Abstract:
A radiation image capturing system includes a radiation image capturing apparatus, an irradiation apparatus and an image processing apparatus. The image processing apparatus generates a first radiation image of a subject based on a signal value generated by the radiation image capturing apparatus with no grid attached irradiated by the irradiation apparatus; performs a low-pass filter process on a pixel value of the first radiation image using a scattering kernel, thereby generating a low frequency image; estimates a body thickness of the subject based on the signal value; estimates a scattered ray content rate based on the body thickness; calculates a scattered ray component in the first radiation image based on the low frequency image and the scattered ray content rate; and subtracts the scattered ray component from the first radiation image, thereby generating a second radiation image.
Abstract:
A re-imaging determination support device including a hardware processor that: judges a first misalignment of a predetermined region in a radiographic image; judges a second misalignment of a predetermined region in the radiographic image; and outputs re-imaging determination support information that supports determining whether or not to perform re-imaging for the radiographic image, based on at least a judgement of the first misalignment and a judgement of the second misalignment.
Abstract:
A dynamic image processing device including: a receiver configured to receive order information of dynamic image photography; an acquirer configured to acquire a dynamic image that is obtained by performing the dynamic image photography; and a hardware processor configured to select a scattered radiation component removal process to be used in the dynamic image, based on the order information.
Abstract:
A radiographic image capturing system includes the following. A capturing stand includes a holder to hold radiographic image capturing devices. A radiation irradiator is able to irradiate the radiographic image capturing devices at once. An image processor generates images based on image data acquired by the radiographic image capturing devices. The image processor removes a structural component derived from the front radiographic image capturing device, on the basis of a calibration image and the generated image. The calibration image is preliminarily generated based on the image data acquired by the rear radiographic image capturing device with no subject disposed. The generated image is generated based on the image data acquired by the rear radiographic image capturing device during actual image capturing. The image processor removes a streaky component residing in the generated image.
Abstract:
An imaging support device includes a hardware processor. The hardware processor, acquires first imaging support information which is first information for changing a position of a subject or an imaging device configured to image a medical image of the subject, changes the first imaging support information to second imaging support information which is second information for changing a position of the subject or the imaging device, and outputs the second imaging support information.
Abstract:
Disclosed is an X-ray imaging system capable of performing X-ray imaging by dual-energy X-ray absorptiometry and general imaging, the X-ray imaging system including: an X-ray emitter capable of individually emitting a plurality of X-rays having different energies; a portable X-ray detector that captures an X-ray image based on an X-ray emitted by the X-ray emitter; and a hardware processor that provides, under a predetermined condition, a first notification related to capturing of a calibration image by the X-ray detector. The hardware processor provides the first notification each time X-ray imaging by the dual-energy X-ray absorptiometry is performed or when capturing of the calibration image is determined to be necessary.
Abstract:
An image failure determination supporting apparatus includes a hardware processor. The hardware processor obtains imaged site information regarding an imaged site of a radiation image. The hardware processor outputs determination supporting information which supports determination of whether the radiation image is an image failure according to the obtained imaged site information.
Abstract:
Provided is an information processing device that is interposed between an imaging control device and an image management device in communication. The information processing device including an abnormality detector and a first hardware processor. The abnormality detector performs detection of an abnormality in a medical image received from the imaging control device. The first hardware processor that determines, based on a result of the detection by the abnormality detector, content or a destination of transmission of the medical image or the result of the detection.
Abstract:
Provided is an image processing apparatus that includes a hardware processor. The hardware processor acquires a two-dimensional radiation image; and analyzes the acquired two-dimensional radiation image to infer three-dimensional structure information on a structure on an inside of a subject.
Abstract:
A medical imaging system includes a hardware processor that acquires imaging order information including information on positioning, determines whether the acquired imaging order information satisfies predetermined conditions, and outputs imaging support information before start of the positioning when the imaging order information satisfies the predetermined conditions. In one embodiment, the imaging order information includes information on an imaging direction of an imaging site.