Abstract: A gripping mechanism (3) includes a gripping roller (32) and a holder (31) that houses the gripping roller (32). A gripped portion (42) of a first component (4) is gripped between an outer surface of the gripping roller (32) and an inner surface of the holder (31) through action of gravity acting on the gripping roller (32). Preferably, the gripping roller (32) includes a core (321) that is cylindrical or columnar in shape and a covering section (322) that is an elastic body covering a circumferential surface of the core (321). Preferably, the covering section (322) has a circumferential surface with a friction coefficient greater than a friction coefficient of the circumferential surface of the core (321).

Abstract: There is provided a metal plate antenna transmitting and receiving wireless signals conforming to a prescribed communication standard, wherein an antenna width is designed to satisfy radiation resistance achieving a prescribed standing wave ratio in a resonant mode in which a loop length of the metal plate antenna is 1.5 wavelength of a wireless signal conforming to the prescribed communication standard.

Abstract: A process cartridge comprises a photosensitive drum and a developing roller. A coupling member is provided adjacent to one axial end of the developing roller. The coupling member includes a driven portion, and an intermediary portion configured and positioned to engage with the driven portion. The intermediary portion is also configured to be movable relative to the driven portion in a direction crossing the axis of the developing roller while maintaining engagement with the driven portion. The coupling member further includes a driving portion configured and positioned to receive a driving force for rotating the developing roller. The driving portion is also configured to engage with the intermediary portion, and to be movable relative to the intermediary portion in a direction crossing the axis of the developing roller while maintaining engagement with the intermediary portion.

Abstract: An information processing device (40) according to one embodiment of the present disclosure includes: an analysis unit (41) being a first data generation unit that generates objective score data, which indicates objective scores in time series, based on a plurality of pieces of objective data regarding a patient; a processing unit (42) being a second data generation unit that generates subjective score data, which indicates subjective scores in time series, based on a plurality of pieces of subjective data obtained from the patient; and a generation unit (44) being an image generation unit that generates a score image indicating the objective score data and the subjective score data.

Abstract: This method for detecting a poor module-mounting-state in a concentrator photovoltaic apparatus includes: photographing a surface of an array by an imaging device; obtaining an image in which a virtual image, magnified through a condenser lens, of a light receiving portion including a cell and a vicinity thereof is formed, and a collection of pixels of the virtual image forms a composite virtual image of an entirety of the light receiving portion, the composite virtual image being projected over a plurality of modules; and detecting a poor module-mounting-state based on a form of the composite virtual image.

Abstract: A CPU executes a zoom tracking control program to function as an acquisition unit that acquires a focal length of an imaging lens from a state of a zoom lens; and a control unit that performs first control of performing control to change a position of a focus lens along an optical axis direction according to the acquired focal length on the basis of a zoom tracking curve represented by tracking data representing a correspondence relationship between the focal length and a focus position according to a subject distance, and second control of acquiring contrast information representing contrast of a captured image a plurality of times during execution of the first control and performing control to change the zoom tracking curve used in the first control on the basis of a change of contrast values represented by a plurality of pieces of the acquired contrast information.

Abstract: A photovoltaic apparatus includes: a support mechanism including a mount having a shaft body serving as a rotation shaft when tracking the sun, and a drive part configured to drive the shaft body; an array formed on the mount by arranging solar cell modules; and an outer frame portion provided along an outer end surface, of the array, parallel to a central axis direction of the shaft body and located at a position where wind blowing toward the outer end surface initially hits.

Abstract: A pneumatic tire 1 has a carcass 6 extending between a first bead portion 4A and a second bead portion 4B through a tread portion 2 and a pair of sidewall portions 3. The carcass 6 is composed of at least two carcass plies 7 including a first carcass ply 7A and a second carcass ply 7B which have the same ply length. Each of the first carcass ply 7A and the second carcass ply 7B is arranged asymmetrically with respect to the tire equator C.

Abstract: First and second focusing lenses G2 and G3 are moved to perform focusing. The second focusing lens G3 is moved to a position, which is derived by a function f(x), relative to the position x of the first focusing lens G2. The movement of the first and second focusing lenses G2 and G3 is controlled on the basis of origins that are individually set. The origin of the first focusing lens G2 is detected by a first photo interrupter 24, and the origin of the second focusing lens G3 is detected by a second photo interrupter 34. In a case where the first and second photo interrupters 24 and 34 have mounting errors, the function f(x) is corrected on the basis of the mounting errors and the movement of the second focusing lens G3 is controlled on the basis of the corrected function F(x).

Abstract: This wiring module includes: a wiring substrate; a base portion at which the wiring substrate is placed; and an adhesive layer configured to adhere the wiring substrate to the base portion, wherein the wiring substrate includes: a land portion configured to have a power generating element mounted thereto; and a wire portion configured to be electrically connected to the power generating element, the adhesive layer has: a land adhesion region configured to adhere the land portion to the base portion; and a wire adhesion region configured to adhere the wire portion to the base portion, and a width of the wire adhesion region is smaller than a width of the land adhesion region.

Abstract: A method for manufacturing a solar photovoltaic power generation apparatus includes: forming a solar cell array by attaching a plurality of solar cell modules to a fixing member; and attaching the solar cell array to a support arm.

Abstract: This method for detecting a poor module-mounting-state in a concentrator photovoltaic apparatus includes: photographing a surface of an array by an imaging device; obtaining an image in which a virtual image, magnified through a condenser lens, of a light receiving portion including a cell and a vicinity thereof is formed, and a collection of pixels of the virtual image forms a composite virtual image of an entirety of the light receiving portion, the composite virtual image being projected over a plurality of modules; and detecting a poor module-mounting-state based on a form of the composite virtual image.

Abstract: In the evaluation system according to the present embodiment, the height measurement device may further include a remote controller including a command transmission unit configured to transmit a laser radiation command, the laser radiation unit may include a command reception unit configured to receive the laser radiation command transmitted from the remote controller, and the laser radiation unit may radiate the laser beam in accordance with the laser radiation command received by the command reception unit. Thus, the laser beam is radiated in accordance with the laser radiation command from the remote controller, whereby workability is even more improved.

Abstract: This power generation module includes: a power generating portion (30) including a power generating element (19); and a wiring substrate. The wiring substrate includes: a reinforcement plate; and a flexible printed circuit (79) provided above the reinforcement plate. The flexible printed circuit (79) has: an FPC land portion (70) configured to have the power generating portion (30) mounted thereto; and a FPC wire portion (73) connected to the FPC land portion (70). The width of the FPC wire portion (73) is smaller than the width of the FPC land portion (70).

Abstract: A photovoltaic apparatus includes: a power generation part; an angle changeable mechanism configured to support the power generation part so as to be able to change an elevation of the power generation part; a post configured to support the power generation part and the angle changeable mechanism; and a hinge mechanism configured to support the post so as to be able to change an angle of the post relative to an installation surface for the photovoltaic apparatus.

Abstract: A submergence detection device includes: a housing in which an opening is formed; and a detection electrode disposed inside the housing and configured to detect a submergence. A through hole is formed in the housing. When seen from the opening, a wall surface that is located in the housing farther than a position of the through hole is watertight. When seen from the opening, the detection electrode is disposed closer to the opening than the through hole.

Abstract: A vehicle drum brake including: a pair of brake shoes arranged to be expanded on a backing plate; a first parking lever disposed to rotate around a predetermined mounting shaft positioned at one end portion of one of the brake shoes; a second parking lever made up of a member different from the first parking lever, disposed to rotate around the mounting shaft, and coupled to and rotated together with the first parking lever; and a strut including a first strut member engaged with the first and second parking levers, the first and second parking levers are coupled to each other by a coupling pin so as to be engaged with the first strut member at the same time.

Abstract: A mounting structure for a photovoltaic module, the photovoltaic module including: a plurality of power generating elements; and a housing having a metal bottom plate on which the plurality of power generating elements are arrayed, and a resin side wall frame standing along an outer edge of the bottom plate, the mounting structure including: a support plate having a support face configured to be in contact with an outer face of the bottom plate to support the photovoltaic module; a washer to be disposed on one face which is an inner face of the bottom plate or a face, of the support plate, at a side opposite to the support face; and a rivet having a shank portion and a head, the shank portion being configured to be passed through the support plate and the bottom plate to be inserted into the washer, the head formed at one end portion of the shank portion, the rivet being configured to sandwich and fasten the support plate and the bottom plate between the washer and the head by an other end portion of the shan

Abstract: A CPU executes a zoom tracking control program to function as an acquisition unit that acquires a focal length of an imaging lens from a state of a zoom lens; and a control unit that performs first control of performing control to change a position of a focus lens along an optical axis direction according to the acquired focal length on the basis of a zoom tracking curve represented by tracking data representing a correspondence relationship between the focal length and a focus position according to a subject distance, and second control of acquiring contrast information representing contrast of a captured image a plurality of times during execution of the first control and performing control to change the zoom tracking curve used in the first control on the basis of a change of contrast values represented by a plurality of pieces of the acquired contrast information.