PulseExploreJournal ClubDebatesTrendingResearchersJournals
Instagram
HomeExploreJournal ClubTrending
Synapse
⌘+K
Synapse
April 4, 2026JACOW0 citationsOpen Access

Development of a Coherent Diffractive Imaging Endstation at the SPring-8-II 12XU

View Full Paper
BCBo-Yi ChenCCChi ChanCCChao-Chih Chiu

Key Points

  • To develop a coherent diffractive imaging endstation at the SPring-8-II 12XU beamline for enhanced imaging.
  • Designing a zone plate-based X-ray microscope and detector system.
  • Incorporating a granite base for mechanical stability.
  • Using Invar alloy for low thermal expansion in stage construction.
  • Equipping modules with piezo-driven translation stages for precise positioning.
  • Improved mechanical stability and thermal control of the imaging system.
  • Enhanced image resolution through optimized detector positioning.
  • Greater flexibility in experimental settings for diffractive imaging.

Abstract

The National Synchrotron Radiation Research Center operates two beamlines, 12B2 and 12XU, at the Super Photon ring-8 GeV. The SPring-8 II significant improvements in beam properties such as coherence, stability, and intensity are expected. NSRRC has initiated the construction of a Coherent Diffractive Imaging endstation on beamline 12XU. This endstation consists of two main subsystems: zone plate-based X-ray microscope and detector assembly. The microscope is mounted on a granite base to ensure mechanical stability and to minimize vibrational and thermal disturbances. The zone plate-based microscope comprises beam stopper, zone plate optic, optical stop aperture, and sample positioning stage. Each module is equipped with an independent XYZ piezo-driven translation stage. To further mitigate thermal drift and ensure dimensional stability, the stage bases are constructed from Invar alloy, which offers low thermal expansion characteristics critical to maintaining optical alignment over extended experimental durations. The detector system is mounted on a precision linear guideway allowing for fine adjustments of the distance to optimize image resolution and experimental flexibility.

Ask AI
Helpful
Bookmark
Share
View Full Paper

Cite This Study

Chen et al. (2026) studied this question.

synapsesocial.com/papers/69d0afc7659487ece0fa5d06https://doi.org/10.18429/jacow-medsi2025-tuob05
Ask AI
Helpful
Bookmark
Share
View Full Paper

Also Consider

Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context:

  1. 1Upgrade of the Coherent X-ray Scattering beamline at Pohang Light Source II2025 · 2 citations
  2. 2Test bench for development of cooling mechanism of the first optical crystal towards SPring-8-II2026
  3. 3Design and technical commissioning of the In Situ Nanoprobe endstation and instrument at the Advanced Photon Source2026
  4. 4High-throughput and high-resolution powder X-ray diffractometer consisting of six sets of 2D CdTe detectors with variable sample-to-detector distance and innovative automation system2024 · 36 citations
  5. 5High-throughput X-ray total scattering measurement system at BL04B2 of SPring-82026 · 5 citations