157 / 2026-03-31 21:29:02
An X-ray Streaked Imaging System Integrated with Endoscope
X-ray Streaked Imaging System,Endoscope
Abstract Accepted
Junfei Ma / Shanghai Jiao Tong University
Haochen Gu / Institute of physics, Chinese Academy of Sciences
Xu Zhao / Shanghai Jiao Tong University;University of York
Shan Wei / Shanghai Jiao Tong University
Xiaohui Yuan / Shanghai Jiao Tong University
Zhe Zhang / Shanghai Jiao Tong University;Institute of physics; Chinese Academy of Sciences;Songshan Lake Materials Laboratory;Collaborative Innovation Centre of IFSA (CICIFSA)
Jie Zhang / Shanghai Jiao Tong University;Institute of physics, Chinese Academy of Sciences
X-ray streak cameras possess high spatial and temporal resolutions, making them an indispensable diagnostic tool in double-cone ignition (DCI) experiments. In DCI experiments, X-ray imaging enables precise measurement of compression velocity and implosion velocity, which are critical parameters for achieving ignition. The targeting technology is one of the core challenges faced by diagnostic devices and directly determines the efficiency of experimental data acquisition.



In this study, we present the development of a two-dimensional imaging enabled x-ray streak camera system. By attaching a scintillator plate in front of the cathode, x-ray emissions beyond the cathode slit are converted into visible light and recorded by an imaging camera. This system efficiently diagnoses the x-ray emissions within a single line of sight. The time-resolved mode provides the temporal evolution of distinct placement self-emission regions. The time-integrated mode reveals implosion asymmetry and the spatial sampling region of the streak camera, providing 2D spatial distribution information. This advancement extends the capabilities of imaging x-ray streak cameras, significantly reduces the targeting difficulty.



Experiments performed at the Shenguang-II Upgrade facility have validated the design scheme. X-ray emissions from the coronal and colliding plasma, originating from different spatial regions and time durations, were simultaneously measured by the scintillator and cathode. These results reveal fundamental compression parameters of the DCI scheme, such that the speed of the inner surface is about 70 km/s, which represents the efficient conversion of laser energy to target kinetic energy. Time-integrated images display the sampling region of the streak camera in real time, providing a reference for achieving drive symmetry.

 
Important Date
  • May 12

    2026

    Conference Date

  • Apr 15 2026

    Draft paper submission deadline

  • May 12 2026

    Registration deadline

Sponsored By
National Key Laboratory of Plasma Physics, Laser Fusion Research Center, China Academy of Engineering Physics
Xiamen University