Abstract: The preset invention is to mold a laminate at a high accuracy by appropriately generating slippage between fiber sheets of the laminate at bending. A method for molding a laminate includes a step in which a plurality of gripping parts, which are arranged apart from each other, grip an area, wherein slippage between fiber sheets is prevented, in a plate-shaped laminate including a plurality of fiber sheets laminated each other; a step in which the plurality of gripping parts grip the area wherein slippage between the fiber sheets is prevented, while maintaining the state wherein relative moving of the area of the laminate and the gripping parts is prevented; and a step in which the gripping parts move so as to subject the laminate to bending.

Abstract: A detecting unit generates detection signals corresponding to a plurality of ranges aligned in one direction along a moving direction of a detection body, based on a change in the magnetic field constantly received by a detecting element from the detection body. A signal processing unit acquires a detection signal from the detecting unit, compares the detection signal with a threshold value, and identifies a position of the detection body as a position of any one of a plurality of ranges based on a combination of a magnitude relationship between the detection signal and the threshold value. A detection body has a plurality of region portions corresponding to a plurality of ranges. The plurality of region portions are configured to be connected stepwise in the moving direction of the detection body within a plane of a detection surface facing the detecting unit of the detection body.

Abstract: A shift range control device switches a shift range by controlling driving of a motor. A learning unit learns, as a position correction value, a normal state time correction value calculated based on first and/or second reference angles when an output shaft signal is available when turning on of a start switch. The first reference angle is a motor angle when the output shaft signal changes in response to the rotation of the motor in a first direction. The second reference angle is the motor angle when the output shaft signal changes in response to the motor rotation in a second direction opposite to the first direction. A motor angle target value is set by using the normal state time correction value stored during a period from when all the output shaft signals are determined to be unavailable to when the start switch is turned off.

Abstract: A shift range control apparatus controls a shift range switching system that switches shift ranges by controlling driving of a motor. This control apparatus calculates a motor angle based on a motor rotation angle signal, acquires an output shaft signal based on a rotation position of an output shaft from an output shaft sensor, sets a target rotation angle based on a target shift range and the output shaft signal, and controls driving of the motor such that the motor angle becomes the target rotation angle. The control apparatus sets the target rotation angle to a target limit value, in response to the target rotation angle that is set based on the output shaft signal being a value at which rotation occurs that is further toward a back side in a rotation direction than the target limit value that is set based on shift ranges before and after switching.

Abstract: A shift range control device includes a signal receiver, an abnormality monitor, and a drive controller. The signal receiver acquires an encoder signal from an encoder capable of outputting three or more phase encoder signals having different phases. The abnormality monitor monitors an abnormality of the encoder. The drive controller controls drive of a motor by switching an energized phase of a motor winding so that a rotation position of the motor becomes a target rotation position according to a target shift range. When the abnormality of the encoder is detected, the driver controller drives the motor by faulty phase identification control to identify a faulty phase that is a phase in which an abnormality of the encoder signal occurs, and a normal phase in which the encoder signal is normal.

Abstract: To provide such a shift apparatus that, at the time of electrically applying a reaction force to a rotation operation of the shift apparatus, a driver is not disabled to perform intended range switching when the application of the reaction force continues. If reaction force application means continues application of a reaction force for a predetermined time or more, reaction force application control means suppresses the application of the reaction force by the reaction force application means. When the reaction force application means has trouble, the driver may want to intentionally switch a range. In this case, the driver's intention to perform an operation is hindered. However, if application of a reaction force is suppressed when the application of the reaction force is continued for a predetermine time, it is possible to avoid the operation by the driver from being hindered.

Abstract: A shift range control apparatus controls switching of a shift range by controlling driving of a motor, and includes a signal acquisition unit and a drive control unit. The signal acquisition unit acquires rotation angle signals output from a rotation angle sensor. The rotation angle signals respectively represents three or more phases different from each other. The drive control unit controls the driving of the motor to cause a rotational position of the motor to reach a target rotational position corresponding to a target shift range. The drive control unit changes from an energization pattern in a normal state to an energization pattern and continues the driving of the motor, in response to detecting a fault of the rotation angle signal during the switching of the shift range.

Abstract: A shift range control device includes a signal receiver, an abnormality monitor, and a drive controller. The signal receiver acquires an encoder signal from an encoder capable of outputting three or more phase encoder signals having different phases. The abnormality monitor monitors an abnormality of the encoder. The drive controller controls drive of a motor by switching an energized phase of a motor winding so that a rotation position of the motor becomes a target rotation position according to a target shift range. When the abnormality of the encoder is detected, the driver controller drives the motor by faulty phase identification control to identify a faulty phase that is a phase in which an abnormality of the encoder signal occurs, and a normal phase in which the encoder signal is normal.

Abstract: A shift range control apparatus controls a shift range switching system that switches shift ranges by controlling driving of a motor. This control apparatus calculates a motor angle based on a motor rotation angle signal, acquires an output shaft signal based on a rotation position of an output shaft from an output shaft sensor, sets a target rotation angle based on a target shift range and the output shaft signal, and controls driving of the motor such that the motor angle becomes the target rotation angle. The control apparatus sets the target rotation angle to a target limit value, in response to the target rotation angle that is set based on the output shaft signal being a value at which rotation occurs that is further toward a back side in a rotation direction than the target limit value that is set based on shift ranges before and after switching.

Abstract: A shift range control apparatus controls switching of a shift range by controlling driving of a motor, and includes a signal acquisition unit and a drive control unit. The signal acquisition unit acquires rotation angle signals output from a rotation angle sensor. The rotation angle signals respectively represents three or more phases different from each other. The drive control unit controls the driving of the motor to cause a rotational position of the motor to reach a target rotational position corresponding to a target shift range. The drive control unit changes from an energization pattern in a normal state to an energization pattern and continues the driving of the motor, in response to detecting a fault of the rotation angle signal during the switching of the shift range.

Abstract: According to one embodiment, a pattern forming method is disclosed. The method includes preparing a processed body including a substrate having a first face, a first layer provided on the first face, a second layer provided on the first layer, and a photosensitive lyophilic/lyophobic original material provided on the second layer. The method includes performing a first process of irradiating light onto one of a first portion at a first position of the material and a second portion at a second position of the material, and making a first contact angle of a liquid with a first region of an upper face of the processed body relatively larger than a second contact angle of the liquid with a second region of the upper face. The method includes performing a first pattern forming process of forming a first pattern by bringing the liquid into contact with the second region.

Abstract: In a transfer method for transferring a substrate in an inspection system configured to perform a test on electrical characteristics of the substrate, the inspection system including an inspection unit including a plurality of test devices configured to perform the test on the electrical characteristics of a substrate, a loader unit configured to mount a cassette which accommodates a plurality of substrates, and a transfer device configured to transfer a substrate between the inspection unit and the loader unit, an inspected substrate is received by the transfer device from the inspection unit. The inspected substrate received from the inspection unit is transferred toward the loader unit in a state where an opening portion of a transfer arm container of the transfer device. Then, the inspected substrate is delivered to the loader unit.

Abstract: A vehicle including a housing supported on a framework member of the vehicle via a supporting member, a liquid medium supply unit fixed to the housing and driven by a motor to supply a liquid medium to a cooled or lubricated portion, and a first atmosphere communicating mechanism that establishes a communication between an inside of a motor portion of the liquid medium supply unit and atmosphere, the first atmosphere communicating mechanism including a volumetric member that is disposed apart from the liquid medium supply unit in a position higher than the liquid medium supply unit, that has a predetermined volumetric space, and that is fixed to the housing.

Abstract: According to one embodiment, a method of forming a pattern includes preparing a substrate having a liquid-repellent face and a lyophilic pattern which are located adjacent to each other on a surface of the substrate, the lyophilic pattern having a surface energy different from the liquid-repellent face, bringing ink into contact with the substrate, and applying the ink to the lyophilic pattern by moving a contacted ink surface. The lyophilic pattern includes a linear main lyophilic pattern and an auxiliary lyophilic pattern connected to the lyophilic pattern. A liquid-repellent region is defined in the liquid-repellent face between the main lyophilic pattern and the auxiliary lyophilic pattern.

Abstract: According to one embodiment, a pattern forming method is disclosed. The method includes preparing a processed body including a substrate having a first face, a first layer provided on the first face, a second layer provided on the first layer, and a photosensitive lyophilic/lyophobic original material provided on the second layer. The method includes performing a first process of irradiating light onto one of a first portion at a first position of the material and a second portion at a second position of the material, and making a first contact angle of a liquid with a first region of an upper face of the processed body relatively larger than a second contact angle of the liquid with a second region of the upper face. The method includes performing a first pattern forming process of forming a first pattern by bringing the liquid into contact with the second region.

Abstract: A vehicle including a housing supported on a framework member of the vehicle via a supporting member, a liquid medium supply unit fixed to the housing and driven by a motor to supply a liquid medium to a cooled or lubricated portion, and a first atmosphere communicating mechanism that establishes a communication between an inside of a motor portion of the liquid medium supply unit and atmosphere, the first atmosphere communicating mechanism including a volumetric member that is disposed apart from the liquid medium supply unit in a position higher than the liquid medium supply unit, that has a predetermined volumetric space, and that is fixed to the housing.

Abstract: According to one embodiment, there is provided a manufacturing method of an electronic device including a lower electrode, a source electrode and a drain electrode made of a nanoparticulate conductive material on a substrate, an organic semiconductor layer between the source and drain electrodes, and a gate electrode on the organic semiconductor layer via a gate insulating layer. The manufacturing method includes forming a nonphotosensitive resin layer as the gate insulating layer on the organic semiconductor layer and on the lower electrode, forming a photosensitive resin layer as the gate insulating layer on the nonphotosensitive resin layer, and forming a through hole in the photosensitive resin layer on the lower electrode.

Abstract: According to one embodiment, a method of forming a pattern includes preparing a substrate having a liquid-repellent face and a lyophilic pattern which are located adjacent to each other a surface of the substrate, the lyophilic pattern having a surface energy different from the liquid-repellent face, bringing ink into contact with the substrate, and applying the ink to the lyophilic pattern by moving a contacted ink surface. The lyophilic pattern includes a linear main lyophilic pattern and an auxiliary lyophilic pattern connected to the lyophilic pattern. A liquid-repellent region is defined in the liquid-repellent face between the main lyophilic pattern and the auxiliary lyophilic pattern.

Abstract: In a transfer method for transferring a substrate in an inspection system configured to perform a test on electrical characteristics of the substrate, the inspection system including an inspection unit including a plurality of test devices configured to perform the test on the electrical characteristics of a substrate, a loader unit configured to mount a cassette which accommodates a plurality of substrates, and a transfer device configured to transfer a substrate between the inspection unit and the loader unit, an inspected substrate is received by the transfer device from the inspection unit. The inspected substrate received from the inspection unit is transferred toward the loader unit in a state where an opening portion of a transfer arm container of the transfer device. Then, the inspected substrate is delivered to the loader unit.

Abstract: A photoelectric conversion device including a substrate having opaque interconnection layers, an insulating film formed on the substrate, and having a plurality of openings, light-emitting elements formed of the openings, each light-emitting element having an upper electrode layer, and light-receiving elements formed of the openings, each light-receiving element having an upper electrode layer, wherein a semiconductor material is different in the light-emitting element and the light-receiving element, the upper electrode layer both of the light-emitting element and the light-receiving element are formed as common electrodes, and each interconnection layer is formed on a region outside a region specified by the opening.