Abstract: A densitometer assembly comprises a pipe fabricated from a high-yield steel, a radioactive source, and a detector. The radioactive source is mounted on an exterior wall of the pipe and is adapted to emit gamma radiation in a defined beam. The detector is mounted on an opposing, facing exterior wall of the pipe in alignment with the gamma radiation beam and is adapted to detect gamma radiation.

Abstract: Medical imaging devices, systems, and methods thereof. The medical imaging system may include a movable station and a gantry. The movable station includes a gantry mount rotatably attached to the gantry. The gantry includes an outer C-arm slidably mounted to and operable to slide relative to the gantry mount, an inner C-arm slidably coupled to the outer C-arm and, an imaging signal transmitter and sensor attached to the C-arms. The two C-arms work together to provide a full 360 degree rotation of the imaging signal transmitter. In embodiment, the imaging signal transmitter and imaging sensor are offset from a center axis of the medical imaging system such that the portable medical imaging system is operable to capture an enlarged field of view.

Abstract: The invention relates to a monitoring system for an energy chain guiding at least one line between two connection points and comprising chain sections that are positionally variable relative to one another. The monitoring system comprises at least one strain relief device having a line holder coupled to the line; a carrier part on at least one of the connection points fixing the strain relief device in a stationary manner, by means of which the at least one line is fixed at the end side in a strain-relieving manner; and at least one measuring device which is arranged and configured to measure forces exerted on the fixed line during operation of the energy chain and/or which are transmitted by the at least one line in the direction towards the carrier part.

Abstract: Medical imaging devices, systems, and methods thereof. The medical imaging system may include a movable station and a gantry. The movable station includes a gantry mount rotatably attached to the gantry. The gantry includes an outer C-arm slidably mounted to and operable to slide relative to the gantry mount, an inner C-arm slidably coupled to the outer C-arm and, an imaging signal transmitter and sensor attached to the C-arms. The two C-arms work together to provide a full 360 degree rotation of the imaging signal transmitter. The movable station may include a motion control system and an imaging control system. In embodiments, the motion control system includes omni-directional wheels for precision controlled-movement of the movable station.

Abstract: An inspection device is provided, includes a first vehicle body, a radiation source, arranged in the first vehicle body, a second vehicle body, a protective wall, arranged on the second vehicle body, a boom, and detectors, arranged on the boom, and the boom is rotatably connected to the first vehicle body and the second vehicle body, forms an inspection passage together with the first vehicle body and the second vehicle body. The inspection device can improve the adaptability.

Abstract: Medical imaging devices, systems, and methods thereof. The medical imaging system may include a movable station and a gantry. The movable station includes a gantry mount rotatably attached to the gantry. The gantry includes an outer C-arm slidably mounted to and operable to slide relative to the gantry mount, an inner C-arm slidably coupled to the outer C-arm and, an imaging signal transmitter and sensor attached to the C-arms. The two C-arms work together to provide a full 360 degree rotation of the imaging signal transmitter. In embodiment, the imaging signal transmitter and imaging sensor are offset from a center axis of the medical imaging system such that the portable medical imaging system is operable to capture an enlarged field of view.

Abstract: In some embodiments, a safety system for a close range scanning machine inhibits collision of moving detector heads with a patient or other object. For example a proximity sensor and/or a collision sensor may guide to bring the head close enough to a patient and/or warn to prevent a collisions and or reduce impact. Parts that are in that are in the FOV of the detector may be transparent to the detected signal and/or uniformly affect the signal, facilitating identification of the source of the signal from the detector. In some embodiments, a dynamic motion restrictor is set during scanning according to the desired scanning position and/or the position of the patient. In some embodiments, a motion restrictor acts to prevent unbalanced motions.

Abstract: A mobile radiography system with a wheeled transport frame has a vertical column mounted on the transport frame to hold in position an x-ray tube head. One or more pulley systems inside the vertical column and/or the transport frame allow easily manually adjusting a height of the x-ray tube head. The pulley systems may include cables and fixed and movable pulleys.

Abstract: A telescopic shaft having a first shaft, a second shaft configured to enable a first relative movement in an axial direction between the first and second shafts, and a third shaft configured to enable a second relative movement in the axial direction between the second and third shafts, and a third relative movement in the axial direction between the first and third shafts. The second shaft is located between the first and third shafts. The telescopic shaft is configured to connect a base of a parallel kinematics robot to an end effector of the same for the purpose of transferring torque. By providing the telescopic shaft with more than two shafts with mutual relative movements between the same, an extension factor (the relation between the maximum and minimum lengths of the telescopic shaft) and by that the working area of the parallel kinematics robot can be increased.

Abstract: An X-ray imaging apparatus capable of covering outer peripheral portions of a fixed and moving supporting columns by a cover even when an SID is set to be large in a configuration in which an imaging system is rotated about an axis extending in a horizontal direction. The supporting column mechanism is provided with a fixed supporting column and a moving supporting column. A fixed cover is arranged at the outer peripheral portion of the fixed supporting column. A moving cover which moves together with the moving supporting column is arranged. An intermediate cover movable in the same direction as the moving cover is arranged between the fixed cover and the moving cover. Between the fixed supporting column and the moving cover, a constant force spring as an energizing member for energizing the intermediate cover to the side of the fixed cover is arranged.

Abstract: A wheel alignment guide that provides a visual indication of the desired placement of an apparatus. The wheel alignment guide includes a body having an opening disposed therein. The wheel alignment guide is configured to surround a portion of the apparatus, such as a wheel, via the opening. In addition, the wheel alignment guide is adapted to rest on a ground surface, being held in place via a charge, such as an electrostatic charge created by static cling vinyl. A wheel of a medical device is disposed within the opening of the wheel alignment guide after a desired position of the medical device is selected. If the medical device is moved during a medical procedure, the medical device may be repositioned due to the placement of the wheel alignment guide. Accordingly, the wheel alignment guide eliminates the need for inefficient markers and potentially-dangerous adhesives, particularly in an operating room.

Abstract: A mobile radiography apparatus with a portable transport frame has a sectioned vertical column mounted on the transport frame. The sectioned vertical column defines a vertical axis and has a vertically fixed base section and an upper section that is movable with respect to the base section along the vertical axis. Cable and pulley systems are coupled to the vertical column sections and/or the transport frame. A boom is coupled to the movable section for positioning an x-ray source attached to the boom.

Abstract: A telescopic column includes at least two telescopic elements movable with respect to one another between two end positions and at least one damper that is configured such that, prior to reaching at least one of the end positions, a force slowing the relative movement of the telescopic elements is exerted on at least one of the telescopic elements.

Abstract: Disclosed herein is a computed tomography system, comprising: a table with a hole therein, wherein the table is configured to support a person lying face down thereon, with at least one of the person's breasts projecting through the hole; an X-ray source; an X-ray detector comprising a plurality of pixels; wherein the X-ray source is configured to rotate around the at least one of the person's breasts.

Abstract: A patient placement table moving method may be used with a robotic operating table including a patient placement table, a base buried in or fixed to a floor and an articulated robotic arm including joints and having first and second ends. The first end may be supported on the base to be rotatable about an axis extending in a vertical direction. The second end may support the table. The method may include: horizontally arranging the table by the robotic arm at an imaging position for imaging with a medical imaging apparatus; and translating the table from the imaging position to a surgical operation position by the robotic arm. The surgical operation position may be away from the imaging position by 200 mm or more in a second direction orthogonal to a first direction in a horizontal plane, and the first direction is parallel with a longitudinal direction of the table.

Abstract: A proximity operation fluoroscopic imaging apparatus allows a retreating operation for a X-ray detection element at an arbitrarily-positioned height. The X-ray imaging is carried out using the proximity operation fluoroscopic imaging apparatus a hanging-type X-ray irradiation element, a deck unit 26, supporting a flat panel detector 13, moves to a retreating position. The deck unit 26, supports a flat panel detector 13, and enables a retreating operation in the area of a subject M side of a tower unit 25, so that such a retreating operation is feasible regardless a height-position of the deck unit 26 supports the flat panel detector 13.

Abstract: A telescopic column includes a first telescopic element and a second telescopic element moveable linearly with respect to one another, at least one drive unit connected to the first telescopic element, at least one connecting element configured to transmit a force from the drive unit to the second telescopic element, a monitoring unit configured to detect an operating parameter of the connecting element, and a switch configured to send a signal to the monitoring unit in response to the detected operating parameter being outside a predetermined range.

Abstract: An examination and/or treatment device includes a multi-axis robot having an articulated arm that can be moved in space as well as leads received in a flexible cladding tube and guided to one or more examination or treatment devices arranged on the articulated arm or a support arranged thereon. In an embodiment, on the articulated arm is provided a carriage arrangement including a carriage, having at least one deflection roller and that can be linearly displaced against at least one restoring element that builds up a restoring force. The cladding tube or a guide tube surrounding the cladding tube is guided around the deflection roller.

Abstract: A wheel alignment guide that provides a visual indication of the desired placement of an apparatus. The wheel alignment guide includes one or more body members defining an opening to surround a portion of the apparatus, such as a wheel. The wheel of the apparatus is disposed within the opening of the wheel alignment guide after a desired position of the apparatus is selected, and the wheel may be pivoted via concave edges of the one or more body members. If the apparatus is moved during operation, the apparatus may be repositioned due to the placement of the wheel alignment guide. Accordingly, the wheel alignment guide eliminates the need for inefficient markers and potentially-dangerous adhesives, particularly in an operating room.

Abstract: An apparatus, including an insertion tube having a proximal tube end and a distal tube end that includes an electrode, a first irrigation line including proximal and distal irrigation line ends and configured to supply fluid from the distal irrigation line end through apertures in the tube, and an electrical line including a proximal electrical line end and a distal electric line end coupled to the electrode. The apparatus includes a slip ring unit having a stator, a rotor connected to the proximal electrical line end, and a hollow channel extending through respective centers of the stator and the rotor along a longitudinal axis of the slip ring unit. The apparatus includes a rotary joint in fluid communication with the proximal irrigation line end, an angle sensor configured to detect torsion of the proximal irrigation line end, and a drive mechanism coupled to rotate the rotor responsively to the torsion.

Abstract: A medical imaging device mountable on a support structure having a horizontal surface and at least one substantially vertical surface. The imaging device includes a frame and a gantry having a radiation source and a radiation detector. The gantry is rotatable with respect to the frame. The imaging device includes a first vertical adjustment element and a second vertical adjustment element. The first vertical adjustment element has a first end couplable to the horizontal surface and a second end coupled to the frame, the first end is located a first distance from the second end, and adjustable over a first range. The second vertical adjustment element has a third end coupled to the frame and a fourth end coupled to the gantry. The third end is located a second distance from the fourth end, and is adjustable over a second range, and the fourth end is rotatable with respect to the third end.

Abstract: Systems and a computer-readable medium is provided. In one embodiment, an integrated pull-up system is provided which includes an electric hoist adapted for mounting in one of an upper portion of a medical imaging device, at a base of said medical imaging device, integrated in said medical imaging device, and on a patient handling system (“PHS”). One end of a cable/strap is attached to the hoist. The other end of the cable/strap includes a grab-bar attached thereto. When actuated, the cable/strap retracts and extends to move a patient, holding the grab-bar, towards/from a supine position towards/from a seated position on the PHS.

Abstract: A device for supporting elements connecting a mobile X-ray machine is provided. The device comprises a chain that can be deformed in a single plane configured to contain connection elements of a mobile X-ray machine.

Abstract: A flexible hose tensioning device includes a shaper roller for receiving a flexible hose. The shaper roller includes guide grooves, into which raised sections of the flexible hose engage. The shaper roller and the guide grooves are configured so that there is a form fit between the shaper roller and the flexible hose. An element that holds the flexible hose in the shaper roller and a spring coupled to the shaper roller are also provided. The spring is tensioned when the flexible hose is pulled in a corresponding direction and generates an opposing force to a flexible hose tensile force.

Abstract: A diagnostic device system has a weight-reduced rechargeable battery. When a portable radiographic apparatus and a portable X-ray source are carried to and used for imaging at a private home or a care home, the portable radiographic apparatus and the portable X-ray source are loaded on an automobile. When the charge amount of rechargeable batteries for operation housed in the portable radiographic apparatus or the portable X-ray source loaded on the automobile is low, or when there are plural destinations and the charge amount of the rechargeable batteries becomes low, a rechargeable battery for charging mounted on the automobile is used to charge the rechargeable batteries for operation while traveling. Because the rechargeable batteries for operation are charged while traveling, a large number of rechargeable batteries for operation does not need to be charged in advance, whereby the weight of the rechargeable batteries for operation can be reduced.

Abstract: A gantry scanner system comprises a radiation source, a plurality of detectors and a support frame supporting the detectors. The support frame includes an elongate support member arranged to support the detectors, cable support means arranged to support power cables or signal cables connected to the detectors, and cover means arranged to cover the support member, the cable support means and the detectors.

Abstract: An X-ray device including a C-arm movably guided on a mount is provided. A radiation source and a radiation detector are arranged on the C-arm. The radiation source and the radiation detector are connected to the C-arm by cables fed in from outside, the cables being arranged on a cable clamp that may be moved at least in segments along the C-arm.

Abstract: A gantry scanner system includes a radiation source, a plurality of detectors and a support frame supporting the detectors. The support frame includes an elongate support member arranged to support the detectors, cable support means arranged to support power cables or signal cables connected to the detectors, and cover means arranged to cover the support member, the cable support means and the detectors.

Abstract: A system and a method for acquiring image data of a subject with an imaging system is provided. The system can include a gantry that completely annularly encompasses at least a portion of the subject, which can be positioned along at an isocenter of the imaging system. The system can include a source and a detector positioned within and movable relative to the gantry on a rotor. The system can include a move control module that sets move data for each of the source, detector and rotor that causes the source, detector and rotor to move in a desired motion profile to acquire image data of a portion of the subject off the isocenter of the imaging system.

Abstract: A device for supporting elements connecting a mobile X-ray machine is provided. The device comprises a chain that can be deformed in a single plane configured to contain connection elements of a mobile X-ray machine.

Abstract: Systems and methods for rotating or pivoting an X-ray device are disclosed. The systems and methods use X-ray device in which an X-ray imaging arm (such as a C-arm) can pivotally rotate in an orbital manner about a pivot joint that is physically attached to the X-ray imaging arm and the pivot joint coincides with the center of gravity for the X-ray imaging arm. The X-ray device can have an X-ray imaging arm that has an X-ray source and an X-ray detector which are respectively disposed at nearly opposing locations of the imaging arm. The pivot joint can serve as an axis of orbital rotation around which the imaging arm pivots in an orbital fashion. The pivot joint can be pivotally attached to a first end of an X-ray imaging arm fork, which, in turn, can have its second end attached to an X-ray imaging arm support structure (such as a mobile cart). The imaging arm fork can further include a lateral pivot joint that provides a lateral axis of rotation for the imaging arm. The fork can consist of one or two arms.

Abstract: The present embodiments relate to an arrangement with a robot having a robot arm formed from arm members. The robot arm carries a device fed by at least one electrical supply line. The arrangement has at least one guide element fixed to one of the arm members for guidance of the at least one electrical supply line on the robot arm. The at least one guide element is arranged rotatably about a longitudinal axis of the one arm member.

Abstract: The present invention relates to a post frame for X-ray apparatus and a ceiling type X-ray apparatus. The post frame according to the present invention comprises: a main frame comprising a fixed frame fixed to the X-ray apparatus and a plurality of movable frames received by and arranged in the fixed frame; and a bearing part provided on the main frame, wherein the main frame comprises: a guide integrated with the main frame, that protrudes inward from the main frame and has an insertion groove at both sides; and a connecting bar that is inserted into the insertion grooves and is in contact with a bearing of the bearing part. Since the welding of the guide is not required, time and cost for manufacturing the post frame are reduced. The connecting bar can be assembled easily by simply inserting it into the guide groove.

Abstract: An X-ray device including a C-arm movably guided on a mount is provided. A radiation source and a radiation detector are arranged on the C-arm. The radiation source and the radiation detector are connected to the C-arm by cables fed in from outside, the cables being arranged on a cable clamp that may be moved at least in segments along the C-arm.

Abstract: In an X-ray imaging system, an X-ray source has a lightweight and small-sized X-ray tube. The X-ray tube is a fixed anode X-ray tube without having a target rotating mechanism. The X-ray tube uses a cold cathode electron source, which does not need a filament and a heater. An image acquisition control device moves the X-ray source to each of plural positions predetermined on a cross bar of a holder by control of a drive source of a shift mechanism. Whenever the X-ray source reaches each position, the X-ray source emits X-rays to an object, and a cassette detects the X-rays transmitted through the object to take an image. Based on data of taken plural images, tomographic image, which puts emphasis on a region of interest inside the object, is produced.

Abstract: Current C-arm examination devices are not capable of performing 360 degrees rotations. The reason for this is that the cabling which connects the external cabinets to the detector, collimator and x-ray tube does not allow for such a rotation. According to an exemplary embodiment of the present invention, an examination apparatus is provided which has a connection device connecting the external cabinets to the C-arm which is adapted for enabling a rotation of the C-arm of more than 360 degrees. Such a connection device may comprise a storing device for winding up the cable.

Abstract: Methods and systems for X-ray imaging are disclosed. An X-ray imaging system includes an X-ray tube to generate X-rays and a detector array to capture scattered X-rays. A rotational collimator directs the X-rays at an object under inspection. Rotational mechanisms rotate the X-ray tube and the detector array about a roll axis and a yaw axis to inspect various portions of the object. A track unit mechanism moves the X-ray imaging system linearly along a track unit to further inspect portions of the object.

Abstract: A carriage that can be attached to and move on a rail is provided. The carriage has a contact area that supports a cable connection, for example, for a power supply. An end section of the contact area is designed so as to fold down on removal of a pressure exerted by a section of the cable connection lying thereon, so that as a result the carriage is contracted.

Abstract: The invention relates to a device for guiding at least one cable between a first system component connected to the cable and a second system component which is relatively rotatable and/or displaceable with respect to the first and is connected to the cable, whereby the cable exhibits a cable modality which can be changed by displacement and/or rotation of the second system component, whereby at least one device for adapting the cable modality is present. By making available a guide medium which allows the device for adapting the cable modality to be guided according to the displacement and/or rotation of the second system component, it is possible to provide a device which supports a mobile device without the function of the device being restricted by the cable guide.

Abstract: A medical examination device is provided. At least some of the supply lines used to operate the examination device are routed from above to the examination device, with the supply lines being arranged on a gallows which is mounted rotatably on a rail-guided carriage and being attached to a longitudinal section by at least one Bowden cable arranged on the gallows.

Abstract: A gantry scanner system includes a radiation source, a plurality of detectors and a support frame supporting the detectors. The support frame includes an elongate support member arranged to support the detectors, cable support means arranged to support power cables or signal cables connected to the detectors, and cover means arranged to cover the support member, the cable support means and the detectors.

Abstract: A line routing device is provided in order to allow simple, reliable electrical linking, in particular of a motor-vehicle sliding door to a vehicle power supply system. The line routing device includes a housing having a movement opening which extends in longitudinal direction and an outlet opening. A movement element is movably mounted in the movement opening and the cable as well as a spring strip, which is bent in a U-shape, are attached to the movement element. The cable is routed along the spring strip to the outlet opening and an end of the spring strip, which is remote from the movement element, is fixed to the housing.

Abstract: A retaining apparatus having a fastening element for fastening to a device, a first retaining element which is arranged on the fastening element in such a manner that it can be pivoted about a first axis, and a second retaining element which is arranged in such a manner that it can be pivoted about a second axis that is oriented perpendicular to the first axis and is designed to retain a flexible connecting element such that it can be moved forwards and backwards ensures a definable profile of the connecting element with little mechanical loading. A medical device, in particular in the form of a C-arc X-ray device, is provided with this retaining apparatus in a particularly advantageous manner.

Abstract: A manipulating system, for manipulating two telescopic columns into desired positions in particular for use in an X-ray apparatus is disclosed, wherein the system comprises: one or more rails arranged in parallel in a first direction X and fastened to a ceiling; a carriage comprising an upper and a lower section, where said upper section comprises means for travelling along the rails in the X direction and the lower section is rotatable about an axis perpendicular to a horizontal X-Y plane by means of a rotation device arranged between the upper and lower section; —two sliding rails arranged in parallel with a mutual distance between the rails, provided in a lower face of the lower section, where the sliding rails overlap each other in the direction of the longitudinal extent of the sliding rails; —two telescopic columns extendable in a Z direction perpendicular to the X-Y plane, where each column is slidably fastened to separate.

Abstract: The invention relates to an X-ray emitter 1 comprising an X-ray tube 2 disposed in an oil-tight housing 3 containing a high-tension transformer 2.1, wherein an electrical supply line 4 for the heater voltage for X-ray tube 2 is provided, which is led through the housing 3. Read-out and storage electronics 5 including a microcontroller 5.4 and a data storage device 5.2 are provided on or in the housing 3, and at least one period of operation of the X-ray tube 2 can be acquired and stored in the data storage device 5.2 by means of the read-out and storage electronics 5.

Abstract: The present invention relates to an X-ray image acquiring apparatus having a structure for improving the quality of an image signal representing an X-ray image captured. The X-ray image section (8), and a signal cable (L1). The imaging section (7) outputs an image signal representing an X-ray image captured. The connecting section (8) has a structure attachable/detachable to a control circuit (6) for controlling the imaging section (7). The signal cable (L1) has one end connected to the imaging section (7) and the other end connected to the connecting section (8), and is flexible. The signal cable (L1) includes a detection signal line (L11), a control signal line (L12), an image signal line (L13), and a GND line (L14), which are used for transmitting signals exchanged between the imaging section (7) and the control circuit (6), and a shield member (5a) covering these lines (L11 to L14).

Abstract: A retaining apparatus having a fastening element for fastening to a device, a first retaining element which is arranged on the fastening element in such a manner that it can be pivoted about a first axis, and a second retaining element which is arranged in such a manner that it can be pivoted about a second axis that is oriented perpendicular to the first axis and is designed to retain a flexible connecting element such that it can be moved forwards and backwards ensures a definable profile of the connecting element with little mechanical loading. A medical device, in particular in the form of a C-arc X-ray device, is provided with this retaining apparatus in a particularly advantageous manner.

Abstract: Disclosed is a radiation device for the human body inspection. The device includes a X-ray generator for radiating radiation; a detector for receiving the radiation radiated from the X-ray generator; a first flexible member connected with the X-ray generator for hoisting the X-ray generator; a second flexible member connected with the detector for hosing the detector; and a driving device for synchronically driving the X-ray generator and the detector through the first and second flexible members, and at the same time, the X-ray generator and the detector are spaced from each other a predetermined distance in a horizontal direction. The radiation device for the human body inspection according to the present invention can ensure that the radiation source and the detector can be operated synchronically during the whole inspection process; thereby the quality of radiation imaging is increased.

Abstract: The invention relates to an X-ray emitter 1 comprising an X-ray tube 2 disposed in an oil-tight housing 3 containing a high-tension transformer 2.1, wherein an electrical supply line 4 for the heater voltage for X-ray tube 2 is provided, which is led through the housing 3. Read-out and storage electronics 5 including a microcontroller 5.4 and a data storage device 5.2 are provided on or in the housing 3, and at least one period of operation of the X-ray tube 2 can be acquired and stored in the data storage device 5.2 by means of the read-out and storage electronics 5.

Abstract: The invention relates to a ceiling support system for a movable component (7) of a diagnostic X-ray device (1). The system comprises a horizontally movable carriage (8), a crane (9) attached to the carriage (8), which crane (9) is vertically extensible and contractible by means of telescoping sections (10), and at least one flexible electrical cable (17) for the power supply and/or for the control of the movable component (7). In order to provide such a ceiling support system with improved movability of the X-ray tube and/or the X-ray image detector, the invention suggests that the electrical cable (17) is led from the carriage (8) through the telescoping sections (10) of the crane (9), wherein a cable drum (18) is arranged at the top end of the crane (9) for winding the electrical cable (17) during vertical movement of the component (7).