Abstract: A nuclear image processing method is provided. The method includes the following steps: inputting a normalized standard space nuclear image; selecting a voxel of the normalized standard space nuclear image and collecting the values of the neighbor voxels to form a voxel value set; conducting a data augmentation algorithm to generate a voxel distribution function; calculating an expected value of the distribution and calculating a first standard deviation of the portion over the expected value and a second standard deviation of the portion lower than the expected value; repeating the above steps to calculate the expected value, the first standard deviation and the second standard deviation of the necessary voxels, so as to form an image standardization template set including expected value template, first standard deviation template and the second standard deviation template.

Abstract: A system of predicting risks with biomedical data includes a data collecting unit for receiving a plurality of data before arranging and integrating each of the plurality of data to create a plurality of medical data; a data processing unit for receiving the plurality of medical data, performing a data processing process on each of the plurality of medical data, and arranging and integrating each of the processed data to create a plurality of risk determination information; and a judgment unit comprising a storage unit and a prediction unit, wherein the plurality of risk determination information is stored in the storage unit, and the prediction unit performs estimation according to the plurality of risk determination information to generate a risk evaluation information.

Abstract: A nuclear image processing method is provided. The method includes the following steps: inputting a normalized standard space nuclear image; selecting a voxel of the normalized standard space nuclear image and collecting the values of the neighbor voxels to form a voxel value set; conducting a data augmentation algorithm to generate a voxel distribution function; calculating an expected value of the distribution and calculating a first standard deviation of the portion over the expected value and a second standard deviation of the portion lower than the expected value; repeating the above steps to calculate the expected value, the first standard deviation and the second standard deviation of the necessary voxels, so as to form an image standardization template set including expected value template, first standard deviation template and the second standard deviation template.

Abstract: A scanning system includes a first base, a bed panel, a bed board, a second base and an X-ray mechanism. The bed panel, movably located on the first base, includes a first image-receiving module. The bed board is movably located on the bed panel. The second base, located aside to the first base, includes a second image-receiving module. The X-ray mechanism, connected with the first base, includes an X-ray tube. While the bed panel and the bed board are moved away from the second base, and the X-ray mechanism is moved toward the second base; then, the X-ray tube would undergo a vertical movement to a position aside to a lateral side of the first base by facing the second base.

Abstract: A scanning system includes a first base, a bed panel, a bed board, a second base and an X-ray mechanism. The bed panel, movably located on the first base, includes a first image-receiving module. The bed board is movably located on the bed panel. The second base, located aside to the first base, includes a second image-receiving module. The X-ray mechanism, connected with the first base, includes an X-ray tube. While the bed panel and the bed board are moved away from the second base, and the X-ray mechanism is moved toward the second base; then, the X-ray tube would undergo a vertical movement to a position aside to a lateral side of the first base by facing the second base.

Abstract: The invention provides a loading mechanism for x-ray tube. The loading mechanism for x-ray tube includes an x-ray tube, a swing element and a rotating element. The x-ray tube includes a focal spot location and an x-ray opening. The swing element includes a first rotating axis, and the first rotating axis passes through the focal spot location. The swing element rotates about the first axis to rotate the x-ray tube within a limit swing range. The rotating element is connected to the swing element. The rotating element has a second rotating axis, and the first rotating axis perpendicular to the second rotating axis. The rotating element rotates about the second rotating axis to drive rotate the x-ray tube and the swing element. In addition, the scanning system for three-dimensional image is provided.

Abstract: The invention provides a loading mechanism for x-ray tube. The loading mechanism for x-ray tube includes an x-ray tube, a swing element and a rotating element. The x-ray tube includes a focal spot location and an x-ray opening. The swing element includes a first rotating axis, and the first rotating axis passes through the focal spot location. The swing element rotates about the first axis to rotate the x-ray tube within a limit swing range. The rotating element is connected to the swing element. The rotating element has a second rotating axis, and the first rotating axis perpendicular to the second rotating axis. The rotating element rotates about the second rotating axis to drive rotate the x-ray tube and the swing element. In addition, the scanning system for three-dimensional image is provided.

Abstract: A tomographic scanning apparatus for scanning an object under test and retrieving projection-related data of the object with a light/radiation source and a detector operating in conjunction therewith includes an object carrier, a light/radiation source carrier, a detector carrier, a control module, a processing module, and a rail system (or rotating arm). The object carrier is disposed at a center of the rail system or a center of rotating tracks of the rotating arm. The light/radiation source carrier and the detector carrier move along a rail of the rail system or along the rotating tracks of the rotating arm. The carriers have a rotating mechanism, moving mechanism, and/or height adjusting mechanism for performing rotation, horizontal movement, and/or height adjustment. Accordingly, the tomographic scanning apparatus operates in various ways to suit various applications, respectively.

Abstract: An apparatus for X-ray photography includes a first X-ray source, a first driving device, and an image detecting device. The first X-ray source has a light emitting end, provided with a block element. The first X-ray source generates an X-ray beam, and the block element is used for constraining a projection field of the X-ray beam, so that the X-ray beam has a first boundary. The X-ray beam is cast onto an object, and the object has a reference center and an imageable area. The first driving device is used for driving the first X-ray source to rotate around the object within an angle range with the reference center of the object as a center, so that when the first X-ray source is located at a first position, the first boundary passes through the reference center.

Abstract: A tomographic scanning apparatus for scanning an object under test and retrieving projection-related data of the object with a light/radiation source and a detector operating in conjunction therewith includes an object carrier, a light/radiation source carrier, a detector carrier, a control module, a processing module, and a rail system (or rotating arm). The object carrier is disposed at a center of the rail system or a center of rotating tracks of the rotating arm. The light/radiation source carrier and the detector carrier move along a rail of the rail system or along the rotating tracks of the rotating arm. The carriers have a rotating mechanism, moving mechanism, and/or height adjusting mechanism for performing rotation, horizontal movement, and/or height adjustment. Accordingly, the tomographic scanning apparatus operates in various ways to suit various applications, respectively.

Abstract: An apparatus for X-ray photography includes a first X-ray source, a first driving device, and an image detecting device. The first X-ray source has a light emitting end, provided with a block element. The first X-ray source generates an X-ray beam, and the block element is used for constraining a projection field of the X-ray beam, so that the X-ray beam has a first boundary. The X-ray beam is cast onto an object, and the object has a reference center and an imageable area.