Abstract: A solid-state battery is provided that allows the exterior can to be sufficiently crimped onto the seal can without leading to improper crimping, thus preventing entry of water from the outside. The solid-state battery 1 includes an exterior can 2, a seal can 3, facing the exterior can 2 and a power generation element 4 contained in the space between the exterior can 2 and seal can 3. The seal can 3 includes a flat portion 31 and a peripheral wall 32 that are contiguous to each other with a curved-surface portion 33 provided therebetween. A first clearance g1 is defined between the upper edge of the outer peripheral surface of the power generation element 4 and the border 10 between the inner surface of the flat portion 31 and the inner surface of the curved-surface portion 33, the first clearance having a radial dimension not larger than 2.0 mm at a position where its dimension is at its largest.

Abstract: A non-transitory storage medium storing a computer-readable diagnostic program that causes a computer to execute outputting that is outputting a first inference result from third ultrasonic image data before processing including coordinate transformation based on a reception signal for image generation received by an ultrasonic probe by using a learning model. The learning model is machine-learned using learning data formed with a pair of: first ultrasonic image data based on a reception signal for image generation received by an ultrasonic probe; and second correct answer data obtained by performing inverse transformation of coordinate transformation on first correct answer data for second ultrasonic image data obtained by performing processing including coordinate transformation on the first ultrasonic image data.

Abstract: An ultrasonic diagnostic apparatus includes: a transceiver that transmits and receives an ultrasonic wave to obtain a reception signal related to an ultrasonic echo; a detector that detects the reception signal and generates a Doppler signal; a filtering part that performs filter processing of cutting or suppressing a low-frequency component included in the Doppler signal and generates a first filtered Doppler signal and a second filtered Doppler signal from the Doppler signal; an analyzer that performs frequency analysis on the first filtered Doppler signal to generate an image signal; and a generator that generates a sound signal based on the second filtered Doppler signal.

Abstract: An ultrasound diagnostic apparatus includes: a hardware processor that search for a blood vessel position of a subject in a tomographic image and automatically setting a region corresponding to the blood vessel position detected in the tomographic image as a measurement region for generating a Doppler image. In a case where a measurement region has been already set or in a case where a specified position specified by a user exists when the hardware processor automatically sets the measurement region, the hardware processor executes processing of searching for the blood vessel position such that the measurement region is automatically set near the measurement region that has been already set or the specified position.

Abstract: An ultrasound diagnostic device including a transmitter, a first image processor, a second image processor, and an image synthesizer. The transmitter alternates between first transmission events that include transmission of first detection waves and second transmission events that include transmission of second detection waves. The first image processor generates frames of first images based on reception signals corresponding to a plurality of the first transmission events. The second image processor generates frames of second images based on reception signals corresponding to the second transmission events. The image synthesizer superimposes the second images on the first images to generate synthesized images. Frame rate of the second images is higher than that of the first images.

Abstract: An onboard device includes a first learning unit that obtains gravity direction information caused by gravity by learning raw sensor information sensed by a sensor while the vehicle is not accelerated, a second learning unit that obtains travel direction information of the vehicle by learning the raw sensor information sensed by the sensor while the vehicle is accelerated; and a calculating unit that calculates an orientation conversion parameter for converting the raw information into the normalized information using the gravity direction information and the travel direction information. The raw sensor information is the acceleration information actually sensed by the sensor when the onboard device is installed in an arbitrary orientation in the vehicle, and the normalized sensor information is equivalent to the acceleration information that would be sensed by the sensor when the onboard device is installed in the vehicle with a specified orientation.

Abstract: An ultrasound diagnostic apparatus according to the present disclosure includes a hardware processor that detects a region of a blood vessel appearing in a tomographic image; calculates a diameter of the blood vessel by analyzing the tomographic image; specifies, based on the diameter of the blood vessel calculated in each of a plurality of frames obtained within a predetermined period of the tomographic image, a frame of interest from among the plurality of frames, the frame of interest corresponding to a frame obtained when the diameter of the blood vessel is maximum and/or minimum; performs measurement on the blood vessel appearing in the frame of interest of the tomographic image, the measurement being measurement of a blood flow of a subject or a property of the blood vessel of the subject; and displays the frame of interest of the tomographic image at a predetermined timing.

Abstract: An ultrasound diagnostic apparatus includes: a transmitter; a receiver; a Doppler processor that detects a Doppler shift frequency resulting from a blood flow in a subject, based on a reception signal corresponding to a reflected wave from a sample gate position in the subject; and a velocity scale adjuster that adjusts a velocity scale determining a pulse repetition frequency, based on a Doppler waveform corresponding to the Doppler shift frequency during an observation target period. In a case where a recommendation value of the velocity scale calculated based on the Doppler waveform is larger than a critical value of the velocity scale at which a measurement state calculated based on the sample gate position transitions from a non-high-pulse-repetition-frequency state to a high-pulse-repetition-frequency state, the velocity scale adjuster sets the critical value as the velocity scale to be used in measurement.

Abstract: An ultrasound diagnostic device generates a frame reception signal by compounding sub-frame reception signals acquired from a subject body through an ultrasound probe. The sub-frame reception signals are generated through sub-scans composing an ultrasound scan. Between the sub-scans, a range in the scanned subject body differs due to a different ultrasound beam steering angle used. The diagnostic device includes a control circuit with a reception signal acquirer acquiring sub-frame reception signals, and a map creator creating sub-frame enhancement maps corresponding to the sub-frame reception signals, the maps created by calculating, for a pixel region reception signal, an enhancement amount according to a characteristic value calculated based on the pixel region reception signal.

Abstract: The present invention provides a technique to accurately recognize a position of a vehicle even in a vicinity of a branch road or a junction road, neither of which is included in map data. The present invention provides a vehicle control device. When a vehicle is traveling on a road that is not described in map data, the vehicle control device is configured to determine whether or not the vehicle is traveling on a junction road or a branch road, based on a positional relationship between a position of the vehicle and a starting point of the junction road or a starting point of the branch road.

Abstract: An ultrasound diagnostic apparatus transmits ultrasound toward a subject by driving an ultrasound probe in which multiple transducers are arranged in an array, receives a reception signal that is based on waves reflected within the subject from the ultrasound probe, and generates an ultrasound image. The ultrasound diagnostic apparatus includes: a scan control section that sets scan conditions so that trapezoidal scanning is performed by the ultrasound probe; and a transmission section that controls driving of the ultrasound probe based on the scan conditions. The scan control section sets the scan conditions so that the inter-acoustic line angles in or around the center of the ultrasound probe are smaller than the inter-acoustic line angles near the edges when viewed along the scan direction.

Abstract: A medical information management apparatus includes a hardware processor that: generates first medical information that does not include subject identification information that uniquely identifies a subject on a basis of medical image information regarding the subject; generates second medical information that includes the subject identification information on a basis of the medical image information; and causes the first medical information that has been generated to be stored in a first medical information storage part.

Abstract: An ultrasound diagnostic apparatus includes an ultrasound probe including a plurality of transducers arranged in a plurality columns and a switching element which switches input of a driving signal to the transducers and output of a receiving signal, a transmitter which outputs the driving signal to the transducers, a receiver which acquires the receiving signal corresponding to the transducers, and a hardware processor which generates ultrasound image data corresponding to each of the columns from the receiving signal, makes partial images in the ultrasound image data respectively have representations, synthesizes the ultrasound image data respectively including the partial images to generate composite image data, generates first identification information indicating to which position in a depth direction of the composite image data each of the representations of the partial images in the composite image data corresponds, and displays the generated first identification information and composite image data on

Abstract: Provided is an ultrasound diagnostic apparatus for generating a tomographic image of a subject by transmitting and receiving an ultrasound, the ultrasound diagnostic apparatus including: a hardware processor that: detects a blood vessel imaged in the tomographic image; determines whether an image of the blood vessel which has been detected falls under either a short axis view or a long axis view by an image analysis of the tomographic image; and sets a steering angle of an ultrasound beam used in measuring conditions of the detected blood vessel or a blood flow velocity in the detected blood vessel, based on a determination result of the image of the blood vessel.

Abstract: An ultrasonic diagnostic apparatus, including a transceiver for sequentially generating multiple received signals, a color flow mapping signal processing unit that generates blood flow velocity data based on the multiple received signals, and a residual image processing unit that includes an aliasing determination unit and a persistence calculation unit and performs residual image processing on blood flow velocity data, an aliasing determination unit that adds the blood flow velocity data Vcurrent for the most recent frame and the blood flow velocity data Vout-1 for the frame preceding the most recent frame, performs aliasing determination on the frame that was determined by a frame before the most recent frame based on the aliasing determination results of the blood flow velocity data, and a persistence calculation unit that performs a persistence calculation after performing a correction to the blood flow velocity data in which aliasing has occurred.

Abstract: An ultrasound diagnostic device including a transmitter, a first image processor, a second image processor, and an image synthesizer. The transmitter alternates between first transmission events that include transmission of first detection waves and second transmission events that include transmission of second detection waves. The first image processor generates frames of first images based on reception signals corresponding to a plurality of the first transmission events. The second image processor generates frames of second images based on reception signals corresponding to the second transmission events. The image synthesizer superimposes the second images on the first images to generate synthesized images. Frame rate of the second images is higher than that of the first images.

Abstract: A problem of the present invention is to provide a road specifying device which estimates an appropriate own vehicle position even when autonomous driving maps are not prepared for all roads in a driving assisting function which can automate and assist part or all of a driving operation of a passenger, and correctly perform traveling control of the autonomous driving. The road specifying device according to the present invention specifies a road on which an own vehicle is traveling based on autonomous driving map data including road data, navigation map data including data which is the road data and whose contents partially overlaps that of the autonomous driving map data, and position information of the own vehicle whose position is measured by an external positioning system.

Abstract: An ultrasonic diagnostic apparatus includes an ultrasonic image generator that generates ultrasonic image data of a moving image based on a reception signal received from an ultrasonic probe. The ultrasonic probe transmits and receives an ultrasonic wave to and from a subject. The ultrasonic diagnostic apparatus further includes a camera image generator that takes an image of an imaging target and generates camera image data of a moving image. The ultrasonic diagnostic apparatus further includes a hardware processor that performs, in response to operation input related to ultrasonic diagnosis, processing related to the camera image data.

Abstract: First transmission information in which an optimum transmitting voltage and a transmitting waveform are associated with each other for each display mode, and second transmission information in which a plurality of transmitting voltage candidates and pulse-width modulation transmitting waveforms that are pulse-width-modulation controlled to respectively correspond to the plurality of transmitting voltage candidates are associated with each other for each display mode are used to extract a maximum transmitting voltage candidate that does not exceed an optimum transmitting voltage of a first display mode from a plurality of transmitting voltage candidates included in the second transmission information of a second display mode so as to determine a common transmitting voltage used in common for the first display mode and the second display mode based on the optimum transmitting voltage of the first display mode and/or the maximum transmitting voltage candidate.

Abstract: An ultrasound diagnostic apparatus includes: a hardware processor that search for a blood vessel position of a subject in a tomographic image and automatically setting a region corresponding to the blood vessel position detected in the tomographic image as a measurement region for generating a Doppler image. In a case where a measurement region has been already set or in a case where a specified position specified by a user exists when the hardware processor automatically sets the measurement region, the hardware processor executes processing of searching for the blood vessel position such that the measurement region is automatically set near the measurement region that has been already set or the specified position.