Compton Scattered X-Ray Imaging with Time-of-Flight Depth Localization

The patent segments the imaging process by using multiple detector assemblies positioned at different locations to detect scattered X-rays from different angles and depths. Each detector assembly captures information from specific depth ranges, which are then separately processed and combined to generate high-resolution images with depth-specific detail, resolving the contradiction between penetration depth and image clarity.

The patent introduces time-of-flight measurements as an additional dimension to traditional X-ray imaging. By measuring the time it takes for scattered X-rays to reach detectors, the system creates four-dimensional data (three spatial dimensions plus time), enabling precise depth localization and high-resolution imaging at multiple depths simultaneously, thus maintaining both penetration capability and image clarity.

The patent replaces complex mechanical positioning systems with computational methods. Instead of physically moving detectors to multiple positions, the system uses time-of-flight measurements and deconvolution algorithms to computationally determine the origin and depth of scattered X-rays, achieving high-resolution depth visualization while reducing mechanical complexity.

The patent introduces specialized processing electronics and software algorithms as intermediaries between the detector assemblies and the final image output. These intermediaries perform deconvolution and time-of-flight calculations, separating the complex processing tasks from the hardware design and enabling high-quality imaging without proportionally increasing overall system complexity.