Fig. 1. Schematic diagram of all-optical diagnostic technology for single point pulse behavior measurement

Fig. 2. Typical measurement results of single pulse transient behavior

Fig. 3. Optical path diagram of high time-resolving all optical scanning diagnostic technology based on photorefractive effect

Fig. 4. Schematic diagram of all-optical framing imaging diagnostic technique

Fig. 5. Time response data of all-optical frame imaging diagnostic converter

Fig. 6. Optic design of the reflective KB microscope

Fig. 7. (a) Energy responses of the KB microscope and (b) the reflectivity spatial distribution of 6 keV X-ray

Fig. 8. Backlit image of the four-phase mesh and the analysis of the spatial resolution of full reflection KB imaging system

Fig. 9. Measured hot spot images in the exploding pusher target and the indirectly driven implosions

Fig. 10. Optics design of the multi-layer coated quasi-monenergistic response KB microscope

Fig. 11. Throughout response of the multi-layer coated KB microscope （a） and the backlit image of an 1000# Ni mesh （b） and the hot spot image in the hohlraum driven implosion （c）

Fig. 12. Schematic diagram of imaging principle for each imaging dimension of KBA micro imaging system

Fig. 13. （a）structural diagram of dual channel KBA-KB imaging system；（b）the backlit image of a 600# Au mesh

Fig. 14. （a） Structural diagram of the AKB imaging system；（b） optics diagram of the AKB imaging in sagittal and tangential directions

Fig. 15. (a) Spherically bent crystal samples fabricated by LFRC and (b) the test result at laser facility

Fig. 16. Diagram of the monochromatic imaging system with spherical crystal installed on the DIM

Fig. 17. 2D radiography applications of the monochromatic imaging system with spherical crystal

Fig. 18. Implosion trajectory measurement image by the monochromatic imaging system with spherical crystal

Fig. 19. （a）Single line-of-sight （SLOS） X-ray imager and（b） schematic diagram of photoelectron expanding principle

Fig. 20. （a）Schematic diagram of four end fed cathode structure and（b）four channel composite waveforms

Fig. 21. （a）Photo of drift tube of double lens short magnetic focusing lens and（b）image of adjusting the current of two magnetic lenses to obtain 10 lp/mm resolution

Fig. 22. Geometric model for neutron penumbral imaging

Fig. 23. Designed biconic-shaped geometric aperture parameters and the spatial resolution contributed by the aperture

Fig. 24. Measured line-spread function of the neutron image detector

Fig. 25. Principle of the light field camera