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.

A measurement processing device used for an x-ray inspection apparatus that detects an x-ray passing through a specimen with a detection unit to sequentially inspect a plurality of specimens on the basis of an acquired transmission image, includes a setting unit that sets a region to be inspected on a portion of the specimen; a determination unit that determines the non-defectiveness of the region to be inspected by using a transmission image of the x-ray that passed through the region to be inspected; a correction unit that performs a correction on the region to be inspected on the basis of a determination result by the determination unit; and a display control unit that displays the corrected region to be inspected corrected by the correction unit.

Various embodiments of the present invention relate to an apparatus for rearranging protocols in an electronic device, and an operating method therefor. The electronic device comprises: a transceiver unit; and at least one processor functionally coupled to the transceiver unit, wherein the at least one processor is configured to: control an operation of receiving information on a first protocol list including a plurality of protocols from a server; identify, for each of the plurality of protocols, position information of a radiography apparatus which captures an image, and the type of detection unit which detects a beam generated from the radiophotography apparatus; rearrange the order of the plurality of protocols on the basis of at least one of the position information of the radiography apparatus and the type of detection unit, so as to generate a second protocol list; and control an operation of transmitting information on the second protocol list to the radiography apparatus.

A controller generates, based on a position of a marker in an X-ray image, an intermediate image in which a device inserted into a subject's body is displayed. After the generation of the intermediate image, the controller matches the marker of the X-ray image with a marker of the intermediate image based on the position of the marker in the X-ray image and a position of a marker in the intermediate image to align the X-ray image and the intermediate image with each other every time the X-ray image is newly generated. The controller then controls the display to display an overlaid image generated by overlaying the X-ray image and the intermediate image aligned with each other.

Provided are a radiation emitting device forming a radiography apparatus, a method for controlling the radiation emitting device, and a program which can reduce power consumption. A radiation emitting device includes a radiation source, a collimator that sets a radiation field region, imaging unit for capturing an image of an imaging target, a display unit that displays the image captured by the imaging unit, an exposure switch, and a control unit that issues a collimator driving command to direct the collimator to set the radiation field region determined from the captured image to the collimator in a case in which the exposure switch is operated.

Provided are a radiation emitting device forming a radiography apparatus, a method for controlling the radiation emitting device, and a program which can reduce power consumption. A radiation emitting device includes a radiation source, a collimator that sets a radiation field region, imaging unit for capturing an image of an imaging target, a display unit that displays the image captured by the imaging unit, an exposure switch, and a control unit that issues a collimator driving command to direct the collimator to set the radiation field region determined from the captured image to the collimator in a case in which the exposure switch is operated.

A radiographic imaging apparatus includes a radiation detector, a reader and a hardware processor. The radiation detector includes a substrate. On the substrate, radiation detection elements are arranged two-dimensionally. The radiation detection elements generate amounts of electric charges corresponding to doses of radiation by being irradiated with the doses of the radiation. The reader reads the amounts of the electric charges generated by the respective radiation detection elements as signal values, and generates image data based on the signal values. The hardware processor communicates with a portable terminal having a web browser, generates web content displayable on the web browser in response to a request from the portable terminal, and sends at least one of the web content and the image data to the portable terminal in response to the request from the portable terminal.

A stationary anode for an X-ray generator, in particular of an X-ray imaging device or an X-ray therapy or spectroscopy device, includes a main anode body and an internal cooling duct, running in the axial direction, for conveying a cooling fluid to a heat exchange surface of the main anode body. A nozzle, disposed at the end of the cooling duct, is inventively positioned with respect to the heat exchange surface via stop elements such that, between the heat exchange surface and the nozzle, a gap is formed which extends over an angular range of 360 about the axial direction.

A stationary anode for an X-ray generator, in particular of an X-ray imaging device or an X-ray therapy or spectroscopy device, includes a main anode body and an internal cooling duct, running in the axial direction, for conveying a cooling fluid to a heat exchange surface of the main anode body. A nozzle, disposed at the end of the cooling duct, is inventively positioned with respect to the heat exchange surface via stop elements such that, between the heat exchange surface and the nozzle, a gap is formed which extends over an angular range of 360 about the axial direction.

An X-ray apparatus includes a two-dimensional pixel array having rectangular pixels outputting an electrical signal responsively to an incident X-ray photon. This array has a row direction oblique to a scan direction. When viewing in the scan direction, a pixel group is provided solely or repeatedly, the pixel group being composed of M rows N pieces of pixels (M is a positive integer equal to or larger than 1, N is a positive integer equal to or larger than 2, and M and N have a relationship of prime numbers). The pixel group occupies a quadrangle whose diagonal line is parallel with the scan direction. In a memory space, the frame data from the pixels are converted to frame data in a Cartesian coordinate system having a row direction which is in parallel with the scan direction and a column direction orthogonal to the row direction.