Aspects of the technology described herein relate to ultrasound device circuitry as may form part of a single substrate ultrasound device having integrated ultrasonic transducers. The ultrasound device circuitry may facilitate the generation of ultrasound waveforms in a manner that is power- and data-efficient.

The present disclosure directs to a system and method for ultrasound imaging. The method may include obtaining a total count of detecting members of a detector of an ultrasound scanner and a directivity angle of each detecting member of the detector. The method may also include obtaining one or more focuses each of which corresponds to a transmission of ultrasound waves of the ultrasound scanner, wherein the one or more focuses are located within the detector. The method may further include determining a synthetic aperture for each of one or more transmissions corresponding to the one or more focuses based on the total count of the detecting members of the detector, the directivity angle of each detecting member of the detector, and the one or more focuses, the synthetic aperture including at least one detecting member of the detector.

A hand-held ultrasound device, for placement on a subject, includes a semiconductor device and a housing to support the semiconductor device. The semiconductor device includes: a plurality of ultrasonic transducer elements; a plurality of pulsers coupled to the plurality of ultrasonic transducer elements; a plurality of waveform generators configured to drive the plurality of pulsers; receive processing circuitry configured to process ultrasound signals received by the plurality of ultrasonic transducer elements; and a plurality of independently controllable registers configured to store a plurality of different parameters for the waveform generators.

A 3D ultrasonic diagnostic imaging system produces 3D display images at a 3D frame rate of display which is equal to the acquisition rate of a 3D image dataset. The volumetric region being imaged is sparsely sub-sampled by separated scanning beams. Spatial locations between the beams are filled in with interpolated values or interleaved with acquired data values from other 3D scanning intervals depending upon the existence of motion in the image field. A plurality of different beam scanning patterns are used, different ones of which have different spatial locations where beams are located and beams are omitted. In a preferred embodiment the determination of motion and the consequent decision to use interpolated or interleaved data for display is determined on a pixel-by-pixel basis.

A method for use in acoustic imaging, comprising: transmitting, from a transmitter, a first sound wave pulse at a first frequency determined by a maximum sampling rate of a receiver; transmitting at least one second sound wave pulse at a frequency substantially equal to the first frequency, the first and at least one second sound wave pulses being transmitted substantially within a fraction of a sample interval of the receiver; receiving and sampling, at the receiver, a reflection of at least two of the first and at least one second pulses to generate a set of receiver samples; and expanding the set of receiver samples, based on the first frequency and a total number of the first and at least one second pulses transmitted, to generate an expanded sample set with a larger number of samples than the set of receiver samples.

Provided are an ultrasound system, an ultrasound probe, a control method of the ultrasound system, and a control method of the ultrasound probe capable of using various types of display terminals and causing the display terminal to perform processing according to computing power of the display terminal to be used.

An ultrasound system includes a display terminal and an ultrasound probe. The ultrasound probe has a reception circuit that generates a sound ray signal from a reception signal output from an oscillator array, an image generation unit that generates ultrasound image data from the sound ray signal, and a data selection unit that selects one of the ultrasound image data and intermediate data generated in a middle of generating the ultrasound image data, according to computing power of the display terminal, as data to be output to the display terminal. The display terminal to which the intermediate data is input generates the ultrasound image data from the intermediate data and displays an ultrasound image based on the ultrasound image data on the monitor.

In an image compressing ultrasound system, for generating an imaging sample, delays are applied transducer-element-wise to respective time samples. The delayed samples are summed coherently in time, the coherently summed delays being collectively non-focused. An image is sparsified based on imaging samples and, otherwise than merely via said imaging samples, on angles (236) upon which respectively the delays for the generating of the imaging samples are functionally dependent. An image-compressing processor (120) may minimize a first p-norm of a first matrix which is a product of two matrices the content of one representing the image in a compression basis. The minimizing is subject to a constraint that a second p-norm of a difference between a measurement matrix and a product of an image-to-measurement-basis transformation matrix, an image representation dictionary matrix, and the matrix representing the image in the compression basis does not exceed an allowed-error threshold. The measurement matrix is populated either by channel data, or by output of a Hilbert transform applied to the channel data in a time dimension.

Circuitry for ultrasound devices is described. A multi-level pulser is described, which can support time-domain and spatial apodization. The multi-level pulser may be controlled through a software-defined waveform generator. In response to the execution of a computer code, the waveform generator may access master segments from a memory, and generate a stream of packets directed to pulsing circuits. The stream of packets may be serialized. A plurality of decoding circuits may modulate the streams of packets to obtain spatial apodization.

An ultrasonic imaging system can include an ultrasound imaging probe, a computing device, and a link for communicatively coupling the computing device and the ultrasound imaging probe. The probe can include an ultrasonic transducer and preprocessing circuitry. The ultrasonic transducer can produce an electrical signal from an ultrasonic pressure wave and have a transducer element. The preprocessing circuitry can be electrically coupled to the ultrasonic transducer and have a signal converter and a signal integrator. The signal converter can condition a signal from the transducer element and convert the signal to a digital signal. The signal integrator can combine the digital signal into a transmission signal with at least a 10 Gigabit per second data rate. The signal can then be transmitted for processing by the computing device.

Sold-state intravascular ultrasound (IVUS) imaging devices, systems, and methods are provided. Some embodiments of the present disclosure are particularly directed to flexible and efficient systems for focusing IVUS echo data received from transducers including polymer piezoelectric micro-machined ultrasound transducers (PMUTs). In one embodiment, an ultrasound processing system includes first and second aperture engines coupled to an engine controller, which provides aperture assignments to the first and second aperture engines. The aperture engines receive the assignment and a portion of A-line data, perform one or more focusing process on the received A-line data, and produce focused data in accordance with the aperture assignment. In some embodiments, once an aperture engine has produced focused data, the engine controller clears the aperture engine and assigns another aperture.