Abstract: Systems, devices, and methods for controlling access to a medical device are provided. One example system includes an access card configured to wirelessly transmit user identification information and a medical device configured to receive the user identification information from the access card, and enable access to one or more components of the medical device based on permission information associated with the received user identification information. One example medical device includes a plurality of device components; a data receiver configured to wirelessly receive user identification information; a memory configured to store permission information in association with the user identification information; and a processor configured to retrieve the permission information from the memory in response to receiving the user identification information from the data receiver, and enable access to the one or more device components based on the retrieved permission information.

Abstract: The invention relates to radiographic equipment comprising a height-adjustable board, a C-shaped arch, disposed transversally to the greater dimension of the board, said board being housed within the internal space defined between the two free extremities of the arch. The arch is slidingly mounted on a column by means of a connecting element in such a way that as the arch rotates around an imaginary rotational axis it causes the connecting element to slide or roll throughout the extension of the arch. It further comprises a rail extending parallel to the greater dimension of the board, on which the column rests. The arch features at its lower extremity an x-ray receiver and at its upper extremity an x-ray emission assembly.

Abstract: Systems, devices, and methods for controlling access to a medical device are provided. One example system includes an access card configured to wirelessly transmit user identification information and a medical device configured to receive the user identification information from the access card, and enable access to one or more components of the medical device based on permission information associated with the received user identification information. One example medical device includes a plurality of device components; a data receiver configured to wirelessly receive user identification information; a memory configured to store permission information in association with the user identification information; and a processor configured to retrieve the permission information from the memory in response to receiving the user identification information from the data receiver, and enable access to the one or more device components based on the retrieved permission information.

Abstract: High-voltage, high-frequency and high-power transformer having a core (1) on which a primary winding (2) is disposed on which a secondary winding (4) is disposed in an insulated manner, whereupon the entire assembly is housed and mounted in an insulator (3), wherein the insulator (3) is made up of two parts or halves (6) and (7) symmetrical with respect to a transverse vertical plane, each part having a hollow tubular element (3.1) housed inside an outer housing (3.2) of each half of the insulator, defining in each part an annular space (3.3) comprised between the outer wall of the tubular element (3.1) and the inner wall of the outer housing (3.2), where the secondary or high-voltage winding is disposed, the insulator (3) presenting in its outer housing (3.2) a slot (5), which is situated at zero volts level, and though which the oil penetrates towards the secondary winding.

Abstract: Device comprising: a chassis (1) which supports the entire assembly, a telescopic column (2) which comprises a lower fixed portion (5) rotating with respect to a vertical axis, and at least one upper mobile portion (6), a telescopic arm (3) that moves along the vertical column and that supports an x-ray emitter (4) at its end, wherein the telescopic arm-head assembly can be moved from the lower position of the mobile column in its retracted position to the upper position of the mobile column in its extended position, and also in that all the movements of the column are manual and have a mechanical balancing mechanism which comprises a first mechanism consisting of a spring, a block and tackle, and a variable radius pulley all housed in the fixed portion of the column, and a second balancing mechanism consisting of a recovery pulley and a two-radii pulley which balances the weight between the input of the cable and that of the telescopic arm and head assembly.

Abstract: Discharge module which is formed by three circuits, a control and measurement circuit for X-rays, a voltage division circuit between serial switches, which is independent from the previous one, and a third circuit of the charge short circuit, which in turn is formed by a successive or slave trip circuit of the switches and another main discharge circuit through the switches; due to the established configuration, a much improved radiation control is achieved as it is not affected by unforeseen agents, the short circuit current is not restricted to the port current of the switches, and residual voltage of the switches is reduced.

Abstract: This invention is designed to provide a device for sideways movement which will permit an element to move laterally, such as a set of portable x-ray equipment which is affixed to said device.

Abstract: X-Ray equipment, that as well as having a controlled current converter, a capacitor bank, an inverter, a supply source, and a high voltage transformer, has inlet voltage evaluation equipment that activates relays of the connection points of an auxiliary supply transformer so that it is not necessary to manually carry out any change in the supply connections depending on the supply voltage. Furthermore it is possible to carry out the charging of the capacitors in a programmed manner, and the charging voltage of the capacitor bank is fixed and independent of the supply voltage, the equipment being able to operate automatically at a voltage between 90 and 264 volts.

Abstract: A system is described for the controlled propulsion of a transporting device including at least two drive wheels propelled by electromotive units, in which system at least two drive wheels are each propelled by independent electric motors; each electric motor receives electric power through an independent power amplifier which amplifies electric signals produced by sensor devices; the sensor devices detect a mechanical force applied on a push and pull element, and convert the mechanical force into electric signals which indicate the degree and the direction of the mechanical force applied on the push and pull element, and the amplifier amplifies the signal in accordance with a factor which is a function of the weight that the trolley has to move and it feeds the electric motor so it can power the drive motor in accordance with a torque corresponding to the movement ordered through the sensor devices.

Abstract: The conventional high voltage elements (1, 8) constituting it are located in such a way that the ground level (2) is situated in the central zone and from this zone the negative potential progressively increases towards one of the ends (3) while the positive potential progressively increases towards the opposite end (4). It is preferably applicable to radiogenic vessels (9), which also present the particular feature that all the elements constituting them present a voltage distribution identical to that of the transformer, in order to establish equipotential lines that do not require the incorporation of insulating elements, and which also enable the elements to be positioned very close to each other in such a way that the volume, its weight and its cost are considerably reduced.

Abstract: The invention relates to a high-voltage transformer consisting of conventional elements disposed in two different groups, namely positive voltage elements (1-5) and negative voltage elements (1′-5′), both types of elements being separated by a single insulating barrier (6). One of the ends of all elements has a ground level or “zero voltage” increasing progressively towards the other end in the positive voltage elements and decreasing progressively in the negative voltage elements in such a way that the elements in each group have equipotential voltages at the same level or distance from the ground level. Said structure eliminates parasitic capacitances and makes it possible to mount the elements very close to each other thereby considerably reducing size and consequently costs.

Abstract: Device comprising: a chassis (1) which supports the entire assembly, a telescopic column (2) which comprises a lower fixed portion (5) rotating with respect to a vertical axis, and at least one upper mobile portion (6), a telescopic arm (3) that moves along the vertical column and that supports an x-ray emitter (4) at its end, wherein the telescopic arm-head assembly can be moved from the lower position of the mobile column in its retracted position to the upper position of the mobile column in its extended position, and also in that all the movements of the column are manual and have a mechanical balancing mechanism which comprises a first mechanism consisting of a spring, a block and tackle, and a variable radius pulley all housed in the fixed portion of the column, and a second balancing mechanism consisting of a recovery pulley and a two-radii pulley which balances the weight between the input of the cable and that of the telescopic arm and head assembly.