor configured to generate image data from incident light that is incident through the lens, an actuator configured to drive the lens, at least one processor configured to output a first signal including lens driving information for controlling the actuator to drive the lens, a first interface configured to present, by the at least one processor, the first signal to the actuator, and a second interface configured to present, by the at least one processor, the first signal to the image sensor.

A camera device according to the present embodiment comprises: a first operation part comprising one of a first coil or a magnet and arranged on a fixed member; a second operation part which comprises the other one of the first coil and the magnet, is arranged on a movable member, and faces the first operation part; a hall sensor facing one of the first operation part and the second operation part; and a second coil arranged near the hall sensor, wherein at least a portion of the second coil is arranged between the hall sensor and the first coil.

A transfer control device includes a difference identifying section which identifies, for a first and second images sequentially captured by synchronous scanning, a difference region of the second image, on the basis of an event signal indicating a change in intensity of light generated in one or a plurality of pixels of each of the first and second images during a time period from capturing of the first image to capturing of the second image; and a transfer control section which executes data transfer different between the difference region and regions other than the difference region, for the second image.

Disclosed herein is a terminal device and a cooking apparatus capable of guiding an arrangement of a food item in the cooking apparatus comprising a plurality of heat sources to form a plurality of cooking zones having different heating characteristics. The terminal device comprises an imaging device, a user interface provided to display an image captured through the imaging device and provided to receive an input from a user, and a controller configured, in response to determining that the captured image corresponds to an image of a cooking apparatus and in response to obtaining food item information from the user, to control the user interface to display an augmented reality (AR) image of the food item superimposed on a recommended cooking zone among a plurality of cooking zones of the cooking apparatus.

The invention relates to a swimming pool cleaning system comprising a cleaning apparatus to be immersed in the pool, the system further comprising at least one moving image acquisition means secured to a float via a flexible tie.

In an information compression unit 311, in an image capturing unit 121 (221), among a plurality of pixel output units that receives object light that enters without passing through any of an image capturing lens and a pinhole, pixel outputs of at least two of the pixel output units have incident angle directivity modulated into different incident angle directivity according to an incident angle of the object light. The information compression unit 311 performs compression processing to reduce an amount of data of pixel output information generated by the image capturing unit 121 (221). For example, by computation of a difference between set reference value information and the pixel output information, linear calculation of a set calculation parameter and the pixel output information, and the like, the information compression unit 311 reduces a word length of the pixel output information, and reduces the amount of data of the pixel output information generated according to the object light that enters without passing through any of an image capturing lens and a pinhole.

A camera module is provided with: an imaging element which is formed in a rectangular shape and has a plurality of pads provided to a back surface opposite from an imaging surface; a substrate where, on the same plane, a plurality of linear conductors are lined up in parallel and have an insulating coating in a rectangular shape such that the side of one end and the other end in the direction of extension of the conductors is shorter than one side of the imaging element, the conductors at the one end and the other end being exposed at a plate surface front and/or back; and a low-melting-point electroconductive material for connecting, to each of the pads, the conductors of the one end that are exposed due to one end surface of the substrate being abutted against the back surface.

The present disclosure relates to an imaging device, an imaging method, and a program that make it possible to implement an appropriate auto white balance (AWB) lock desired by a user. As a shutter button setting for applying the AWB lock, any one of Shutter Halfway Down, Continuous Shooting, or Off can be select and set. Furthermore, a setting is configured in which an AWBL button is assigned to a custom button so that the AEB lock can be applied by either a hold operation or a toggle operation. The present disclosure can be applied to an imaging device.

Both a conventional receiver and an HDR-compatible receiver well perform electro-optical conversion processing on transmission video data obtained by using an HDR opto-electronic transfer characteristic. High dynamic range opto-electronic conversion is performed on high dynamic range video data to obtain the transmission video data. Encoding processing is performed on this transmission video data to obtain a video stream. A container of a predetermined format including this video stream is transmitted. Metadata information indicating a standard dynamic range opto-electronic transfer characteristic is inserted into a layer of the video stream, and metadata information indicating a high dynamic range opto-electronic transfer characteristic is inserted into at least one of the layer of the video stream and a layer of the container.

Both a conventional receiver and an HDR-compatible receiver well perform electro-optical conversion processing on transmission video data obtained by using an HDR opto-electronic transfer characteristic. High dynamic range opto-electronic conversion is performed on high dynamic range video data to obtain the transmission video data. Encoding processing is performed on this transmission video data to obtain a video stream. A container of a predetermined format including this video stream is transmitted. Metadata information indicating a standard dynamic range opto-electronic transfer characteristic is inserted into a layer of the video stream, and metadata information indicating a high dynamic range opto-electronic transfer characteristic is inserted into at least one of the layer of the video stream and a layer of the container.