Abstract: An electronic apparatus includes an operation member that is rotationally operable, a rotational operation detector configured to detect a rotational operation onto the operation member, a touch operation detector configured to detect a touch operation onto the operation member, a state detector configured to detect a state of the electronic apparatus, and a processor configured to execute the instructions to execute a function in accordance with the rotational operation and the touch operation, and change setting about the rotational operation and the touch operation in accordance with the state.

Abstract: Provided is a separation and recovery apparatus for continuously separating and recovering, from a resin mixture containing a resin containing a hydrolyzable polymer and a resin containing a nonhydrolyzable polymer, a hydrolytic component a of the hydrolyzable polymer A and the nonhydrolyzable polymer B, the apparatus including: a crushing unit that crushes the resin mixture a melting/discharging unit that melts a crushed product obtained by the crushing unit to form a fluid and discharges the fluid at a high pressure; and a hydrothermal reaction treatment unit that continuously subjects the fluid discharged from the melting/discharging unit to a hydrothermal reaction treatment, wherein, in the melting/discharging unit, the hydrolyzable polymer A is hydrolyzed, and the hydrolytic component a thereof is dissolved and transferred into water permeating a sintered alloy diaphragm, thereby separating the nonhydrolyzable polymer B.

Abstract: Text is generated from an object. Text is generated from a first object. The first object includes a second object and a third object. A step of detecting coordinate data of the second object is included. A step of detecting coordinate data of the third object is included. A step of extracting positional relation between the second object and the third object from coordinate data is included. A step of converting the extracted positional relation into graph data is included. A step of generating text about the positional relation between the second object and the third object from graph data is included.

Abstract: An electronic apparatus includes a rotatable operation member that can be rotationally operated, a base member, a magnet having alternately magnetized N and S poles and rotatable integrally with the rotatable operation member, and first and second magnetic members disposed so that the magnet is disposed between them in an axial direction of a rotational center axis of the rotatable operation member and having a plurality of comb tooth portions. In the axial direction, the first magnetic member, the magnet, and the second magnetic member are disposed on an opposite side of the base member from the rotatable operation member. A part of an outer circumferential portion of the rotatable operation member is exposed to an outside from an opening provided on an exterior member of the electronic apparatus. The magnet, the first magnetic member, and the second magnetic member are covered with the exterior member.

Abstract: An electronic apparatus includes a rotatable operation member that can be rotationally operated, a base member, a magnet having alternately magnetized N and S poles and rotatable integrally with the rotatable operation member, and first and second magnetic members disposed so that the magnet is disposed between them in an axial direction of a rotational center axis of the rotatable operation member and having a plurality of comb tooth portions. In the axial direction, the first magnetic member, the magnet, and the second magnetic member are disposed on an opposite side of the base member from the rotatable operation member. A part of an outer circumferential portion of the rotatable operation member is exposed to an outside from an opening provided on an exterior member of the electronic apparatus. The magnet, the first magnetic member, and the second magnetic member are covered with the exterior member.

Abstract: A rotatable operation apparatus includes a rotatable operation member, a magnet having alternately magnetized magnetic poles, first and second magnetic members respectively including first and second teeth, a body frame, and a detector. A magnetized direction of each magnetic pole is parallel to a predetermined axis about which the rotatable operation member rotates. The magnet has a ring shape and is configured to rotate about the predetermined axis as the rotatable operation member rotates. The rotatable operation apparatus generates an operation force according to a change in positions of the magnetic poles, caused by the rotation of the magnet, relative to positions of the first tooth and the second tooth. The magnet, the first magnetic member, and the second magnetic member are housed inside the body frame. When viewed from a thrust direction of the magnet, the detector is disposed at a position that does not overlap with the magnet.

Abstract: Electronic equipment includes a first operating member having a detecting unit to detect touch and slide operations. Where a detecting unit touch detecting face is touched in the touch operation over a first and a second predetermined area, larger than the first predetermined area, or less, a first function is executed. Where the touch detecting face of the detecting unit is touched in the touch operation over more than the second predetermined area, a second function is executed. The touch detecting face is divided into a first, a second, and a third touch detecting face, in that order in a direction of the slide operation. A relation of 1.4?W1/W2?6.0 is satisfied. W1 represents a length of the touch detecting face in the direction of the slide operation, and W2 represents a length of the second touch detecting face in the direction of the slide operation.

Abstract: A source code analysis unit identifies dependency strengths of one or more functions included in a source code. An influence analysis unit identifies one or more transfer functions that will each move to a different subsystem due to refactoring and identifies a dependency strength to be influenced by the refactoring, based on the dependency strengths that have been identified by the source code analysis unit with respect to the one or more transfer functions. A scale calculation unit calculates the scale of the refactoring, based on the dependency strength to be influenced, which has been identified by the influence analysis unit.

Abstract: In a requirement analysis apparatus, a connection analysis unit classifies a plurality of requirement items into groups based on connections between requirement items indicated in item connection information. A subsystem analysis unit extracts the number of subsystems that are reached by tracing the connections from each requirement item, based on the connections between the requirement items indicated in the item connection information and based on the connection between each requirement item indicated in the item connection information and each subsystem. A result display unit displays, for each requirement item of the plurality of requirement items, analysis result information which is set with an identifier identifying a group into which the requirement item has been classified, and the number of subsystems being reached by tracing the connections from the requirement item.

Abstract: A source code analysis unit identifies dependency strengths of one or more functions included in a source code. An influence analysis unit identifies one or more transfer functions that will each move to a different subsystem due to refactoring and identifies a dependency strength to be influenced by the refactoring, based on the dependency strengths that have been identified by the source code analysis unit with respect to the one or more transfer functions. A scale calculation unit calculates the scale of the refactoring, based on the dependency strength to be influenced, which has been identified by the influence analysis unit.

Abstract: Electronic equipment includes a first operating unit having a non-electroconductive touch operating surface, a touch detecting surface disposed on a touch operating surface inner side, and an electroconductive outer cover disposed covering a perimeter of the touch operating surface. The first operating unit receives touch operations and slide operations. The touch detecting surface detects the touch operations, is divided into at least two electrode surfaces of a first electrode surface through an N'th electrode surface in a direction of the slide operations, and is electrically insulated from the outer cover by being distanced from the outer cover. The touch operating surface has a touch detection region where the touch operating surface overlaps the touch detecting surface, and a touch-non-detection region disposed on an outer periphery of the touch detection region where the touch operating surface does not overlap the touch detecting surface.

Abstract: Electronic equipment includes a first operating member having a touch detecting face, a first display unit provided on a first face where the touch operating face is disposed, a second display unit configured with a larger display area than the first display unit and disposed in a direction orthogonal to a horizontal direction with regard to the touch operating face, and a grip portion configured for a user to grip. The first operating member detects a touch operation and slide operation on a touch operating face. The first operating member is disposed between the first display unit and the grip portion in the horizontal direction.

Abstract: Electronic equipment includes a first operating member and a protruding portion. The first operating member includes a detecting unit that detects touch operations and slide operations. The protruding portion is disposed adjacent to an operating face of the first operating member in a direction of the slide operations, and protrudes in a direction orthogonal to the direction of the slide operations as to the operating face of the first operating member. A detecting face of the detecting unit is divided into at least two detecting faces of a first detecting face through an N'th detecting face, in order from a side of the protruding portion in the direction of the slide operations. An area of the first detecting face is wider than an area of the N'th detecting face.

Abstract: A card-type electronic device capable of suppressing a rise in the temperature of signal lines for high-speed communication requiring impedance control while ensuring sufficient thermal connection and electrical connection. A connector is fixed to a substrate on which electronic components that generate heat are mounted, and includes electrical contacts electrically connected to an external apparatus and a thermal contact thermally connected to the external apparatus. A cutout is formed in the substrate between a portion to which the thermal contact is fixed and a portion to which the electrical contacts are fixed.

Abstract: In the present invention, first and second operation surfaces are different from each other in any one of amount of protrusion to a back surface side, texture, and color, and a first detection surface is provided over the first operation surface and the second operation surface provided adjacent to an outer edge of the first operation surface on a protruding portion side in a direction of a slide operation.

Abstract: A card-type electronic device capable of suppressing a rise in the temperature of signal lines for high-speed communication requiring impedance control while ensuring sufficient thermal connection and electrical connection. A connector is fixed to a substrate on which electronic components that generate heat are mounted, and includes electrical contacts electrically connected to an external apparatus and a thermal contact thermally connected to the external apparatus. A cutout is formed in the substrate between a portion to which the thermal contact is fixed and a portion to which the electrical contacts are fixed.

Abstract: An imaging apparatus includes: a finder; a grip portion on a side of a first direction relative to the finder; a touch operation member provided on a rear surface of the imaging apparatus on a side of the first direction relative to the finder, on a side of a second direction relative to the grip portion, the second direction being opposite to the first direction, and on a side of a third direction relative to a center of the imaging apparatus, the third direction being perpendicular to the first direction and being oriented from the center toward the finder; and a control unit configured to control the imaging apparatus so as to execute a first function in accordance with a slide operation in the first direction and to execute a second function in accordance with a slide operation in the second direction.

Abstract: Electronic equipment includes a first operating member having a detecting unit to detect touch and slide operations. Where a detecting unit touch detecting face is touched in the touch operation over a first and a second predetermined area, larger than the first predetermined area, or less, a first function is executed. Where the touch detecting face of the detecting unit is touched in the touch operation over more than the second predetermined area, a second function is executed. The touch detecting face is divided into a first, a second, and a third touch detecting face, in that order in a direction of the slide operation. A relation of 1.4?W1/W2?6.0 is satisfied. W1 represents a length of the touch detecting face in the direction of the slide operation, and W2 represents a length of the second touch detecting face in the direction of the slide operation.

Abstract: Electronic equipment includes a first operating member having a detecting unit to detect touch and slide operations. Where a detecting unit touch detecting face is touched in the touch operation over a first and a second predetermined area, larger than the first predetermined area, or less, a first function is executed. Where the touch detecting face of the detecting unit is touched in the touch operation over more than the second predetermined area, a second function is executed. The touch detecting face is divided into a first, a second, and a third touch detecting face, in that order in a direction of the slide operation. A relation of 1.4?W1/W2?6.0 is satisfied. W1 represents a length of the touch detecting face in the direction of the slide operation, and W2 represents a length of the second touch detecting face in the direction of the slide operation.

Abstract: In a requirement analysis apparatus, a connection analysis unit classifies a plurality of requirement items into groups based on connections between requirement items indicated in item connection information. A subsystem analysis unit extracts the number of subsystems that are reached by tracing the connections from each requirement item, based on the connections between the requirement items indicated in the item connection information and based on the connection between each requirement item indicated in the item connection information and each subsystem. A result display unit displays, for each requirement item of the plurality of requirement items, analysis result information which is set with an identifier identifying a group into which the requirement item has been classified, and the number of subsystems being reached by tracing the connections from the requirement item.