Abstract: Motor control device controls motor that moves load to a target position. Motor control device includes prediction part, correction command generator, corrector, and controller. Prediction part acquires one or more target position deviations and a target settling time, and calculates a predicted target position deviation indicating a difference between a position of load and the target position at the target settling time based on the one or more target position deviations and the target settling time. When the predicted target position deviation indicates that load does not reach within a predetermined range from the target position, correction command generator generates a correction command for correcting a position command based on the predicted target position deviation. Corrector acquires the position command, corrects the position command based on the correction command, and generates a corrected position command Controller controls motor based on the corrected position command and a position of motor.

Abstract: A probe-side processor generates image information data on the basis of a sound ray signal generated, and the image information data generated by the probe-side processor is stored in a probe-side cine-memory. In a case where a freeze mode is designated, the past image information data stored in the probe-side cine-memory is wirelessly transmitted from the probe-side wireless communication circuit, and a terminal-side processor displays an ultrasound image on a monitor on the basis of the past image information data received by a terminal-side wireless communication circuit.

Abstract: A constitutive device quality determination server is communicably connected to an inspection device via the internet, the inspection device performing an inspection on a constitutive device configuring a board work machine by operating the constitutive device in accordance with to a type of the inspection, and includes an inspection data acquisition section that designates a predetermined type of the inspection for the inspection device and acquires inspection data obtained by the inspection by the inspection device, a determination section that determines quality of the constitutive device based on the acquired inspection data, and a transmission section that transmits a quality determination result determined by the determination section to a terminal device communicably connected over the internet.

Abstract: Motor control system includes controller, motor control device, and position detection device. In controller, an operation command plan for a movement plan during a period until moving part reaches a target position from an initial position is set. Controller outputs, as an operation command, a movement amount of the moving part at a current point in time based on the operation command plan. Motor control device generates a drive signal for drive device based on an operation command Position detection device detects a position of moving part, and outputs a first position. Motor control device generates a deviation amount of moving part from the target position based on a future movement distance of moving part based on a future operation command, the first position, and the target position. Motor control device outputs a notification signal in a case where the deviation amount is more than or equal to a threshold.

Abstract: There is provided an ultrasound diagnostic apparatus including: an ultrasound probe including a transducer array; and an apparatus main body wirelessly connected to the ultrasound probe and including a monitor, in which the ultrasound probe includes: a B-mode processing unit and an M-mode processing unit configured to generate a B-mode image and an M-mode image, respectively, based on reception signals acquired by performing ultrasound scanning using the transducer array; a wireless communication circuit configured to wirelessly transmit the B-mode image and the M-mode image to the apparatus main body; and a probe control unit configured to control the wireless communication circuit such that, each time generation of a certain number of lines of B-mode images, which is less than the number of scanning lines in a single frame of the B-mode image, is completed, wireless transmission of the certain number of lines of B-mode images generated by the B-mode processing unit and wireless transmission of the M-mode im

Abstract: Systems and methods to provide an ultrasound scanner that supports handset wireless network connectivity are described. An ultrasound scanner includes a transducer system that generates, as part of an ultrasound examination, ultrasound data based on reflections of ultrasound signals transmitted by the transducer system. The ultrasound scanner includes a first transceiver that communicates, over a first communication link, the ultrasound data to a display device that displays an ultrasound image based on the ultrasound data. The ultrasound scanner includes one or more additional transceivers that communicate, over a one or more additional communication links and simultaneously with the first transceiver communicating the ultrasound data over the first communication link, the ultrasound data through an access point of a care facility administering the ultrasound examination.

Abstract: There is provided an ultrasound diagnostic apparatus including: an apparatus main body; and an ultrasound probe that is used by switching between a wireless connection mode and a wired connection mode with respect to the apparatus main body, in which the apparatus main body includes an external power supply circuit, and the ultrasound probe includes: a transducer array; a transmission circuit configured to transmit an ultrasound wave toward a subject under examination by supplying a transmission voltage to the transducer array; a reception circuit configured to receive an ultrasound echo from the subject under examination and acquire a reception signal; a built-in battery; an in-probe power supply circuit configured to generate the transmission voltage using an output voltage of the built-in battery; and a probe control unit configured to supply the transmission voltage from the in-probe power supply circuit to the transmission circuit in a case where the apparatus main body is connected to the ultrasound pro

Abstract: There are provided an ultrasound diagnostic apparatus and a control method for an ultrasound diagnostic apparatus capable of activating an ultrasound probe only by an operation of an apparatus main body and achieving power saving. The ultrasound probe includes an ultrasound unit that acquires ultrasound image data, a probe-side first communication circuit and a probe-side second communication circuit each of which performs wireless communication with the apparatus main body and which have transmission capacities different from each other and power consumptions different from each other, and a power supply controller that selects one communication circuit among the probe-side first communication circuit and the probe-side second communication circuit according to a power supply mode of the ultrasound probe and performs wireless communication with the apparatus main body by using the selected communication circuit.

Abstract: An ultrasound probe includes a housing; a transducer array housed in the housing; a transmission/reception unit which is housed in the housing, transmits ultrasonic wave from the transducer array, and generates a sound ray signal on the basis of a reception signal acquired by the transducer array; an image information data generation unit which is housed in the housing, and generates image information data on the basis of the sound ray signal generated by the transmission/reception unit; a wireless communication unit which is housed in the housing, and wirelessly transmits the image information data generated by the image information data generation unit; a light emission unit which is housed in the housing, and emits light to an outside of the housing; and a light emission control unit which is housed in the housing, and causes the light emission unit to emit light in synchronization with a transmission timing of the ultrasonic wave by the transmission/reception unit in a case of a manufacturing inspection.

Abstract: A wiring member includes: a wiring body including a base member and a normal wire fused to the base member; and a special wire fixed to the wiring body via a fixing part. The fixing part is fixed in a fixing state different from fusion between the base member and the special wire.

Abstract: A damping force adjustable shock absorber in2cludes an electromagnetic damping force adjustment device (17) having a damping force adjustment valve (18), and a solenoid (33) configured to variably adjust the damping force. The solenoid includes a coil (39) configured to generate a magnetic force by power supply, a movable iron core (43) located on an inner peripheral side of the coil, an anchor member (40) configured to attract the movable iron core. The movable iron core includes a thick cylindrical portion (43A) and a taper cylindrical portion (43B). The thick cylindrical portion includes a fixation hole (43A1) in which a shaft portion (44) is fixed. The taper cylindrical portion has an inner peripheral surface flaring so as to define a taper shape. A recessed portion (43A2) is formed around the fixation hole. The recessed portion allows hydraulic fluid to flow in an axial direction of the movable iron core.

Abstract: Provided is an ultrasonic vibration processing device which can suppress vibration of components due to an ultrasonic vibrator and can perform processing using ultrasonic vibration in a preferable manner; the ultrasonic vibration processing device includes: a housing (10); an ultrasonic vibrator (20) including a horn portion (21A) to which a tool holder (70) is detachably attached and a piezoelectric element (23), the ultrasonic vibrator having a rear end located at a node of ultrasonic vibration and being supported inside the housing (10) so as to be rotatable; a connecting portion (30) stored in the housing (10) so as to be rotatable together with the ultrasonic vibrator (20); a motor (40) connected to the connecting portion (30); and a non-contact power supply unit (50) including a primary transformer (51) and a secondary transformer (52), the primary transformer (51) being fixed to the housing (10) and including a primary coil (51B) that receives high frequency power from an external power supply, the sec

Abstract: A probe-side processor generates image information data on the basis of a sound ray signal generated, and the image information data generated by the probe-side processor is stored in a probe-side cine-memory. In a case where a freeze mode is designated, the past image information data stored in the probe-side cine-memory is wirelessly transmitted from the probe-side wireless communication circuit, and a terminal-side processor displays an ultrasound image on a monitor on the basis of the past image information data received by a terminal-side wireless communication circuit.

Abstract: A damping force adjustable shock absorber in2cludes an electromagnetic damping force adjustment device (17) having a damping force adjustment valve (18), and a solenoid (33) configured to variably adjust the damping force. The solenoid includes a coil (39) configured to generate a magnetic force by power supply, a movable iron core (43) located on an inner peripheral side of the coil, an anchor member (40) configured to attract the movable iron core. The movable iron core includes a thick cylindrical portion (43A) and a taper cylindrical portion (43B). The thick cylindrical portion includes a fixation hole (43A1) in which a shaft portion (44) is fixed. The taper cylindrical portion has an inner peripheral surface flaring so as to define a taper shape. A recessed portion (43A2) is formed around the fixation hole. The recessed portion allows hydraulic fluid to flow in an axial direction of the movable iron core.

Abstract: A damping force adjustable shock absorber includes an electromagnetic damping force adjustment device (17) having a damping force adjustment valve (18), and a solenoid (33) configured to variably adjust the damping force. The solenoid includes a coil (39) configured to generate a magnetic force by power supply, a movable iron core (43) located on an inner peripheral side of the coil, an anchor member (40) configured to attract the movable iron core. The movable iron core includes a thick cylindrical portion (43A) and a taper cylindrical portion (43B). The thick cylindrical portion includes a fixation hole (43A1) in which a shaft portion (44) is fixed. The taper cylindrical portion has an inner peripheral surface flaring so as to define a taper shape. A recessed portion (43A2) is formed around the fixation hole. The recessed portion allows hydraulic fluid to flow in an axial direction of the movable iron core.

Abstract: A laser light source transmits laser light to a tip of an interventional instrument such as a needle via an optical fiber. The laser light is absorbed at the distal tip of the instrument and generates a photoacoustic signal. The laser light source is configured to receive a trigger signal from an ultrasound machine when a laser pulse is to be produced. The light source signals the ultrasound machine when an optical connector is connected to the laser light source to automatically begin a needle tip (NTV) visualization mode. If the optical connector is removed from the laser light source, the laser light source stops producing laser light pulses.

Abstract: A constitutive device quality determination server is communicably connected to an inspection device via the internet, the inspection device performing an inspection on a constitutive device configuring a board work machine by operating the constitutive device in accordance with to a type of the inspection, and includes an inspection data acquisition section that designates a predetermined type of the inspection for the inspection device and acquires inspection data obtained by the inspection by the inspection device, a determination section that determines quality of the constitutive device based on the acquired inspection data, and a transmission section that transmits a quality determination result determined by the determination section to a terminal device communicably connected over the internet.

Abstract: An ultrasound probe includes a housing; a transducer array housed in the housing; a transmission/reception unit which is housed in the housing, transmits ultrasonic wave from the transducer array, and generates a sound ray signal on the basis of a reception signal acquired by the transducer array; an image information data generation unit which is housed in the housing, and generates image information data on the basis of the sound ray signal generated by the transmission/reception unit; a wireless communication unit which is housed in the housing, and wirelessly transmits the image information data generated by the image information data generation unit; a light emission unit which is housed in the housing, and emits light to an outside of the housing; and a light emission control unit which is housed in the housing, and causes the light emission unit to emit light in synchronization with a transmission timing of the ultrasonic wave by the transmission/reception unit in a case of a manufacturing inspection.

Abstract: An object of the present disclosure is to continue optical image stabilization even in the case where a correcting lens is positioned near a mechanical end. An optical image stabilization module used to control a camera module adjusts the position of a correcting lens and the like used for optical image stabilization while executing the optical image stabilization during an exposure period. An image distortion accompanying the position adjustment of the correcting lens can be corrected by, for example, an electronic image stabilization module.

Abstract: An object of the present invention is to provide a method of producing a peptide containing a charged non-proteinogenic amino acid in a cell-free translation system, and the like. The present invention provides a method of producing a peptide containing a charged non-proteinogenic amino acid. It includes a step of expressing a peptide in a cell-free translation system including (i) at least one tRNA to which a non-proteinogenic amino acid having a protecting-group-introduced charged group has been bound and (ii) a nucleic acid that encodes the peptide and contains at least one codon corresponding to an anticodon of the tRNA; and a step of removing the protecting group of the non-proteinogenic amino acid residue contained in the peptide.