Abstract: According to one aspect of an exemplary embodiment of the disclosure, an imaging device or system, e.g., a mammography imaging system or device, includes a distance and location sensing system on the imaging system/e to provide accurate distance and position information from one or more sensing device(s) constituting the system that measure the elapsed time between the emission of the wave or radiation from the sensing device and the detection of the reflected wave or radiation. Examples of the types of sensing devices include ultrasound sensing devices, MEMS radar devices and time-of-flight (ToF) sensing devices. The distance information can be employed to determine the relative positions to produce a distance map illustrating the position and shape of any objects sensed within the zone by the sensing device(s), to determine the rate of change of the positions, i.e.

Abstract: A medical imaging system comprising a C-arm supporting a radiation source and a radiation detector, an external protection cover of said C-arm, wherein said C-arm and said cover are separable from each other and are respectively supported by two different vehicles when separated from each other.

Abstract: A medical imaging system comprising a C-arm supporting a radiation source and a radiation detector, an external protection cover of said C-arm, wherein said C-arm and said cover are separable from each other and are respectively supported by two different vehicles when separated from each other.

Abstract: A system to generate a radiological image of a subject from multiple directions is provided. The system comprises a first drive to move the gantry and detector about a vertical axis, a second drive to move the gantry and detector about a horizontal axis, and a handle assembly coupled to the gantry in mobile support of the detector. The handle assembly includes a sensor operable to generate a signal representative of a direction of deflection of a header. The system also includes a controller having instructions generally representative of the steps that include translating the signal from the sensor in the direction of deflection of the header, generating a signal to instruct the first and second drives to move the gantry in the direction of deflection, and moving the gantry in the direction of deflection of the header via the first and second drives in accordance to the signal.

Abstract: A double resonance voltage converter and method of operating such a converter having: a switching circuit with a first switch and a second switch; a double resonance resonant circuit having a series resonant circuit and a parallel resonant circuit; a rectifying and filtering circuit, and a control circuit for controlling the switching circuit having two state arrangements. A first arrangement controls the conducting states of the switching circuit and a second arrangement controls the start of the first arrangement. The converter may be used to obtain very high voltages, on the order of 100 kilovolts and more, for providing power to an X-ray tube in a radiological imaging apparatus.

Abstract: A double resonance electronic converter and method of operating such a converter having: a switching circuit comprising a first switch and a second switch; a double resonance resonant circuit having a series resonant circuit and a parallel resonant circuit; a rectifying and filtering circuit, and a control circuit for controlling the switching circuit having two state arrangements. A first arrangement for controlling states of the switching circuit and a second arrangement for controlling the start of the first arrangement. The converter may be used to obtain very high voltages, on the order of 100 kilovolts and more, for providing power to an X-ray tube in a radiological imaging apparatus.