A radiation imaging system comprises a radiation imaging apparatus having a plurality of imaging modes, and a control apparatus configured to control imaging of a radiation image with respect to the radiation imaging apparatus. The radiation imaging system comprises: an obtaining unit configured to obtain information with respect to a communication state between the radiation imaging apparatus and the control apparatus; and a display control unit configured to cause a display unit of at least one of the radiation imaging apparatus and the control apparatus to display information indicating a margin in the communication state based on an imaging mode of the radiation imaging apparatus and the information with respect to the communication state.

There is provided a radiographic imaging apparatus capable of alignment of a detector with a collimator with a position of a radiation source fixed. The radiographic imaging apparatus includes the radiation source which irradiates a subject with radioactive rays, a plurality of detecting elements which detect photons in the radioactive rays, and a collimator which is disposed between the radiation source and the detecting elements and has a plurality of walls which form a plurality of passing holes that the radioactive rays pass. The detecting element and the collimator are aligned with each other in a direction which is orthogonal to a direction that the subject is irradiated with the radioactive rays such that a ratio or a difference between output signals from the detecting elements which are mutually adjacent with the wall being interposed falls within a predetermined range.

A cabinet X-ray image system for obtaining colorized or greyscale density X-ray images of a specimen has a cabinet defining an interior chamber. The cabinet includes a walled enclosure surrounding the interior chamber, a door configured to cover the interior chamber and a sampling chamber for containing the specimen. The system further includes a display and an X-ray unit. The X-ray unit includes an X-ray source, an X-ray detector and a specimen platform configured to receive the specimen. Moreover, the system includes a controller configured to selectively energize the X-ray source, control the X-ray detector to collect the X-rays, determine the density of different areas of the specimen and create a density X-ray image of the specimen. The density X-ray image is colorized or greyscale. The controller is also configured to selectively display the density X-ray image of the specimen on the display.

A radiation imaging system comprises a radiation imaging apparatus having a plurality of imaging modes, and a control apparatus configured to control imaging of a radiation image with respect to the radiation imaging apparatus. The radiation imaging system comprises: an obtaining unit configured to obtain information with respect to a communication state between the radiation imaging apparatus and the control apparatus; and a display control unit configured to cause a display unit of at least one of the radiation imaging apparatus and the control apparatus to display information indicating a margin in the communication state based on an imaging mode of the radiation imaging apparatus and the information with respect to the communication state.

In an approach to X-ray inspection image display systems, a colorized X-ray inspection image is received comprising a monochrome X-ray inspection image that is colorized in accordance with an X-ray inspection system false colorization scheme. The colorized X-ray inspection image is filtered by performing pixel shading on the colorized X-ray inspection image to generate a custom colorized X-ray inspection image having a custom false colorization scheme that is different from the X-ray inspection system false colorization scheme.

An X-ray imaging system has an X-ray imaging apparatus include a foreign object image generation element that generates a foreign object image to make sure there is no foreign object left inside a subject body after a surgical operation. A first display unit displays at least one image selected from a group consisting of an X-ray image and a foreign object image. The X-ray imaging system is connected to an X-ray imaging apparatus through a network and displays the foreign object image on the second display unit that provides a better visual recognition level than the first display unit.

There is provided a radiographic imaging apparatus capable of alignment of a detector with a collimator with a position of a radiation source fixed. The radiographic imaging apparatus includes the radiation source which irradiates a subject with radioactive rays, a plurality of detecting elements which detect photons in the radioactive rays, and a collimator which is disposed between the radiation source and the detecting elements and has a plurality of walls which form a plurality of passing holes that the radioactive rays pass. The detecting element and the collimator are aligned with each other in a direction which is orthogonal to a direction that the subject is irradiated with the radioactive rays such that a ratio or a difference between output signals from the detecting elements which are mutually adjacent with the wall being interposed falls within a predetermined range.

A particle beam device comprises a first particle beam column for providing a first particle beam and a second particle beam column for providing a second particle beam. Operating the particle beam device may include: supplying the second particle beam with second charged particles onto an object using the second particle beam column, loading a value of a control parameter into a control unit from a database or calculating the value of the control parameter in the control unit, setting an objective lens excitation of a first objective lens of the first particle beam column using the value of the control parameter, detecting second interaction particles using a particle detector. The second interaction particles may emerge from an interaction of the second particle beam with the object when the second particle beam is incident on the object.

An X-ray imaging system includes the following. An X-ray Talbot imaging apparatus includes an X-ray source, a plurality of gratings, and an X-ray detector. An X-ray is irradiated from the X-ray source through the examined target which is an object and the plurality of gratings and to the X-ray detector to obtain a moire image necessary to generate the reconstructed image of the examined target. A first database shows, for each name or type of material, a correlation between information regarding a signal strength in the reconstructed image generated based on the moire image and quality information of the material included in the examined target. A controller estimates as the evaluation index the quality information in the examined target from the reconstructed image based on information regarding the input name or the type of material and input shape information and the first database.

Arrangement to reduce a time until a first image is displayed, to reduce a standby time until the next imaging is started, and to uniformize a time interval in a case where a plurality of images are displayed. An X-ray CT device detects a dose of an X-ray, a storage unit that preserves image data, a calculation unit that generates, as the image data, projection data on the basis of the X-ray data in parallel to an imaging process in the scanner, preserves the projection data, notifies a display control unit of preservation information, performs a reconstruction process, a display unit that displays an image generated per the X-ray data, and the display control unit that controls a display timing of a reconstructed image to be displayed on the display unit on the basis of the preservation information and the reconstruction information.