Towards Next-Gen Attosecond Science at SLAC

POSTER

Abstract

The Time-resolved AMO (TMO) instrument at the SLAC LCLS free-electron laser uses soft x-rays to study ultrafast molecular dynamics through photoelectron spectroscopy. I contributed to upgrades and R&D preparing TMO for LCLS-II’s world-record repetition rate. My work focused on benchmarking and improving a time-of-flight camera, which measures the kinetic energy spectra of photoelectrons, providing insight into electron dynamics in non-equilibrium states. With the LCLS-II upgrade requiring more simultaneous measurements, I also assisted in constructing a new chamber to accommodate additional spectrometers and diagnostic tools. This work supports TMO’s role as a leading platform for ultrafast science, enabling future experiments to probe fundamental processes in atoms and molecules with unprecedented resolution.

Publication: Kurtis Borne, Jordan T. O'Neal, Jun Wang, Erik Isele, Razib Obaid, Nora Berrah, Xinxin Cheng, Philip H. Bucksbaum, Justin James, Andrei Kamalov, Kirk A. Larsen, Xiang Li, Ming-Fu Lin, Yusong Liu, Agostino Marinelli, Adam M. Summers, Emily Thierstein, Thomas J. A. Wolf, Daniel Rolles, Peter Walter, James P. Cryan, Taran Driver; Design and performance of a magnetic bottle electron spectrometer for high-energy photoelectron spectroscopy. Rev. Sci. Instrum. 1 December 2024; 95 (12): 125110. https://doi.org/10.1063/5.0223334

Presenters

  • Siddharth Adiraju

    University of California, Santa Barbara

Authors

  • Siddharth Adiraju

    University of California, Santa Barbara

  • Taran Driver

    SLAC National Accelerator Laboratory

  • James P Cryan

    SLAC National Accelerator Laboratory