Photographic sensor plate, process for making a dual energy radiographic sensor plate without film, for erasing previous images before the next exposure and exposure of the photographic image sensor without film, for erasing, exposing and reading a sensor image photographic image without film, for scanning a plurality of pixels, for acquiring an image stored in an image storage sensor, and for acquiring signals from a segmented plate, and scanning systems for parallel operation for reading of a sensor that temporarily stores an image, for x-ray of mammography without film, for x-ray radiology without film, and electrical for signal processing of a segmented plate without appreciable degradation in the segmentation interfaces

摘要

"PHOTOGRAPHIC SENSOR BOARD, PROCESSES TO MAKE A DOUBLE ENERGY RADIOGRAPHY SENSOR BOARD WITHOUT FILM, FOR THE DELETION OF PREVIOUS IMAGES BEFORE THE NEXT EXPOSURE AND EXPOSURE OF THE PHOTO IMAGE SENSOR WITHOUT A FILMING, A SHUTDOWN PHOTOGRAPHIC IMAGE SENSOR WITHOUT FILM, FOR SCANNING A PLIXALITY OF PIXELS, FOR ACQUISITION OF AN IMAGE STORED IN AN IMAGE STORAGE SENSOR, AND FOR THE ACQUISITION OF SIGNS OF A SEGMENTED PLATE, AND, SYSTEMS FOR THE VARIATION OF SECTORED VARASURE. READING OF A SENSOR THAT TEMPORARILY STORES AN IMAGE, FOR X-RAY MAMOGRAPHY WITHOUT FILM, FOR X-RAY RADIOLOGY WITHOUT FILM, AND ELECTRIC FOR PROCESSING SIGNS OF A SEGMENTED PLATE WITHOUT APPROPRIATE Degradation IN THE SECTIONAL SENSATION INTERFACES "image plates" without film (20) that are particularly effective in industrial and medical radiology applications including high resolution without limiting it. Together, the sensor plates (20) provide fast productions of high resolution images that exhibit greater sensitivity and a wider dynamic range than current X-ray systems. The innovative sensor board structures (20) provide images with attributes of greater sensitivity; the dual plate design (20) provides higher pixel reading speed and dual differential energy image production; and isolated segments (102A-H) through which several pixels are read simultaneously to reduce the overall image processing time. Generally, the plates (20) employ a homogeneous photoconductive material such as amorphous selenium and are read by exposing each pixel-sized area to a small diameter scanning beam. Using the light beam scan, the resulting design of the plate (20) promises low-cost manufacturing for the sensor plates (20). The innovative application of electric fields during the preparation, exposure and reading of the plate (20) increases the performance of the sensor plate (20).