Abstract: There is provided a press brake that can improve forming accuracy in partial bending. A press brake includes: a conveying mechanism that intermittently conveys a workpiece; a die including a pair of shoulder portions and a groove portion located between the pair of shoulder portions, the pair of shoulder portions being arranged away from each other in a conveying direction of the workpiece and supporting a rear surface of the workpiece; a backup plate that extends on the pair of shoulder portions, covers the groove portion, and is interposed between the die and the workpiece; and a punch that moves relative to the die so as to approach the die each time the conveying mechanism stops conveying the workpiece and presses the workpiece so as to bend the workpiece within an elastic deformation region of the backup plate.

Abstract: A driver device (1) includes a pulse generation circuit (5) that generates, within one period, a pulse waveform (Spl) with a first voltage level in a first period (T1) and a pulse waveform with a second voltage level in a second period (T2). A control circuit (2) makes the first period equal to a minimum on period (Tminon) to perform a supply mode for the minimum on period and, if at the end of the minimum on period the output current (Iout) has reached the set current value (Iset), the control circuit makes a switch to a decay mode and performs a skip of a switch to the supply mode at the end of the second period.

Abstract: The purpose of the invention is to provide a virus recovery method including reducing viability of cells in a culture solution and filtering, through a hollow fiber membrane, the culture solution containing a virus produced by the cells to recover the virus. The hollow fiber membrane has a gradient structure in which an average pore size becomes smaller from an upstream side to a downstream side in a membrane thickness direction.

Abstract: One form of a displaying unit combines a first screen, a second screen, and a third screen generated by a rendering unit so as to be arranged in a horizontal direction, and displays the combined screens on a display unit. A timer counter circuit causes the abnormality monitoring unit to set the black screen layer ON of the screen in which normality of each part related to the screen cannot be detected at a time interval shorter than a predetermined time, and the displaying unit displays the screen in a black screen by superimposing and displaying a black screen layer on the screen in which the black screen layer of being ON has been set.

Abstract: A server device includes a communication unit and a control unit. The control unit is configured to acquire information on a first power purchase price from a charging point and a second power purchase price from a facility, and when the second power purchase price is lower than the first power purchase price, send to a power supply vehicle configured to supply power to another vehicle an instruction to move along a travel route that passes through the facility.

Abstract: The server device communicates with a plurality of power supply vehicles that dispatch from a power supply base to the power supply destination and return to the power supply base through the communication unit through the communication unit, and performs a first power supply during returning. a control unit that instructs the vehicle and a second power supply vehicle on the move to merge at a junction and provide the remaining power of the first power supply vehicle to the second power supply vehicle.

Abstract: A server apparatus includes a communication interface, and a controller configured to communicate with vehicles using the communication interface, acquire information on a required charge amount and a position of a vehicle that needs to be charged, and provide instructions that a power supply vehicle that does not have the required charge amount is to travel a route where road surface power supply is available to the position.

Abstract: A multilayer electronic component according to an embodiment of the present disclosure includes a body including a dielectric layer and internal electrodes; and an external electrode disposed on the body and including an electrode plating layer disposed to at least partially contact the internal electrodes, and a plating layer disposed on the electrode plating layer. The electrode plating layer may include a plurality of first crystal grains having a major axis of 0.2 ?m or more, and the plurality of first crystal grains may have an average ratio of a major diameter to a minor axis to 1:1 to 3:1.

Abstract: A multilayer electronic component according to an example embodiment of the present disclosure may include a body including a dielectric layer and internal electrodes alternately arranged in a first direction with the dielectric layer between the internal electrodes, and including first and second surfaces opposing each other in the first direction, third and fourth surfaces connected to the first and second surfaces and opposing each other in a second direction, and fifth and sixth surfaces connected to the first to fourth surfaces and opposing each other in a third direction; external electrodes disposed on the body; and a first inorganic material, including at least one inorganic material among sulfur (S) and fluorine (F), disposed in at least a portion between the body and the external electrodes.

Abstract: A method of manufacturing a printed circuit board includes: forming a resist layer; exposing first areas of the resist layer spaced apart from each other; after exposing the first areas, exposing second areas of the resist layer, the second areas being spaces between the first areas; forming first and second openings spaced apart from each other in the first and second areas by developing the resist layer; and forming a plurality of conductor patterns by filling the first and second openings with conductors.

Abstract: An electromagnetic-wave detection device 10 includes a first detection unit 13, a second detection unit 14, a first aperture 15, a second aperture 16, and a controller 18. The first detection unit 13 detects reflected waves incident from an incidence unit 12. The second detection unit 14 detects electromagnetic waves incident from the incidence unit 12. The second aperture 16 has a second region and a third region. The second region is smaller than a first region. The third region is located around the second region. The third region does not allow electromagnetic waves traveling to the second detection unit 14 to pass therethrough. The controller 18 acquires first spatial information about a space based on detection of electromagnetic waves by the first detection unit 13. The controller 18 acquires second spatial information about the space based on detection of electromagnetic waves by the second detection unit 14.

Abstract: An electromagnetic wave detecting apparatus 10 includes a first image forming unit 15, an intermediate layer 22, and a blocking unit 25. The first image forming unit 15 is configured to cause incident electromagnetic waves to form an image. The blocking unit 25 is configured to block propagation of electromagnetic waves to the first image forming unit 15 when the electromagnetic waves are incident on the intermediate layer 22 at angle equal to or greater than a critical angle.

Abstract: One form of a display device includes: an on-screen display (OSD) video generation unit configured to execute synchronization processing of synchronizing an OSD video with a synchronization signal of an external video while outputting the OSD video when the external video and the OSD video are displayed in a superimposed manner; and an external video processing unit configured not to output the external video during execution of the synchronization processing and to output the external video after completion of the synchronization processing. The videos are prevented from being distorted by not displaying the external video while displaying only the OSD video until the synchronization processing between the OSD video and the external video is completed, and flickering of the video is prevented by continuously displaying the OSD video and preventing a non-displayed black screen from being inserted at a moment when the videos are switched.

Abstract: An electromagnetic-wave detection device 10 includes a radiating unit 11, an incidence unit 12, a first detection unit 13, a second detection unit 14, and a controller 15. The radiating unit 11 is configured to radiate electromagnetic waves in multiple different directions within a space. Electromagnetic waves from the space are incident on the incidence unit 12. The electromagnetic waves from the space include reflected waves resulting from electromagnetic waves radiated by the radiating unit 11 being reflected by an object within the space. The first detection unit 13 is configured to detect at least the reflected waves. The second detection unit 14 is configured to detect at least a portion of the electromagnetic waves incident on the incidence unit 12. Based on the detection results of the second detection unit 14, the controller 15 is configured to determine the presence or absence of an interfering factor that may interfere with the detection of reflected waves by the first detection unit 13.

Abstract: An acoustic system includes an in-vehicle device including a vehicle-side communicator; and an information processing device configured to be worn at an ear of a user and to communicate with the vehicle-side communicator. The information processing device includes: a sound pickup configured to pick up external sound; a sound emitter configured to emit sound to the ear of the user; a communicator configured to communicate with the in-vehicle device; and a computer. The computer is programmed to: determine, based on a result of communication with the in-vehicle device by the communicator, whether or not a predetermined condition is satisfied in a state where the information processing device is in a vehicle; and when determining that the predetermined condition is satisfied, cause the sound emitter to emit the external sound picked up by the sound pickup.

Abstract: An electromagnetic wave detection apparatus includes a radiation unit, a first detection module, a propagation module, and a control unit. The radiation unit is configured to emit an electromagnetic wave. The first detection module includes a plurality of detection elements configured to output result denoting detection of an electromagnetic wave. The propagation module includes a plurality of propagation elements capable of switching between a first state and a second state. The electromagnetic wave is caused to proceed toward the first detection module by the plurality of propagation elements in the first state and is kept from proceeding toward the first detection module by the plurality of propagation elements in the second state. The control unit is configured to cause a first propagation element to transition into the first state and to cause a second propagation element to transition into the second state.

Abstract: An electromagnetic wave detection apparatus (10) includes a separation unit (16), first detector (17), propagation unit (18), second detector (20), and blocker (21). The separation unit (16) separates electromagnetic waves propagating in a first direction (d1) and propagates the electromagnetic waves in a second direction (d2) and a third direction (d3). The first detector (17) detects electromagnetic waves propagated in the second direction (d2). The propagation unit (18) includes pixels (px) along a reference surface (ss). The propagation unit (18) switches the propagation direction of electromagnetic waves propagated in the third direction (d3) and incident on the reference surface (ss) between a fourth direction (d4) and a fifth direction (d5) at each pixel (px). The second detector (20) detects the electromagnetic waves propagated in the fourth direction (d4). The blocker (21) blocks at least a portion of the electromagnetic waves propagated in the fifth direction (d5).

Abstract: A terminal device separate from a vehicle includes a receiver that receives a notification signal from the vehicle indicating that the vehicle is in a first state different from a second state, a notification unit that notifies a user of the terminal device of the first state based on the notification signal, an input unit that receives, from the user of the terminal device, an input commanding the first state to be maintained, and a transmitter that transmits a signal to the vehicle based on the input received by the input unit. The vehicle includes a control unit that performs control that maintains the first state after lapse of a predetermined time from a time that the notification unit of the terminal device notifies of the first state of the vehicle when a reception unit of the vehicle receives the signal transmitted from the transmitter within the predetermined time.

Abstract: An electromagnetic wave detection apparatus comprises an irradiator configured to emit electromagnetic waves; a switch comprising an action surface with a plurality of pixels disposed thereon, the switch being configured to switch each pixel between a first state of causing electromagnetic waves, including reflected waves, from an object, of electromagnetic waves irradiated from the irradiator, incident on the action surface to travel in a first direction and a second state of causing the electromagnetic waves incident on the action surface to travel in a second direction; a first detector configured to detect the electromagnetic waves that travel in the first direction; and a second detector configured to detect the electromagnetic waves that travel in the second direction. Also, the switch is configured to switch each of the plurality of pixels between the first and second states according to an irradiation region of the electromagnetic waves emitted from the irradiator.

Abstract: An electromagnetic wave detection apparatus (10) includes a switch (16), a first detector (19), and a second detector (20). The switch (16) includes an action surface (as) with a plurality of pixels (px) disposed thereon. The switch (16) is configured to switch each pixel (px) between the first state and the second state. In the first state, the pixels (px) cause electromagnetic waves incident on the action surface (as) to travel in a first direction (d1). In the second state, the pixels (px) cause the electromagnetic waves incident on the action surface (as) to travel in a second direction (d2). The first detector (19) detects the electromagnetic waves that travel in the first direction (d1). The second detector (20) detects the electromagnetic waves that travel in the second direction (d2).