LabVIEW-Driven Discovery: Next-Gen X-Ray Detectors for Human...
summary
LabVIEW drives the whole pipeline: PC Monte Carlo sims port to FPGA to run 4000× faster, then LabVIEW characterizes fabricated hybrid CMOS pixels and controls synchrotron runs at 70 k fps and commercial systems that reach 56,000 frames per second. The team embeds FPGA logic, handles 30–56 Gbit/s streams, records >200,000 frames for X‑ray correlation, and ships detectors with LabVIEW drivers so end users get working control code in minutes.
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chapters (15)
- 0:00Introduction
- 1:19Hybrid pixel detectors overview
- 3:27Detector channels and charge sharing
- 5:37Simulating detector channels
- 7:43Testing ASICs with LabVIEW
- 9:55Embedded system with sbRIO
- 12:28Final embedded system design
- 13:54Asynchronous detector architecture
- 14:57FPGA for high-speed data
- 16:23Synchrotron experiments
- 18:55X-ray correlation spectroscopy
- 20:45Commercial detector development
- 21:51LabVIEW for verification
- 22:54Data server software
- 23:37Summary and Q&A
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