The (160kV) 3D X-ray Nano-Scale Computed Tomography-High-Performance Computing (HPC) represents an advanced imaging technique that seamlessly integrates a high-energy X-ray source with sophisticated computational capabilities for detailed three-dimensional analysis of nanoscale structures . This cutting-edge approach is designed to unveil the intricate internal features of materials with unprecedented precision.

At its core, the method involves subjecting a sample to rotational scanning, where high-energy X-rays at 160 kilovolts penetrate through the material, capturing projections at multiple angles. These X-ray projections, showcasing the material's attenuation characteristics, form the basis of a comprehensive dataset. What sets this technique apart is the subsequent reconstruction process, empowered by High-Performance Computing. The computational prowess enables the rapid and intricate reconstruction of a high-resolution 3D volume from the acquired projections.

The (160kV) 3D X-ray Nano-Scale Computed Tomography-HPC approach provides researchers and scientists with an unparalleled tool for non-destructive exploration and analysis of nanoscale structures. From materials science to biology, the application of this technique opens new avenues for understanding and characterizing the internal morphology, distribution, and features of nanomaterials, contributing significantly to advancements in diverse scientific fields.