Abstract: A display device includes a flexible substrate, a self-luminescent element, and a support member. The flexible substrate has a first face and a second face opposed to the first face. The self-luminescent element is provided on the first face of the flexible substrate. The support member includes a magnetic material and is provided on the second face of the flexible substrate.

Abstract: An information processing apparatus includes: a memory; and a processor configured to: store data of images captured of a structure at positions changed relative to the structure and data of a three-dimensional model indicating a three-dimensional shape of the structure; select an image containing the largest image of a damaged portion in the structure as a first accumulated image in each of which the damaged portion is imaged among the images; and perform a selection process of selecting second accumulated images except the first accumulated image such that regarding an imaging range that is not covered by the first accumulated image in the three-dimensional model, an imaging range which overlaps between the second accumulated images is reduced, and a coverage ratio of the imaging range in the three-dimensional model with the selected second accumulated images and the first accumulated image is equal to or more than a predetermined value.

Abstract: A display device includes a flexible substrate, a self-luminescent element, and a support member. The flexible substrate has a first face and a second face opposed to the first face. The self-luminescent element is provided on the first face of the flexible substrate. The support member includes a magnetic material and is provided on the second face of the flexible substrate.

Abstract: A display panel includes a planarization layer, self-luminous elements, a first wiring line, a second wiring line, and a sensing wiring line. The first wiring line is coupled to the first electrode layer through a first opening of the planarization layer. The second wiring line is coupled to the second electrode layer through a second opening of the planarization layer. The sensing wiring line is provided in a region and is electrically separated from the first electrode layer, the second electrode layer, the first wiring line, and the second wiring line. The region is positioned in the same layer as the first electrode layer, in the same layer as the second wiring line, or in a layer disposed between the first electrode layer and the second wiring line, and is positioned between the first electrode layer and the second opening.

Abstract: An information processing apparatus includes: a memory; and a processor configured to: store data of images captured of a structure at positions changed relative to the structure and data of a three-dimensional model indicating a three-dimensional shape of the structure; select an image containing the largest image of a damaged portion in the structure as a first accumulated image in each of which the damaged portion is imaged among the images; and perform a selection process of selecting second accumulated images except the first accumulated image such that regarding an imaging range that is not covered by the first accumulated image in the three-dimensional model, an imaging range which overlaps between the second accumulated images is reduced, and a coverage ratio of the imaging range in the three-dimensional model with the selected second accumulated images and the first accumulated image is equal to or more than a predetermined value.

Abstract: A display panel includes a planarization layer, self-luminous elements, a first wiring line, a second wiring line, and a sensing wiring line. The first wiring line is coupled to the first electrode layer through a first opening of the planarization layer. The second wiring line is coupled to the second electrode layer through a second opening of the planarization layer. The sensing wiring line is provided in a region and is electrically separated from the first electrode layer, the second electrode layer, the first wiring line, and the second wiring line. The region is positioned in the same layer as the first electrode layer, in the same layer as the second wiring line, or in a layer disposed between the first electrode layer and the second wiring line, and is positioned between the first electrode layer and the second opening.

Abstract: A display unit includes a flexible substrate, a thin film transistor layer, a display element layer, an electrically conductive member, and a protective member. The flexible substrate includes a first surface and a second surface that face each other. The thin film transistor layer is provided over the first surface of the flexible substrate. The display element layer includes a light-emitting layer, and is provided over the first surface of the flexible substrate, with the thin film transistor layer interposed between the display element and the flexible substrate. The electrically conductive member is provided to be in contact with the second surface of the flexible substrate. The protective member faces the second surface of the flexible substrate, with the electrically conductive member interposed between the protective member and the flexible substrate.

Abstract: Even if a via hole is displaced, erosion of a first layer made of titanium is suppressed when the via hole is cleaned. A semiconductor includes a wire layer, a side protective film, an interlayer insulating film, and via plugs. The wire layer includes a first layer made of titanium, a second layer that is arranged on the first layer and is made of titanium nitride, a third layer that is arranged on the second layer and contains aluminum, and a fourth layer that is arranged on the third layer and is made of titanium nitride. The side protective film is arranged on the side of the wire layer and has chemical resistance to hydroxylamine and conductivity. The interlayer insulating film covers the wire layer and the side protective film and has via holes. Via plugs are arranged in the via holes and are electrically coupled to the wire layer.

Abstract: An insulating film made of the same material as that of a gate insulating film is formed so as to cover one sidewall of a control gate on a conducting film for floating gate. By selectively removing the conducting film for floating gate with the insulating film as a mask, a floating gate is formed from the conducting film for floating gate, and a portion of the gate insulating film is exposed at the floating gate. A nitrogen introduced portion is formed by introducing nitrogen into the exposed portion of the gate insulating film. Then, the insulating film is removed to expose an upper surface of a lateral protrusion of the floating gate. An erase gate is formed so as to face the upper surface and a side surface of the lateral protrusion.

Abstract: A mobile terminal device receives a request for a sensing operation from an application program, specifies candidate processors that are to perform condition determination to determine whether an event output from a sensor performing the sensing operation of the received request satisfies conditions for notification, the conditions being designated by the application program, calculates an evaluation value of electricity consumed by each of the candidate processors in the condition determination, using frequency of the event of the sensing operation of the received request in frequency data, the frequency data linking an event output from a sensor to frequency of generation of the event, and selects a candidate processor having an optimal evaluation value.

Abstract: An apparatus includes a memory and a processor that is coupled to the memory. The processor is configured to obtain position information that indicates a position of the apparatus, calculate a movement amount of the apparatus based on the acquired position information, and execute a search for a device on an occasion where the calculated movement amount reaches a first value.

Abstract: An insulating film made of the same material as that of a gate insulating film is formed so as to cover one sidewall of a control gate on a conducting film for floating gate. By selectively removing the conducting film for floating gate with the insulating film as a mask, a floating gate is formed from the conducting film for floating gate, and a portion of the gate insulating film is exposed at the floating gate. A nitrogen introduced portion is formed by introducing nitrogen into the exposed portion of the gate insulating film. Then, the insulating film is removed to expose an upper surface of a lateral protrusion of the floating gate. An erase gate is formed so as to face the upper surface and a side surface of the lateral protrusion.

Abstract: An insulating film made of the same material as that of a gate insulating film is formed so as to cover one sidewall of a control gate on a conducting film for floating gate. By selectively removing the conducting film for floating gate with the insulating film as a mask, a floating gate is formed from the conducting film for floating gate, and a portion of the gate insulating film is exposed at the floating gate. A nitrogen introduced portion is formed by introducing nitrogen into the exposed portion of the gate insulating film. Then, the insulating film is removed to expose an upper surface of a lateral protrusion of the floating gate. An erase gate is formed so as to face the upper surface and a side surface of the lateral protrusion.

Abstract: A method of controlling a communication device executed by a processor included in the communication device, the method includes intermittently receiving, via a receiver of the communication device, at least two radio signals intermittently sent from a sending device; specifying a sending interval between the at least two radio signals, based on the at least two radio signals; and controlling the receiver so as to cause the receiver to be set, at each of timings at which a plurality of radio signals intermittently sent after the at least two radio signals from the sending device are received, to be in an operating state where the receiver is capable of receiving the plurality of radio signals, based on the specified sending interval.

Abstract: An insulating film made of the same material as that of a gate insulating film is formed so as to cover one sidewall of a control gate on a conducting film for floating gate. By selectively removing the conducting film for floating gate with the insulating film as a mask, a floating gate is formed from the conducting film for floating gate, and a portion of the gate insulating film is exposed at the floating gate. A nitrogen introduced portion is formed by introducing nitrogen into the exposed portion of the gate insulating film. Then, the insulating film is removed to expose an upper surface of a lateral protrusion of the floating gate. An erase gate is formed so as to face the upper surface and a side surface of the lateral protrusion.

Abstract: A portable terminal device includes: a memory to store power data; and a processor to execute a process, the process including: receiving an instruction to execute sensing; specifying one or more sensors for executing the sensing or one or more drivers controlling the sensors so that devices including the specified sensor and driver are specified; calculating a power consumed for the sensing by the specified devices based on the power data; and selecting a combination of the driver and the sensor, having a minimum power consumed for the sensing by the specified devices.

Abstract: There is provided a display apparatus including a wiring pattern formed over a substrate, a first insulating film which is laminated over the wiring pattern and in which a contact hole is formed in an up-down direction at a specified position, lower electrodes each formed over the first insulating film and including a contact portion that is inserted through the contact hole and electrically connected to the wiring pattern, a light emitting layer formed over the lower electrodes, an upper electrode formed over the light emitting layer, a light emitting region regulating member regulating a light emitting region where the light emitting layer is interposed between the lower electrodes and the upper electrode as a region including the contact portion, and a color filter disposed over the substrate in a region corresponding to at least the contact portion.

Abstract: An information processing device includes a processor configured to: acquire information of first status that represents a state of a first detection target; specify state transition in which the first status is changed based on the acquired information of the first status; acquire information of second status that represents a state of a second detection target; specify state transition in which the second status is changed based on the acquired information of the second status; specify a time point earlier than a first time point at which the state transition of the second status is specified as a second time point at which the state transition of the second status occurs; determine whether a combination of the second status and the first status at least at the second time point satisfies a predetermined condition; and perform predetermined processing according to a determination result indicating the condition is satisfied.

Abstract: A method of controlling a communication device executed by a processor included in the communication device, the method includes intermittently receiving, via a receiver of the communication device, at least two radio signals intermittently sent from a sending device; specifying a sending interval between the at least two radio signals, based on the at least two radio signals; and controlling the receiver so as to cause the receiver to be set, at each of timings at which a plurality of radio signals intermittently sent after the at least two radio signals from the sending device are received, to be in an operating state where the receiver is capable of receiving the plurality of radio signals, based on the specified sending interval.

Abstract: A mobile terminal device receives a request for a sensing operation from an application program, specifies candidate processors that are to perform condition determination to determine whether an event output from a sensor performing the sensing operation of the received request satisfies conditions for notification, the conditions being designated by the application program, calculates an evaluation value of electricity consumed by each of the candidate processors in the condition determination, using frequency of the event of the sensing operation of the received request in frequency data, the frequency data linking an event output from a sensor to frequency of generation of the event, and selects a candidate processor having an optimal evaluation value.