Abstract: A real-time inline digital tomosynthesis system according to an embodiment of the present disclosure includes a subject moving rail configured to move a subject in a preset direction and at a preset speed, a pair of an X-ray generator and an X-ray detector fixedly provided to face each other in a first direction of the subject moving rail, a subject position identifier configured to identify and notify a current position of the subject based on an image or a sensor, and an image reconstructor configured to obtain a plurality of X-ray images having different subject positions through the X-ray detector based on the current position of the subject, and then reconstruct and output the plurality of X-ray images as at least one of a tomographic image for each section and one three-dimensional (3D) image.

Abstract: A medical image apparatus according to an embodiment of the present disclosure includes a main body that is travelable, a column vertically coupled to the main body, a straight arm moving unit sliding in a longitudinal direction of the column, a straight arm coupled to the straight arm moving unit and rotating with respect to the column, and a source arm located on a side of the straight arm, perpendicular to the straight arm, and including a source driving rail through which a source assembly slides, wherein the straight arm is coupled to a moving unit rotating shaft formed on the straight arm moving unit, and is rotatable with respect to the column about the moving unit rotating shaft, and the source arm is fixed to the side of the straight arm.

Abstract: An operation method of a medical imaging apparatus for capturing an X-ray medical image is provided. The method includes receiving identification information of a user, receiving photographing mode selection information, determining that a photographing mode is an X-ray photographing mode for checking a health condition of an object on the basis of at least one of the identification information of the user and the photographing mode selection information, obtaining identification information of the object, determining an initial photographing position from among a plurality of predetermined photographing positions, and determining a photographing sequence of the plurality of predetermined photographing positions on the basis of the initial photographing position.

Abstract: A medical image apparatus includes a column coupled to a main body and vertically extending, a straight arm moving unit sliding in a longitudinal direction of the column and including a moving unit rotating shaft for rotating a straight arm, and the straight arm coupled to the straight arm moving unit and rotating with respect to the column. The straight arm moving unit includes a camshaft formed along a side surface of the moving unit rotating shaft, having an elliptical cross-section, and fixed to the straight arm moving unit, the straight arm includes a first balance unit and a second balance unit fixed to the straight arm, contacting a side surface of the camshaft, and configured to press the side surface of the camshaft by an elastic body. The first balance unit presses a side of the camshaft and the second balance unit presses the other side of the camshaft.

Abstract: A medical image apparatus is provided. The medical image apparatus includes a main body that is travelable, a column vertically coupled to the main body, a straight arm moving unit sliding in a longitudinal direction of the column, a straight arm coupled to the straight arm moving unit and rotating with respect to the column, and a source arm located on a side of the straight arm, perpendicular to the straight arm, and including a source driving rail through which a source assembly slides. The straight arm is coupled to a moving unit rotating shaft formed on the straight arm moving unit, and is rotatable with respect to the column about the moving unit rotating shaft, and the source arm is fixed to the side of the straight arm.

Abstract: A real-time inline digital tomosynthesis system according to an embodiment of the present disclosure includes a subject moving rail configured to move a subject in a preset direction and at a preset speed, a pair of an X-ray generator and an X-ray detector fixedly provided to face each other in a first direction of the subject moving rail, a subject position identifier configured to identify and notify a current position of the subject based on an image or a sensor, and an image reconstructor configured to obtain a plurality of X-ray images having different subject positions through the X-ray detector based on the current position of the subject, and then reconstruct and output the plurality of X-ray images as at least one of a tomographic image for each section and one three-dimensional (3D) image.

Abstract: Provided is an X-ray image photographing device, and more particularly, a portable X-ray image system available for multiple uses. In addition, disclosed is an X-ray image photographing device, and more particularly, an operating table which may be coupled to a portable X-ray image device.

Abstract: Provided is an X-ray image photographing device, and more particularly, a portable X-ray image system available for multiple uses. In addition, disclosed is an X-ray image photographing device, and more particularly, an operating table which may be coupled to a portable X-ray image device.

Abstract: The present disclosure relates to an apparatus for alignment of multilayer film mirrors for a monochromatic X-ray generator and an X-ray image detecting method using the same. The apparatus for alignment of multilayer film mirrors for a monochromatic X-ray generator includes a collimator disposed between an X-ray generating unit and a detector and aligning them and limiting the radiation direction of X-ray to provide an optimum incident angle to multilayer film mirrors generating the monochromatic X-ray from the X-ray.

Abstract: The present disclosure relates to a method for generating a respiration gating signal of an X-ray micro-computed tomography scanner. The respiration cycle of repeating inhalation and exhalation of an experimental animal is acquired by imaging the abdomen or chest of the experimental animal respiring under anesthesia fixed on a couch disposed between an X-ray irradiator and an X-ray detector fixed to a rating gantry, and then a respiration gating signal that is synchronized at the point of time when the respiration is judged to stop.

Abstract: A soft X-ray microscope includes a table (10); a housing (20) installed to the upper side of the table (10) and having a partition (22); a light source chamber (30) installed lower than the partition (22) of the housing (20) to project a light to liquid jetted under a high pressure to generate plasma; a mirror chamber (40), installed above the partition (22) of the housing (20), in which first and second mirror (410 and 430) are respectively installed to upper and lower sides of a holder (420) for storing a living sample, the soft X-ray generated by the plasma generated in the light source chamber (30) illuminates the living sample, and the soft X-ray penetrated the living sample is amplified to obtain an image in an image capturing chamber; and an image capturing chamber (50) installed to the upper side of the housing (20) to amplify a light image signal amplified through the mirror chamber (40) and to capture the light image on an external screen to allow distinguishing the light image from exterior.

Abstract: A soft X-ray microscope includes a table (10); a housing (20) installed to the upper side of the table (10) and having a partition (22); a light source chamber (30) installed lower than the partition (22) of the housing (20) to project a light to liquid jetted under a high pressure to generate plasma; a mirror chamber (40), installed above the partition (22) of the housing (20), in which first and second mirror (410 and 430) are respectively installed to upper and lower sides of a holder (420) for storing a living sample, the soft X-ray generated by the plasma generated in the light source chamber (30) illuminates the living sample, and the soft X-ray penetrated the living sample is amplified to obtain an image in an image capturing chamber; and an image capturing chamber (50) installed to the upper side of the housing (20) to amplify a light image signal amplified through the mirror chamber (40) and to capture the light image on an external screen to allow distinguishing the light image from exterior.