TBK

An image processing apparatus (100) that generates three-dimensional data of an object based on a depth image, is disclosed. The apparatus (100) sets, to an object region in an image to be divided that is based on the depth image, a boundary region between the object region and a background region, and divides the image to be divided into a plurality of sub-regions. The apparatus (100) determines a vertex for each sub-region that includes the object region among the plurality of sub-regions and adds a vertex to the boundary region. Then the apparatus (100) generates the three-dimensional data using the vertices determined and the vertex added.

An information processing device (102) includes operation means (204) for receiving a user operation; acquisition means (203) for acquiring relationship information on a relationship between a user and a function executed if the operation means is operated by the user; specification means (206) for specifying the user who uses the own device (102); and execution means (206) for executing the function associated with the specified user in the relationship information if the operation means is operated by the user. The operation means includes first operation means (204b, 204c, 204d) and second operation means different from the first operation means. The relationship information includes information on a relationship between the user and a function to be executed if the user operates the first operation means, and information on a relationship between the user and a function to be executed if the user operates the second operation means.

The rotor (2; 102) may include a shaft (10) extending in an axial direction; a rotor core (12; 112) fixed to an outer surface of the shaft (10) and comprising a magnet housing hole (30); a magnet (14; 114) housed in the magnet housing hole (30); and a first end plate (16; 116) formed from a non-magnetic body, wherein the first end plate (16; 116) abuts a first end surface (12A) of the rotor core (12; 112), which is one of axially opposite end surfaces. The magnet housing hole (30) may extend in the axial direction from a first opening(32A) to a second opening (32B) formed in a second end surface (12B) of the rotor core (12; 112), which is other of the axially opposite end surfaces. The first end plate (16; 116) may comprise a first depression (40A) facing the first opening (32A).

A photoelectric conversion apparatus includes a semiconductor layer including a first surface and a second surface, a first electrode plug arranged to contact the first surface and supplied with a first voltage, and a second electrode plug arranged to contact the first surface and supplied with a second voltage. The semiconductor layer includes an active region defined by an isolation region so as to have an elongated shape in a predetermined direction in an orthogonal projection onto the first surface. The active region includes a first semiconductor region of a first conductivity type arranged to contact the first electrode plug, and a second semiconductor region of a second conductivity type arranged to contact the second electrode plug. A centroid of the first semiconductor region is arranged between a first end of the active region in the predetermined direction and a centroid of the active region. The second semiconductor region is arranged between a second end of the active region in the predetermined direction and the first semiconductor region.

An image capturing apparatus comprises an image capturing element configured to acquire two images having parallax, a contrast calculation unit configured to calculate contrast information for each predetermined region of at least one image among the two images, an exposure adjustment unit configured to perform exposure adjustment for each of the regions based on the contrast information, and a distance calculation unit configured to calculate a distance to a subject for each of the regions based on an amount of deviation of images of the region in the two images adjusted by the exposure adjustment unit.

A power storage module according to an aspect of the present disclosure comprises a power storage cell equipped with an electrode terminal, and a conductive member comprising an electrical connection section to be connected to the electrode terminal. When viewed along a direction in which the conductive member and the electrode terminal oppose each other, the electrical connection section comprises a first portion at which a peripheral edge portion thereof is positioned further inside than a peripheral edge portion of the electrode terminal, and a second portion positioned further outside than the peripheral edge portion of the electrode terminal.

A control system controls a vehicle capable of running by unmanned driving, and comprises: an acquisition unit that acquires step information about a particular step that is a step among steps present on a running route of the vehicle and determined in advance as a step which the vehicle is not to mount; a detection unit that detects the presence of the particular step at a destination of travel of the vehicle by using the step information; and a controller that controls the vehicle in such a way as to reduce a likelihood of the vehicle mounting the particular step if the detection unit detects the presence of the particular step at a destination of travel of the vehicle.

A conductive elastic roller (1) having a conductive substrate (2) and a conductive elastic layer (3) on the substrate, in which the conductive elastic layer (3) contains polyurethane and carbon nanotubes, and the polyurethane includes a nitrogen-containing heteroaromatic ring structure.

A control unit adjusts a booklet making condition in accordance with at least one of a wear state of an image forming unit and an environmental condition in an environment in which the image forming unit is installed. The booklet making condition includes at least one of an image forming condition for an adhesive layer, used in the image forming unit, and a thermal compression adhering condition for the adhesive layer, used in a thermal compression adhering unit.

A communication apparatus (100) includes: receiving means that receives, while the communication apparatus is connected to a first access point, a user operation designating a second access point different from the first access point as a target for connection with the communication apparatus; connection control means that performs control to maintain a connection between the communication apparatus and the first access point and connect the communication apparatus to the second access point designated by the user operation designating the second access point received by the receiving means; and communication control means that performs control to perform data communication via both the first access point and the second access point in a state in which both the first access point and the second access point are connected to.