An ultrasound diagnostic apparatus generates an ultrasound image based on an ultrasound signal acquired by an ultrasound probe having an ultrasound transducer. The ultrasound transducer transmits an ultrasound wave to an observation target and receives the ultrasound wave reflected from the observation target. The apparatus includes: an analysis unit configured to generate analysis data based on the ultrasound signal received from the observation target; and a correction unit configured to correct the analysis data using correction data based on first reference data and second reference data, the first reference data being obtained from an ultrasound signal received from a reference reflector by using the ultrasound transducer or another ultrasound transducer of a same type as that of the ultrasound transducer, the second reference data being obtained from the ultrasound signal received from the reference reflector by using still another ultrasound transducer of different type from that of the ultrasound transducer.

An ultrasonic diagnostic apparatus according to an embodiment comprises a data acquisition unit configured to execute ultrasonic scanning for a tissue region throughout a predetermined period and acquire a plurality of image data respectively corresponding to phases in the predetermined period; a positional information acquisition unit configured to acquire positional information of a region of interest in the tissue region at least one phase in the period by executing tracking processing using at least part of the plurality of image data; a shape information calculation unit configured to calculate shape information corresponding to the region of interest at least one phase in the period by using positional information of the region of interest at the at least one phase; and an output unit configured to output the shape information at the at least one phase.

An ultrasound control unit (10) is for coupling with an ultrasound transducer unit (12). The control unit is adapted to control a drive configuration or setting of the transducers of the transducer unit, each drive setting having a known power consumption level associated with it. The control unit includes a control module (20) adapted to adjust the drive setting from a first setting to a second setting, the second having a lower associated power consumption that the first. The second setting is tested by an analysis module (16), the analysis module adapted to determine a measure of reliability of ultrasound data acquired by the transducer unit, for the purpose of deriving at least one physiological parameter, when configured in the second setting. The second setting is only used if its determined reliability passes a pre-defined reliability condition.

The invention provides a method for generating a transvalvular pressure quantification within a cavity. The method includes acquiring a plurality of color Doppler ultrasound image frames, wherein the image frames comprise a view of a valve, one of which is then presented to a user. The user may then provide an input to indicate the location of the valve within the image frame. The location of the valve is then tracked within the remaining image frames based on the user input. A vector flow is estimated based on the color Doppler image frames and the tracked location of the valve, which may be used to estimate the flow across the valve(s) and in the cavity.

Ultrasound imaging devices, systems, and methods are provided. A guidance system for obtaining an ultrasound image, comprising a processor in communication with a camera and a display, the processor configured to obtain a first motion control configuration for repositioning an ultrasound imaging device from a first position towards a target image view of a subject's anatomy, the first motion control configuration determined based on a first predictive network; determine positional information associated with the ultrasound imaging device based on an image captured by the camera, the image including the subject's anatomy and the ultrasound imaging device positioned at the first position; and output, to the display, an instruction to reposition the ultrasound imaging device from the first position to a second position based on the first motion control configuration and the positional information associated with the ultrasound imaging device.

A method for extracting significant texture features of a B-ultrasonic image and application thereof discloses a channel attention mechanism network, i.e. a context activation residual network, which is designed to effectively model the B-ultrasonic liver fibrosis texture information, and which uses the global context information to strengthen important texture features and suppress useless texture features, such that the deep residual network can capture more significant texture information in the B-ultrasonic images. The process can be mainly divided into two phases: training and testing. During the training phase, the context activation residual network may he trained by using the B-ultrasonic image blocks as input and the pathological results of liver biopsy as labels. During the testing phase, the B-ultrasonic image blocks may be input into the trained non-invasive liver fibrosis diagnosis model to obtain the liver fibrosis staging result for each ultrasonic image.

An ultrasonic wave imaging apparatus is disclosed, including: an ultrasonic probe for irradiating a subject with an ultrasonic wave and receive a reflected wave of the ultrasonic wave and receiving an ultrasonic wave from a beacon inserted into the subject; a probe position-acquiring unit for acquiring a 3D position and an orientation of the ultrasonic probe; a beacon location-acquiring unit for determining a 3D location of the beacon from relative location and speed of the beacon relative to the ultrasonic probe as calculated from an ultrasonic wave image received at the ultrasonic probe and the 3D position and the orientation of the ultrasonic probe as acquired by the probe position-acquiring unit; and a display image formation section for using the ultrasonic wave image of the ultrasonic waves from the ultrasonic probe to form a display image. A corresponding method is also disclosed.

Methods and systems for ultrasonic imaging are provided. One method includes obtaining ultrasonic data about tissue to be imaged, generating an ultrasonic image based on the ultrasonic data, determining an anatomical region corresponding to the ultrasonic image, and generating a first visual indication reflecting the anatomical region corresponding to the ultrasonic image. The method further includes determining a quality level of the ultrasonic image, and generating a second visual indication reflecting the quality level of the ultrasonic image. The method also includes sending a first signal to a display device so that the display device simultaneously displays the ultrasonic image, the first visual indication, and the second visual indication.

Systems and methods described herein include receiving, by a processor, one or more data files from an ultrasound shear wave elastography apparatus configured to capture viscoelastic tissue properties in an area of a subject using ultrasound shear wave electrography, processing the one or more data files to compute viscoelastic tissue parameters related to the area of the subject, compiling the viscoelastic tissue parameters and one or more associated data file identifiers to generate a processed data file, wherein the one or more associated data file identifiers includes at least one of: user characteristics, exercise characteristics, a footwear type, or an apparel type, and generating a recommendation report, wherein the recommendation report includes a footwear recommendation selected based on one or more trends from the viscoelastic tissue parameters.

A vibration generating system (100) for elastography equipment and a control method thereof, elastography equipment, a method for controlling the vibration generating system (100) for elastography equipment, a method for operating the elastography equipment, and a corresponding computer-readable medium. The vibration generating system (100) for elastography equipment comprises: a control unit (1), a pressure source (2), a pressure regulating unit (3), and a vibration transmitting unit (4). The pressure regulating unit (3) is in fluidic communication with the pressure source (2) and the vibration transmitting unit (4), respectively. The vibration transmitting unit (4) is used to transmit vibration according to a pressure acting thereon. The control unit (1) is coupled with the pressure regulating unit (3). The control unit (1) is configured to obtain a control parameter by using a look-up table module (12) according to inputted elastography conditions, so as to control the pressure regulating unit (3).