Abstract: An apparatus comprising at least one first microphone (10) which is movably arranged, at least one second stationary microphone (11) and at least one sensor (16) is described. The microphones can capture the sound waves emitted by acoustic sources, and the sensor can capture spatial coordinates of the first microphone. A corresponding method and a system having the apparatus mentioned are also described.

Abstract: Systems are provided for the arrangement of decoupled electric and acoustic modules for a transducer array of an ultrasound probe. In one embodiment, the decoupled modules are independently coupled to a flex interconnect, apart from one another, allowing for electric communication between all modules through the flex interconnect. As one example, an ultrasound transducer array for an ultrasound probe comprises an acoustic backing, a flex interconnect coupled to the backing at a first surface of the flex interconnect, a matrix acoustic array coupled to a second surface of the flex interconnect, the second surface opposite the first surface, and an electric module coupled to the second surface of the flex interconnect at a location spaced away from where the matrix acoustic array is coupled to the flex interconnect.

Abstract: An apparatus comprising at least one first microphone (10) which is movably arranged, at least one second stationary microphone (11) and at least one sensor (16) is described. The microphones can capture the sound waves emitted by acoustic sources, and the sensor can capture spatial coordinates of the first microphone. A corresponding method and a system having the apparatus mentioned are also described.

Abstract: Systems are provided for the arrangement of decoupled electric and acoustic modules for a transducer array of an ultrasound probe. In one embodiment, the decoupled modules are independently coupled to a flex interconnect, apart from one another, allowing for electric communication between all modules through the flex interconnect. As one example, an ultrasound transducer array for an ultrasound probe comprises an acoustic backing, a flex interconnect coupled to the backing at a first surface of the flex interconnect, a matrix acoustic array coupled to a second surface of the flex interconnect, the second surface opposite the first surface, and an electric module coupled to the second surface of the flex interconnect at a location spaced away from where the matrix acoustic array is coupled to the flex interconnect.

Abstract: An ultrasound probe and method of forming an ultrasound probe are provided. The ultrasound probe comprises a two-dimensional (2D) transducer assembly having transducer elements arranged in rows and columns. The transducer elements have front and rear surfaces. The front surface is configured to transmit and receive ultrasound signals to and from an object of interest. A thin film flex circuit extends along the rear surface of the transducer assembly. The flex circuit has conductive traces arranged in layers and enclosed within a common dielectric layer. The dielectric layer has a homogeneous composition surrounding the layers of the conductive traces. The conductive traces are electrically interconnected to the corresponding transducer elements.

Abstract: A medical ultrasonic probe includes an ultrasonic probe having a probe head and a connector. The connector includes a fluid cooling system comprising a pump configured to pump a cooling fluid between the connector and the probe head. A damper including a housing has a first portion defining a cavity receiving the cooling fluid and a second portion including a gas that is separated from the first portion by a membrane.

Abstract: An ultrasound probe and method of forming an ultrasound probe are provided. The ultrasound probe comprises a two-dimensional (2D) transducer assembly having transducer elements arranged in rows and columns. The transducer elements have front and rear surfaces. The front surface is configured to transmit and receive ultrasound signals to and from an object of interest. A thin film flex circuit extends along the rear surface of the transducer assembly. The flex circuit has conductive traces arranged in layers and enclosed within a common dielectric layer. The dielectric layer has a homogeneous composition surrounding the layers of the conductive traces. The conductive traces are electrically interconnected to the corresponding transducer elements.

Abstract: Systems are provided for the arrangement of decoupled electric and acoustic modules for a transducer array of an ultrasound probe. In one embodiment, the decoupled modules are independently coupled to a flex interconnect, apart from one another, allowing for electric communication between all modules through the flex interconnect. As one example, an ultrasound transducer array for an ultrasound probe comprises an acoustic backing, a flex interconnect coupled to the backing at a first surface of the flex interconnect, a matrix acoustic array coupled to a second surface of the flex interconnect, the second surface opposite the first surface, and an electric module coupled to the second surface of the flex interconnect at a location spaced away from where the matrix acoustic array is coupled to the flex interconnect.

Abstract: Methods and systems for connection to a transducer in ultrasound probes are provided. One system includes transducer having a base configured to support thereon an ultrasound transducer array and a plurality of electrical interconnects integrated with the base. The electrical interconnects are configured to connect to the ultrasound transducer array and extend along at least a portion of the base from the ultrasound transducer array.

Abstract: Methods and systems for connection to a transducer in ultrasound probes are provided. One system includes transducer having a base configured to support thereon an ultrasound transducer array and a plurality of electrical interconnects integrated with the base. The electrical interconnects are configured to connect to the ultrasound transducer array and extend along at least a portion of the base from the ultrasound transducer array.

Abstract: A medical ultrasonic probe includes an ultrasonic probe having a probe head and a connector. The connector includes a fluid cooling system comprising a pump configured to pump a cooling fluid between the connector and the probe head. A damper including a housing has a first portion defining a cavity receiving the cooling fluid and a second portion including a gas that is separated from the first portion by a membrane.

Abstract: A method for reducing the noise emission of a transformer, the transformer tank of which is filled with liquid and the tank wall of which vibrates during operation, is provided. The method is characterized by the sequence of the following method steps: detecting natural frequency values of the tank wall for at least one excitation frequency; determining at least one eigenmode for which the vibration of the tank wall is composed at an excitation frequency, from the natural frequency values, wherein areas of large curvature are determined on the tank wall; arranging at least one vibration loading device in at least one of said areas; and controlling the at least one vibration loading device by means of a control device in order to counteract the vibration of the tank wall.

Abstract: An ultrasound imaging system, an ultrasound probe, and a method for detecting motion of an ultrasound probe with a motion sensor attached to the probe. The ultrasound system, ultrasound probe, and method also include reducing a power consumption of the ultrasound probe in response to detecting no motion for a period of time with the motion sensor.

Abstract: A method for reducing the noise emission of a transformer, the transformer tank of which is filled with liquid and the tank wall of which vibrates during operation, is provided. The method is characterized by the sequence of the following method steps: detecting natural frequency values of the tank wall for at least one excitation frequency; determining at least one eigenmode for which the vibration of the tank wall is composed at an excitation frequency, from the natural frequency values, wherein areas of large curvature are determined on the tank wall; arranging at least one vibration loading device in at least one of said areas; and controlling the at least one vibration loading device by means of a control device in order to counteract the vibration of the tank wall.