Abstract: A mobile radiography apparatus includes a moveable transport frame and an adjustable support arm attached thereto to support an x-ray source. At least one digital detector storage slot in the transport frame is configured to receive and to controllably lower at least one portable radiographic detector into the slot at a controlled speed.

Abstract: A radiography system includes: a mammography apparatus that includes a radiation source, a radiation detector, and a compression member which compresses a breast disposed between the radiation source and the radiation detector and captures a radiographic image of the breast in a compressed state using the radiation detector; and a control device including an acquisition unit that acquires region information indicating a region of an object of interest in the breast on the basis of the radiographic image captured by the mammography apparatus and a display control unit that performs control to display the region of the object of interest on the compression member, which continues to compress the breast from the capture of the radiographic image, so as to be recognizable on the basis of the region information acquired by the acquisition unit.

Abstract: A method of position planning for a recording system of an imaging device with respect to a selectable field of view of a patient includes acquiring current position information of the recording system and/or the imaging device, and/or setting information of a collimator of the imaging device. A current intersection volume between an X-ray beam and the patient and/or a current field of view is determined. The current intersection volume and/or the current field of view is determined as a virtual display element. A target intersection volume and/or a target field of view is received by manipulation of the virtual display element. A target position of the recording system and/or the imaging device, and/or the setting of the collimator is determined, such that, on occupying the target position, the target intersection volume and/or the target field of view becomes the current intersection volume and/or current field of view.

Abstract: The present disclosure relates to a collimator for radiation generating apparatus, attached to a radiation generating apparatus, the collimator comprising: a frame fixed to the radiation generating apparatus and formed in a ring shape; and a shielding adjustment part provided with a plurality of shielding wings, one end of the shielding wings being hinged to the frame such that, when rotated, the other end of the shielding wings enters into a center of the frame, and the each one end of the shielding wings being disposed to be spaced apart on the frame, wherein the shielding wing is made of a radiation shielding metal. Accordingly, it is possible to easily adjust the diameter of radiation field made in a circular shape.

Abstract: A radiographic imaging system includes a radiation emitter, an image generator and a hardware processor. The radiation emitter emits radiation. The image generator generates a dynamic image composed of a plurality of frames according to received radiation The hardware processor determines at a predetermined timing whether at least one imaging allowing condition is satisfied. In response to determining that the at least one imaging allowing condition is satisfied, the hardware processor allows at least one of the radiation emitter and the image generator to operate.

Abstract: An X-ray CT apparatus of an embodiment includes an X-ray tube, an X-ray detector, a data processor, a battery, a rotating body, and processing circuitry. The X-ray detector is configured to detect X rays output from the X-ray tube. The data processor is configured to process a signal output from the X-ray detector. The battery is configured to supply electric power to the data processor. The rotating body is configured to rotatably support the X-ray tube and the X-ray detector, the X-ray tube facing the X-ray detector, and further to rotatably support the data processor and the battery. The processing circuitry is configured to monitor a remaining capacity of the battery, and determine a scanning condition on the basis of the remaining capacity.

Abstract: Methods and devices for testing effects of external stimuli on breast appearance in an x-ray image are provided. A model for testing may include a breast phantom with an encapsulated hydrogel. In some examples, a three-dimensional cell culture and/or microfluidic channels may be encapsulated in the hydrogel. A first set of x-ray images of the model may be captured, thermal energy may be applied to the model, and a second set of x-ray images of the model may be captured while the thermal energy is being applied for comparison with the first set to determine effects of the thermal energy on appearance of the model. By incrementally increasing an amount of thermal energy applied and capturing subsequent x-ray images for comparison, an appropriate temperature range may be determined for heating compression surfaces of a breast imaging system to reduce compression-related pain and discomfort for patients without compromising x-ray image quality.

Abstract: A radiographic apparatus includes a gantry and a table supporting a patient and having a device that immobilizes the head of the patient lying on the table. Such device includes a dome configured to support the head of the patient; a basal plate; one or more junctions provided at a first end of the basal plate; two uprights provided at a second end of the basal plate opposed to the first end, two slits being defined in the two uprights, a slide being disposed within each slit; and a cursor sliding in the two slits and configured to be blocked in position by a bushing, wherein the basal plate, the one or more junctions, the two uprights, the cursor, and the bushing are all radio-transparent and non-metallic.

Abstract: A method is described for controlling a tube current for acquiring at least one X-ray image.

Abstract: A method is for determining orthogonal slice image data sets of a tomosynthesis recording of an examination region. In an embodiment, the method includes recording a tomosynthesis recording and reconstructing a plurality of first slice image data sets in a first plane based upon the tomosynthesis recording; selecting a first slice image data set from the plurality of first slice image data sets; marking a microcalcification or a region of interest with a punctiform marking in the first slice image data set selected; and determining, from a second slice image data set in a second plane orthogonal to the first plane, and from a third slice image data set in a third plane orthogonal to the first plane and the second plane, wherein a point of intersection of the first plane, the second plane and the third plane includes the punctiform marking.

Abstract: Methods and systems are provided for additive manufacturing of collimators for medical imaging applications. In one example, a collimator may include a plurality of collimator segments including a plurality of septa, wherein at least one collimator segment may be interlocked with at least one adjacent collimator segment via mating of one or more projections with one or more complementary recesses, each of the one or more projections including a lengthwise portion of at least one septum of the plurality of septa.

Abstract: A multi-spectral tomography imaging system includes one or more source devices configured to direct beams of radiation in multiple spectra to a region of interest (ROI), and one or more detectors configured to receive the beams of radiation. The system includes a processor configured to cause movement in at least one of the components such that a first beam of radiation with a first spectrum is directed to the ROI for less than 360 degrees of movement of the ROI. The processor is also configured to process data detected by the one or more detectors, where the data results at least in part from the first beam of radiation with the first spectrum that is directed to the ROI for less than the 360 degrees of movement of the ROI. The processor is further configured to generate an image of the ROI based on the processed data.

Abstract: Systems and methods for the automatic generation and optimization of radiation therapy treatment plans, and systems and methods for the automatic generation and optimization of an adapted plan in an adaptive radiation therapy workflow.

Abstract: The X-ray imaging device (100) is provided with an imaging system (CS) including an X-ray source (1), a detector (5), and a plurality of gratings, a moving mechanism (8), a position information acquisition unit (7a), and an image processing unit (6) for generating a phase-contrast image (16) in a tomographic plane by acquiring a phase distribution in a tomographic plane (40) based on a plurality of X-ray images (10) and the acquired tomographic position (z+jd).

Abstract: A radiographic image capturing system includes: a mammography apparatus that emits radiation having a first energy to a subject and captures a first radiographic image with a radiation detector and emits radiation having a second energy greater than the first energy to the subject and captures a second radiographic image with the radiation detector and that captures the first radiographic image and the second radiographic image with a breast in a state in which a contrast medium using iodine is administered. The radiographic image capturing system includes a phantom for evaluation of the mammography apparatus that has a solid material containing at least one element, which has a value of a k absorption edge that is equal to or greater than the first energy and equal to or less than the second energy, as an image evaluation pattern simulating the contrast medium.

Abstract: The present apparatus, system, and method relate to reliably capturing multiple x-ray images for later combination. An exposure shield blocks a portion of the x-rays emitted from a traditional emitter and collimator. The orientation of exposure shield may then be modified to block a second portion of x-rays while ensuring appropriate overlap of the captured images without intentionally moving the emitter or collimator and without the need for a patient to wear protective garb.

Abstract: The collimator (3) for a radiological equipment (1) comprises shielding means (6, 7, 9, 10, 11) made of tungsten-based radiation-absorbent plastic material; such means may be proximal radiated field closure elements and/or radiated field propagation elements; such means comprise at least one radiated radiogenic field propagation element (6).

Abstract: A radiography apparatus includes: an irradiation unit that emits radiation; an arm that can hold the irradiation unit and an image receiving unit in a facing posture; a connection portion or a main body that supports the arm; a rotation mechanism that rotates the arm with respect to the connection portion or the main body; and an operation handle that is provided independently of the arm and is manually operated to input an operation force for displacing the arm to the rotation mechanism.

Abstract: A compression unit is for a mammography system. In an embodiment, the compression unit includes an essentially U-shaped accommodating unit including two opposing fastening elements, connected via an adjustable spacer element arranged between the two opposing fastening elements, a distance between the two opposing fastening elements being adjustable. In an embodiment, the compression unit further includes a compression element, fastenable and exchangeable in the accommodating unit.

Abstract: An imaging control apparatus includes a hardware processor. The hardware processor is capable of sending, to a console, a command indicating permission of radiation emission. The console controls a radiation emitting apparatus that emits radiation. The hardware processor is also capable of outputting a first control signal to a radiographic imaging apparatus that generates a radiograph based on the first control signal.