A tissue positioning system for contouring a patient tissue volume includes an axially displaceable interface having a surface configured to engage a breast or other tissue volume. A low pressure source applies a partial low pressure to the surface of the displaceable interface to secure the tissue volume to the surface, and the axially displaceable interface is biased to pull and contour the tissue volume when the tissue volume is secured to the surface. The axially displaceable interface is typically mounted on a telescoping support and the biasing is provided by the same low pressure used to secure the tissue volume.

A test device of an embodiment includes processing circuitry. The processing circuitry is configured to detect a waveform of a reflected wave that is obtained by reflection of an ultrasonic wave, which has been transmitted from an ultrasonic probe and has passed through an acoustic coupling material in close contact with an acoustic radiation surface of the ultrasonic probe, the reflected wave having passed through the acoustic coupling material before the detection of the waveform, and test a performance of the ultrasonic probe on the basis of the detected waveform.

A shared-housing ultrasound transducer and machine-vision camera system is disclosed for registering the transducer's x, y, z position in space and pitch, yaw, and roll orientation with respect to an object, such as a patient's body. The position and orientation are correlated with transducer scan data, and scans of the same region of the object are compared in order to reduce ultrasound artifacts and speckles. The system can be extended to interoperative gamma probes or other non-contact sensor probes and medical instruments. Methods are disclosed for computer or remote guiding of a sensor probe or instrument with respect to saved positions and orientations of the sensor probe.

Embodiments provide an ultrasound treatment system and method. In some embodiments, the system includes a removable transducer module having an ultrasound transducer. In some embodiments, the system can include a hand wand with at least one finger activated controller and a control module that is coupled to the hand wand and has a graphical user interface for controlling the removable transducer module, and an interface coupling the hand wand to the control module. The interface may provide power to the hand wand or may transfer a signal from the hand wand to the control module. In some embodiments, the treatment system may be used in cosmetic procedures on at least a portion of a face, head, neck, and/or other part of a patient.

Ultrasound adaptive imaging methods and/or systems provide for modification of waveform generation to drive a plurality of transducer elements. The modification may be based on at least one of contrast ratio or signal to noise ratio as determined with respect to control points in a region of interest. Further, image reconstruction may be performed upon separating, from pulse echo data received, at least a portion thereof received at each ultrasound transducer element from the region of interest in response to the delivered ultrasound energy corresponding to a single frequency of one or more image frequencies within a transducer apparatus bandwidth. The image reconstructed from the separated pulse-echo data corresponding to the single frequency of the one or more image frequencies may be used alone or combined with like image data (e.g., to provide an image representative of one or more properties in the region of interest).

The present disclosure describes system, application, and/or methods for enabling operation of a transducer probe with a medical imaging device. An example method includes the steps of retrieving a user identification code assigned to a user associated with an imaging device, retrieving a transducer identification code of a transducer probe from a memory of the transducer probe responsive to connecting the transducer probe to the imaging device, generating a temporary digital key based on the user identification code and the transducer identification code, retrieving a stored digital key from the memory of the transducer probe, verifying an association of the transducer probe including comparing the stored digital key with the temporary digital key, enabling operation of the transducer probe with the imaging device if the stored digital key matches the temporary digital key.

An imaging apparatus for diagnosis is disclosed, which has a motor drive unit (MDU) configured to be connected to a catheter, and which generates a vascular optical coherence tomographic image and an ultrasound tomographic image of a subject, based on a signal output from the catheter. The apparatus includes a first inspection unit that inspects the presence or absence of the ultrasound transceiver, based on intensity distribution of the electric signal of the reflected wave which is obtained by a first drive unit, and a second inspection unit that generates line image data in a radial direction, regarding a position of the imaging core as an origin, based on the electric signal of the interference light which is obtained by a second drive unit, and that inspects the presence or absence of the optical transceiver, based on pixel data distribution within a predetermined range from a position of the origin.

A dual-mode ultrasound system provides real-time imaging and therapy delivery using the same transducer elements of a transducer array. The system may use a multi-channel driver to drive the elements of the array. The system uses a real-time monitoring and feedback image control of the therapy based on imaging data acquired using the dual-mode ultrasound array (DMUA) of transducer elements. Further, for example, multi-modal coded excitation may be used in both imaging and therapy modes. Still further, for example, adaptive, real-time refocusing for improved imaging and therapy can be achieved using, for example, array directivity vectors obtained from DMUA pulse-echo data.

A system for automatic configuration detection includes a medical device (250) including a sensor (246). A pattern (236) is coded into a portion of the medical device. The pattern is configured to store pertinent information about the device. A reader device (234) is coupled to a connector and configured to read the pattern to convey the pertinent information to determine one of a status, identity or manner of use for the medical device including the sensor.

Provided are an artificial intelligence ultrasound-medical-diagnosis apparatus using semantic segmentation and a remote medical-diagnosis method using the same, which can automatically determine ultrasound-diagnosis for diseases acquired through imaging medical examinations although the diseases are hard to be visually diagnosed in a field of ultrasound image processing. The ultrasound-medical-diagnosis apparatus using semantic segmentation, includes a semantic segmentation artificial intelligence network configured to perform labeling on each of a plurality of organs of the patient using mutually different colors to detect a position of the organ of interest from the ultrasound image.