Abstract: There is provided a method and a system for ultrasound imaging in presence of relative motion between a body and an imaging probe. A plurality of Eulerian-based ultrasound images of the body acquired at successive times T with the imaging probe is obtained. Lagrangian coordinates for the body are computed using data from the Eulerian-based ultrasound images. Lagrangian-based ultrasound images of the body are formed by providing the data from the Eulerian-based ultrasound images in the Lagrangian coordinate system.

Abstract: There is provided a system for ultrasound imaging comprising at least one ultrasonic transmitter configured to transmit at least one ultrasonic wave towards at least one target, an ergodic relay coupled to the at least one target, the ergodic relay configured for receiving at least one ultrasonic wave backscattered by the at least one target and for applying a temporal signature, as a function of a location of the at least one target relative to the ergodic relay, to the at least one backscattered wave to generate at least one output signal, and an ultrasonic receiver coupled to the ergodic relay and configured to receive the at least one output signal therefrom, the at least one output signal used to reconstruct at least one image of the at least one target.

Abstract: There is provided a method for ultrasound imaging comprising applying an ultrasound modulation wave at a fixed frequency F1 and a period P1 to a target in a body, the body having received an injection of microbubbles through a fluid, the modulation wave causing the microbubbles to undergo stable acoustic cavitation, emitting, toward the target and concurrently with the modulation wave, ultrasound imaging pulses centered at a frequency F2 and having a pulse repetition period of n*P1 and a pulse delay of m*P1/k, where the pulse delay varies with m, m<k, and k>1, detecting reflections of the ultrasound pulses by the microbubbles after each emission for a duration corresponding to a maximum depth of the target, and forming ultrasound images from the reflections.

Abstract: There is provided a method and a system for ultrasound imaging in presence of relative motion between a body and an imaging probe. A plurality of Eulerian-based ultrasound images of the body acquired at successive times T with the imaging probe is obtained. Lagrangian coordinates for the body are computed using data from the Eulerian-based ultra-sound images. Lagrangian-based ultrasound images of the body are formed by providing the data from the Eulerian-based ultrasound images in the Lagrangian coordinate system.

Abstract: There is provided a method for ultrasound imaging comprising applying an ultrasound modulation wave at a fixed frequency F1 and a period P1 to a target in a body, the body having received an injection of microbubbles through a fluid, the modulation wave causing the microbubbles to undergo stable acoustic cavitation, emitting, toward the target and concurrently with the modulation wave, ultrasound imaging pulses centered at a frequency F2 and having a pulse repetition period of n*P1 and a pulse delay of m*P1/k, where the pulse delay varies with m, m<k, and k>1, detecting reflections of the ultrasound pulses by the microbubbles after each emission for a duration corresponding to a maximum depth of the target, and forming ultrasound images from the reflections.