Abstract: A rotary actuator is used in a shift-by-wire system for a vehicle. The actuator includes a motor, a case, a controller, a cover, and a cover fixing member. The case houses the motor. The controller is disposed in an opening of the case and controls the motor. The cover closes the opening of the case. The cover fixing member fixes the cover to the case. The cover fixing member fixes the cover to the case at a position outside of a board of the controller. The board is clamped between the cover and the case.

Abstract: A rotary actuator includes: an electric motor; a control unit, which is configured to control an operation of the electric motor; a case, which is made of resin and receives the electric motor; and a circuit-board fixture. The circuit-board fixture includes an insertion portion, which is embedded at an upper case segment of the case, and a fixation portion, which is made of metal and fixes a circuit board of the control unit.

Abstract: An object of the present invention is to provide a novel food material effective for recovering from fatigue and/or preventing fatigue accumulation. The present invention provides a composition for use in recovering from fatigue and/or preventing fatigue accumulation, comprising a Lactococcus bacterium as an active ingredient.

Abstract: An object of the present invention is to provide a novel food material effective for recovering from fatigue and/or preventing fatigue accumulation. The present invention provides a composition for use in recovering from fatigue and/or preventing fatigue accumulation, comprising a Lactococcus bacterium as an active ingredient.

Abstract: This motor includes a two-layer rotor, a two-layer stator and a control unit. An A-phase rotor includes a pair of rotor cores and a field magnet. A B-phase rotor includes a pair of rotor cores and a field magnet. An A-phase stator includes a pair of stator cores and an A-phase winding. A B-phase stator includes a pair of stator cores and a B-phase winding. The control unit controls an A-phase input voltage applied to the A-phase winding, and a B-phase input voltage applied to the B-phase winding. The relative arrangement angle of the A-phase stator and the A-phase rotor relative to the B-phase stator and the B-phase rotor is set to an electrical angle of 90 degrees. The control unit applies a leading phase angle to the basic voltage waveforms of the A-phase input voltage and the B-phase input voltage, to set the energization width to at most 180 degrees.

Abstract: A rotary actuator is used in a shift-by-wire system for a vehicle. The actuator includes a motor, a case, a controller, a cover, and a cover fixing member. The case houses the motor. The controller is disposed in an opening of the case and controls the motor. The cover closes the opening of the case. The cover fixing member fixes the cover to the case. The cover fixing member fixes the cover to the case at a position outside of a board of the controller. The board is clamped between the cover and the case.

Abstract: A rotary actuator includes: an electric motor; a control unit, which is configured to control an operation of the electric motor; a case, which is made of resin and receives the electric motor; and a circuit-board fixture. The circuit-board fixture includes an insertion portion, which is embedded at an upper case segment of the case, and a fixation portion, which is made of metal and fixes a circuit board of the control unit.

Abstract: A rotary actuator is used in a shift-by-wire system for a vehicle. The rotary actuator includes a stator, a rotor, a rotor support member, a controller, a controller fixing member, and a vibration absorber. The rotor is configured to be rotatable relative to the stator. The rotor support member rotatably supports a rotary shaft of the rotor. The controller controls energization to the stator. The controller is fixed to the controller fixing member. The vibration absorber prevents vibration transfer between the rotor support member and the controller fixing member.

Abstract: A motor control device controls a two-phase motor. The two-phase motor obtains a combined torque, which serves as an output torque. The A-phase and B-phase motor portions being joined having a phase difference in terms of structure. The motor control device sets each of A-phase and B-phase drive currents supplied to the A-phase and B-phase motor portions to control the two-phase motor. The motor control device includes a fundamental wave setting unit that sets a sinusoidal fundamental wave current of the A-phase and B-phase drive currents, and a superimposing wave setting unit that sets a high-order harmonic current superimposed on the fundamental wave current. The superimposing wave setting unit sets the high-order harmonic current of at least one of “4n+1”th-order and “4n?1”th-order to reduce a component of “4n”th-order in torque pulsation of the combined torque, and “n” is a natural number.

Abstract: A motor comprises an A-phase stator unit, a B-phase stator unit, and a rotor. The phase stator unit and the B-phase stator unit respectively contain a coil unit and a pair of stator cores, each pair of stator cores having a plurality of claw-shaped magnetic poles. The rotor comprises at least two permanent magnets facing the claw-shaped magnetic poles of the A-phase stator unit and the claw-shaped magnetic poles of the B-phase stator unit, respectively. The A-phase stator unit and the B-phase stator unit are provided side by side in the axial direction, displaced from one another by a prescribed electrical angle. The two permanent magnets are arranged side by side in the axial direction, displaced from one another by a prescribed electrical angle. The direction of displacement between the A-phase stator unit and the B-phase stator unit is the opposite of the direction of displacement between the two permanent magnets.

Abstract: This motor includes a two-layer rotor, a two-layer stator and a control unit. An A-phase rotor includes a pair of rotor cores and a field magnet. A B-phase rotor includes a pair of rotor cores and a field magnet. An A-phase stator includes a pair of stator cores and an A-phase winding. A B-phase stator includes a pair of stator cores and a B-phase winding. The control unit controls an A-phase input voltage applied to the A-phase winding, and a B-phase input voltage applied to the B-phase winding. The relative arrangement angle of the A-phase stator and the A-phase rotor relative to the B-phase stator and the B-phase rotor is set to an electrical angle of 90 degrees. The control unit applies a leading phase angle to the basic voltage waveforms of the A-phase input voltage and the B-phase input voltage, to set the energization width to at most 180 degrees.

Abstract: In an imaging apparatus, an imaging element picks up an object image focused thereon through an image pickup lens. An angle-rate sensor detects a shake amount of the imaging apparatus. An optical shake-compensation unit is prepared to move the image pickup lens based on the shake amount detected by the angle-rate sensor to compensate for a shake of the object image. A base plate shake-compensation unit is prepared to move the imaging element based on the shake amount detected by the angle-rate sensor to compensate for a shake of the object image and a control unit selectively controls operation of the optical shake-compensation unit and operation of the base plate shake-compensation unit, thereby compensating for a shake of the object image focused on the imaging element.

Abstract: An imaging apparatus can appropriately compensate for hand shake with less power consumption.

Abstract: An antibacterial member is constituted such that a propolis component is contained in, or adhered to, a water-insoluble base member. This antibacterial member is mixed into a filter member to be disposed in a flow passage in an antibacterial filter. Water in the antibacterial filter receives the antibacterial action from the propolis component when coming in contact with the antibacterial member. Thus, microorganisms in water is extinguished, and generation and propagation of germs, bacteria, algae and the like are suppressed.

Abstract: An antibacterial member is constituted such that a propolis component is contained in, or adhered to, a water-insoluble base member. This antibacterial member is mixed into a filter member to be disposed in a flow passage in an antibacterial filter. Water in the antibacterial filter receives the antibacterial action from the propolis component when coming in contact with the antibacterial member. Thus, microorganisms in water is extinguished, and generation and propagation of germs, bacteria, algae and the like are suppressed.