Abstract:
Ultrasound imaging devices and heads up displays, as well and systems utilizing both are described. In some embodiments, ultrasound data or images may be displayed on a heads up display, which may be a head-mounted display. One or more users may manipulate the images. Image capture devices and sensors may also be implemented.
Abstract:
Complementary metal oxide semiconductor (CMOS) ultrasonic transducers (CUTs) and methods for forming CUTs are described. The CUTs may include monolithically integrated ultrasonic transducers and integrated circuits for operating in connection with the transducers. The CUTs may be used in ultrasound devices such as ultrasound imaging devices and/or high intensity focused ultrasound (HIFU) devices.
Abstract:
Ultrasound devices and methods are described, including a repeatable ultrasound transducer probe having ultrasonic transducers and corresponding circuitry. The repeatable ultrasound transducer probe may be used individually or coupled with other instances of the repeatable ultrasound transducer probe to create a desired ultrasound device. The ultrasound devices may optionally be connected to various types of external devices to provide additional processing and image rendering functionality.
Abstract:
To implement a single-chip ultrasonic imaging solution, on-chip signal processing may be employed in the receive signal path to reduce data bandwidth and a high-speed serial data module may be used to move data for all received channels off-chip as digital data stream. The digitization of received signals on-chip allows advanced digital signal processing to be performed on-chip, and thus permits the full integration of an entire ultrasonic imaging system on a single semiconductor substrate. Various novel waveform generation techniques, transducer configuration and biasing methodologies, etc., are likewise disclosed. HIFU methods may additionally or alternatively be employed as a component of the "ultrasound- on- a-chip" solution disclosed herein.
Abstract:
Complementary metal oxide semiconductor (CMOS) ultrasonic transducers (CUTs) and methods for forming CUTs are described. The CUTs may include monolithically integrated ultrasonic transducers and integrated circuits for operating in connection with the transducers. The CUTs may be used in ultrasound devices such as ultrasound imaging devices and/or high intensity focused ultrasound (HIFU) devices.
Abstract:
Ultrasound devices and methods are described, including a repeatable ultrasound transducer probe having ultrasonic transducers and corresponding circuitry. The repeatable ultrasound transducer probe may be used individually or coupled with other instances of the repeatable ultrasound transducer probe to create a desired ultrasound device. The ultrasound devices may optionally be connected to various types of external devices to provide additional processing and image rendering functionality.
Abstract:
Complementary metal oxide semiconductor (CMOS) ultrasonic transducers (CUTs) and methods for forming CUTs are described. The CUTs may include monolithically integrated ultrasonic transducers and integrated circuits for operating in connection with the transducers. The CUTs may be used in ultrasound devices such as ultrasound imaging devices and/or high intensity focused ultrasound (HIFU) devices.
Abstract:
An apparatus, comprising: a semiconductor wafer having a complementary metal oxide semiconductor (CMOS) integrated circuit and an electrode; a conductive membrane bonded to the semiconductor wafer to form a bonded structure such that a sealed cavity exists between an uppermost portion of the semiconductor wafer and a first side of the conductive membrane, thereby defining, at least in part, an ultrasonic transducer, with the sealed cavity disposed between the conductive membrane and the electrode; and the uppermost portion of the semiconductor wafer providing an electrical connection between the CMOS integrated circuit and the first side of the conductive membrane. *.. W . . . . . . . . . * ... '64 W W. .
Abstract:
An ultrasound device, comprising: at least first and second ultrasonic transducer elements; a first transmit control circuit comprising: a first pulser coupled to the first ultrasonic transducer element so as to drive the first ultrasonic transducer element so that the first ultrasonic transducer element emits an ultrasonic pulse; a first waveform generator coupled to the first pulser to provide a first waveform to the first pulser in response to receipt, by the first transmit control circuit, of a transmit enable signal generated by a timing and control circuit; and at least one first component that impacts a length of a first delay between when the first transmit control circuit receives the transmit enable signal and when the first waveform is applied to the first pulser; a second transmit control circuit comprising: a second pulser coupled to the second ultrasonic transducer element so as to drive the second ultrasonic transducer element so that the second ultrasonic transducer element emits an ultrasonic pulse; a second waveform generator coupled to the second pulser to provide a second waveform to the second pulser in response to receipt, by the second transmit control circuit, of the transmit enable signal generated by the timing and control circuit; and at least one second component that impacts a length of a second delay between when the second transmit control circuit receives the transmit enable signal and when the second waveform is applied to the second pulser; wherein the at least one first component is configured differently than the at least one second component, so that the length of the second delay is different than the length of the first delay, and wherein the first and second ultrasonic transducer elements, the first transmit control circuit, and the second transmit control circuit are formed on a single solid state semiconductor die. c-o
Abstract:
To implement a single-chip ultrasonic imaging solution, on-chip signal processing may be employed in the receive signal path to reduce data bandwidth and a high-speed serial data module may be used to move data for all received channels off-chip as digital data stream. The digitization of received signals on-chip allows advanced digital signal processing to be performed on-chip, and thus permits the full integration of an entire ultrasonic imaging system on a single semiconductor substrate. Various novel waveform generation techniques, transducer configuration and biasing methodologies, etc., are likewise disclosed. HIFU methods may additionally or alternatively be employed as a component of the "ultrasound- on- a-chip" solution disclosed herein.