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: Medical equipment protection material including an adhesive layer, an absorbent layer, and a splatter shield.

Abstract: A radiographic imaging system includes an imaging unit that detects radiation transmitted through a subject, an operation unit that controls the imaging unit, a signal sending and receiving device connects the imaging unit and the operation unit to each other by wired or wireless communication. A signal reception state display unit is disposed in the imaging unit or the signal sending and receiving device so as to display a signal reception state indicative of communication between the imaging unit and the signal sending and receiving device.

Abstract: A radiation image capturing system includes a radiation image capturing apparatus, one or more radiation generation apparatuses and a calculation unit. The radiation image capturing apparatus includes a control unit which controls a scan driving unit and a readout integrated circuit of the radiation image capturing apparatus since before start of irradiation of the radiation image capturing apparatus and detects the start of the irradiation when data read out by the readout integrated circuit is equal to or more than a threshold. Before radiation image capturing, the calculation unit calculates a maximum body thickness for each of the radiation generation apparatuses on the basis of the data read out in the radiation image capturing apparatus irradiated by the radiation generation apparatus, the maximum body thickness up to which the control unit can detect the start of the irradiation through a subject.

Abstract: A sterile drape for a C-arm X-ray device includes a slide rail assembly configured to be connected to a C-arm of an X-ray device that extends from a lower portion of the C-arm to an upper portion of the C-arm. The sterile drape further comprises a sterile drape assembly comprising a length of compliant material, the sterile drape assembly configured to be detachably coupled to the upper portion of the C-arm and to the slide rail assembly. The sterile drape also comprises an anchor assembly configured to be connected to the C-arm X-ray device at one end and configured to be connected to the sterile drape assembly at the other end so that the anchor assembly draws the sterile drape assembly along the slide rail assembly as the C-arm is rotated.

Abstract: The present invention discloses an imaging apparatus radial-operating a transmitting and receiving unit and generating cross-sectional images inside the body cavity by a plurality of images, which includes: an X-ray image memory holding a plurality of X-ray images obtained by X-ray imaging the transmitting and receiving unit inside the body cavity by a predetermined imaging cycle, an image processing unit generating a cross-sectional moving image by setting the rotation cycle of the transmitting and receiving unit to be frame rate, and an image processing unit reading out an X-ray image, obtained from X-ray imaging just previously at every timing for every rotation cycle of the transmitting and receiving unit, from the X-ray image memory and generating an X-ray moving image by the frame rate.

Abstract: Human body back-scattering inspection systems and methods are disclosed. In the invention, X-rays modulated by the flying-spot forming unit having spirally distributed flying-spots have a distribution having alternating peaks and valleys on the irradiated surface. In this way, scanning starting times can be precisely controlled to cause two devices to have scanning starting times that are different by a half of a cycle. That is, the beams outputted from one device are at maximum when the beams outputted from the other device are at minimum. In other words, even if the ray source of one device emits rays, it will not significantly affect imaging result of the other device. In such way, the two devices may emit rays and perform scanning at the same time, and thus the total scanning time is reduced.

Abstract: A movable X-ray generation apparatus includes an X-ray tube configured to perform irradiation with X-rays, an arm configured to support the X-ray tube, a cart unit configured to support and move the arm, and a monitor mounted on the upper portion of the cart unit. The movable X-ray generation apparatus includes a first member configured to support the monitor to be pivotable about a first rotation axis, and a second member configured to support the first member to be pivotable about a second rotation axis different from the first rotation axis with respect to the cart unit. At least one of the first rotation axis and the second rotation axis provides a rotation axis parallel to the display surface of the monitor and perpendicular to a moving surface on which the cart unit moves.

Abstract: Disclosed is a radiographic imaging system which is provided with: a plurality of radiographing chambers equipped with a registration device; a console; and a management device for associating and managing the identification information of a portable radiographic imaging device with the identification information of the radiographing chambers. When the identification information of the portable radiographic imaging device is notified by the registration device of a radiographing chamber, the console displays an icon corresponding to the imaging device on a selection screen. When the identification information of the portable radiographic imaging device, as notified by the registration device, is associated with the identification information of another radiographing chamber, the management device discards the association and deletes the icon corresponding to the portable radiographic imaging device from the selection screen of the console, which is associated with said other radiographing chamber.

Abstract: A computed-tomography apparatus that includes a CT scanner including an X-ray source and a detector covering respective angle ranges in the axial and transaxial planes of the CT scanner. The CT detector includes first detector elements disposed on a first surface to capture incident X-ray photons emitted from the X-ray source, and second detector elements sparsely disposed on a second surface different from the first surface, the second surface being farther away from the scanner than the first surface, the second detector elements being smaller in number than the first detector elements. Each of the second detector elements is reachable only by X-ray photons originating in a small angle range around a line connecting the X-ray source and a center of the surface of the detector element, the small angle range being determined by the predetermined distance separating the first and second surfaces and a size of the detector element.

Abstract: In a method and x-ray device to determine a three-dimensional target image data set showing at least one partial region of interest of an acquisition region, wherein the image data of the three-dimensional target image data set are reconstructed from two-dimensional projection images acquired from various projection directions, first projection images are acquired without a collimation of the radiation source from first projection directions and a three-dimensional overview image data set of the acquisition region is reconstructed from the first projection images. The partial region of interest is selected in the overview image data set. Second projection images are acquired, with collimation at the partial region, from second projection directions, the second projection directions differing from the first projection directions. The target image data set showing the acquisition region and the partial region of interest is reconstructed from all first and second projection images.

Abstract: A method for determining a distance between a first point and a second point on an object under examination inside the body of a person under examination by way of x-ray imaging by an x-ray device. The method includes the recording of x-ray images at different relative positionings of the x-ray device, which contain the first and the second point respectively. The relative positionings are substantially shifted in relation to one another in parallel to a central beam. Stereo reconstruction is carried out to define a 3D position of the first point and of the second point. The distance between the first point and the second point is determined from the 3D position of the first point and the 3D position of the second point.

Abstract: Systems and methods for rotating X-ray devices are disclosed. The systems and methods use X-ray devices with an X-ray imaging arm orbitally rotating about pivot joints that are physically attached to the X-ray imaging arm. The pivot joint coincides with the center of gravity for the X-ray imaging arm. The X-ray device has an X-ray imaging arm with an X-ray source and detector 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. The pivot joint can be pivotally attached to a first end of an X-ray imaging arm fork, which has a second end attached to an X-ray imaging arm support structure. The imaging arm fork can include a lateral pivot joint that provides a lateral axis of rotation for the imaging arm. The fork can contain one or two arms.

Abstract: It is possible to reliably avoid a problem that radiation irradiation does not stop even when an accumulated radiation dose reaches a target radiation dose. An AEC unit starts monitoring an integrated value of a radiation dose detection signal from a detection pixel and an output of an irradiation continuation signal at the same time, and continuously transmits the irradiation continuation signal in a predetermined period while the integrated value does not reach a threshold value. When the integrated value reaches the threshold value, the output of the irradiation continuation signal is stopped. The irradiation continuation signal is transmitted to an irradiation signal I/F of a radiation source control device through an irradiation signal I/F by wireless. The radiation source control device stops X-ray irradiation by an X-ray source when the irradiation signal I/F does not receive the irradiation continuation signal.

Abstract: An X-ray diagnostic apparatus according to an embodiment includes a generating unit and a display controller. The generating unit generates a diagram illustrating the angle information of an arm. The display controller performs display control to visualize, together with the diagram generated by the generating unit, at least one of information showing the status of the arm when the arm is at an angle illustrated in the diagram and information showing the status of a subject to be imaged when the arm is at the angle illustrated in the diagram.

Abstract: A collimator for a computed tomography imaging device can include first and second leaves positioned on and bounding opposing sides of a radiation delivery window. The first and second leaves can be movable to adjust at least one of a size or a location of the primary radiation delivery window relative a the radiation source in a direction non-parallel to an axis of rotation of the radiation source.

Abstract: An x-ray generator device includes a housing at least partially holding a specific fluid pressure, with an arm positioned to be able to strike a strike plate within the housing. The housing contains an x-ray window. The arm is magnetically actuated in at least one direction by a magnetic field generator outside of the housing. A striking portion of the lever arm and/or the strike plate may be a polymeric material with embedded metal or metal alloys.

Abstract: A test apparatus for a semiconductor package comprising an X-ray analyzer acquiring an X-ray image of the semiconductor package and detecting a thickness of the semiconductor package from the X-ray image, and a thermal reaction analyzer applying a voltage to the semiconductor package and detecting a failure position of the semiconductor package using a surface temperature of the semiconductor package and the thickness of the semiconductor package may be provided.

Abstract: A method is disclosed for obtaining a 4D image data record of an object under examination using measured data from a computed tomography system in which projection data are accepted which were acquired by way of the computed tomography system at different imaging time points by way of an helical scan method following the administration of contrast medium to the object under examination). On the basis of the projection data, image data of the object under examination are then reconstructed and linked with the imaging time points to a space/time data record. Then, a parameterized 4D image data model is individualized with adaptation to the space/time data record by varying model parameters. An image processing device and a computed tomography system with an image processing device of this kind are also described.

Abstract: The present invention provides a radiographic imaging device, radiographic imaging system, a program for controlling the radiographic imaging device, and a method for controlling the radiographic imaging device that may accurately detect start of irradiation of radiation even noises are generated by interference or the like. When radiation is irradiated, electric signals outputted from radiation detection pixels in charge accumulation period are detected by signal detection circuit during detection period. Control section determines whether time variation of the electric signals feature pre-specified characteristics of noise. If not, the start of the irradiation of radiation has been properly detected, the charge accumulation period continues, and radiographic image is imaged.