An ultrasound diagnostic imaging apparatus which generates ultrasound image data based on a reception signal generated by an ultrasound probe, which transmits and receives ultrasound to and from a test subject, and displays an ultrasound image, includes: a cine-memory that stores cine-image data of the ultrasound image; a determiner that determines whether or not to retain the cine-image data, which is stored in the cine-memory before a transition from a display screen having the ultrasound image into a display screen having a predetermined number of more images; and a hardware processor that indicates an arrangement of the ultrasound image in a display screen transitioned next and a setting state of retention of the cine-image data in the cine-memory before and after the transition, generates a display screen including a first button for accepting an input of the transition into the display screen, and displays the display screen on a display.

A method includes receiving ultrasound echo signals produced in response to a pulsed ultrasound field interacting with anatomical tissue and flow of structure therein. The method further includes generating electrical signals indicative thereof. The method further includes beamforming the electrical signals producing beamformed data. The method further includes constructing a real-time image of the anatomical tissue with the beamformed data. The method further includes constructing a de-aliased color images of the flow with the beamformed data. The method further includes visually presenting the real-time image of the anatomical tissue with the de-aliased color images of the flow superimposed thereover.

Medical systems and methods are provided in which a processor receives the 3D ultrasound images and receives position signals from a position tracking device, indicating the position of a corresponding probe relative to the 3D ultrasound images. Based on the probe position, a region of interest is selected that contains the position the medical probe within the 3D ultrasound images, and the selected region of interest is rendered to a display together with a representation of the medical probe superimposed on the region of interest.

An ultrasound diagnostic apparatus includes a touch interface configured to display a screen comprising an ultrasound image of an object, and receive a user touch on the ultrasound image; and a controller configured to acquire a seed point, at which the user touch is sensed, acquire shape information of the object, and perform a control to display, on the ultrasound image, a touch point corresponding to the user touch, the touch point being determined based on the seed point and the shape information.

A method and apparatus are disclosed herein for controlling an ultrasound machine using one or more touchless inputs. In one embodiment, the method for controlling operation of the ultrasound machine comprises obtaining one or more touchless inputs; determining one or more operations to control the ultrasound machine based on the one or more touchless inputs and machine state of the ultrasound machine; and controlling the ultrasound machine using the one or more operations.

A method tracks a user's operation of an ultrasound system. Based on the tracked operations, the method uses a machine-learning module to generate a proposed custom system configuration for the ultrasound system for the user. The proposed custom system configuration is presented to the user. In response to a user instruction, the proposed custom system configuration is implemented on the ultrasound system.

The present invention provides an ultrasound system, which comprises: a signal acquiring unit to transmit an ultrasound signal to an object and acquire an echo signal reflected from the object; a signal processing unit to control TGC (Time Gain Compensation) and LGC (Lateral Gain Compensation) of the echo signal; a TGC/LGC setup unit adapted to set TGC and LGC values based on TGC and LGC curves inputted by a user; and an image producing unit adapted to produce an ultrasound image of the object based on the echo signal. The signal processing unit is further adapted to control the TGC and the LGC of the echo signal based on the TGC and LGC values set by the TGC/LGC setup unit.

An apparatus for performing a medical procedure is disclosed. The apparatus includes a sensor adapted to convert an ultrasonic signal incident thereon into an electrical signal; and a wireless transceiver configured to receive the electrical signal from the sensor, and to transmit the electrical signal to a wireless receiver remotely located from the apparatus.

An ultrasound imaging probe includes a housing, a circuit board assembly disposed within the housing including a microcontroller, and a motion sensor operably connected to the microcontroller and capable of sensing motion of the housing based on at least one operator interaction with the housing to generate sensor data, a memory chip disposed within the housing and storing information regarding particular operational configurations for the ultrasound imaging probe associated with stored sensor data representing types of stored operator interactions, and a power source disposed at least partially within the housing and operably connected to the assembly. The microcontroller is configured to receive sensor data from the motion sensor in response to the operator interaction with the housing, to compare the received sensor data with the stored sensor data, and to change an operational configuration of the ultrasound probe in response to matching the received sensor data with stored sensor data.

Exemplary embodiments provide systems and methods for portable medical ultrasound imaging. Preferred embodiments utilize a hand portable, battery powered system having a display and a user interface operative to control imaging and display operations. A keyboard control panel can be used alone or in combination with touchscreen controls to actuate a graphical user interface. The system includes a transducer assembly to image, measure and monitor a condition of a patient