SLAC National Accelerator Laboratory
Showing 41-60 of 75 Results
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Otavio J. Marques
Postdoctoral Scholar, Photon Science, SLAC
BioMaterials scientist with 10+ years of experience in solid-state chemistry, electrochemistry, and advanced characterization, with a focus on Li-ion and Na-ion battery development. Currently contributing to the U.S. DOE’s DRX+ and LENS initiatives through the design, synthesis, and diagnosis of next-generation energy-storage materials. Also involved in the HERMES consortium, supporting critical-mineral characterization and high-throughput analytical workflows for strategic resource development.
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Christopher J. Miller
Postdoctoral Scholar, Photon Science, SLAC
BioI am a chemist and Postdoctoral Scholar at SLAC National Accelerator Laboratory, where my research focuses on the core challenges of electrochemical energy conversion and sustainable chemistry. Working within the DOE BETO CO2RUe consortium, I investigate the dynamic behavior of catalysts in CO₂ electrolyzers. My primary approach involves using advanced operando characterization techniques, particularly X-ray Absorption Spectroscopy (XAS), to build comprehensive models that link a catalyst's atomic-scale structure to its real-world device performance.
My philosophy is that progress requires bridging fundamental science with practical systems engineering. To that end, my expertise includes the ground-up design, construction, and automation of experimental systems. I specialize in building fully integrated electrochemical test stations and gas delivery infrastructure, tailored to deliver high-quality, reproducible data with robust safety features and remote-operation capabilities. Complementing this hardware, I develop custom MATLAB software suites to automate data processing and analysis, significantly accelerating the path from raw data to actionable scientific insight.
In addition to my research, I am deeply committed to education and professional service. As a recent fellow in Stanford's Preparing Future Professors (PFP) program, I received formal training in pedagogy and gained direct mentorship experience at San Jose State University. This commitment extends to the broader scientific community through my long-standing leadership roles within the American Chemical Society (ACS), where I contribute to governance, chemical safety initiatives, and professional development for younger chemists. I am always interested in discussing new collaborations at the intersection of spectroscopy, catalysis, and system design. -
Dr. Christopher T. Parzyck
Postdoctoral Scholar, Photon Science, SLAC
BioMy research interests lie at the intersection of materials science and condensed matter physics. I work on thin film synthesis of oxide and metal systems by molecular-beam epitaxy (MBE). Applications range from answering fundamental physics questions about high temperature superconductivity to developing practical synthesis routines and new materials for next generation electron sources. In addition, I work on projects involving spectroscopic probes of thin film systems, including angle-resolved photoemission spectroscopy (ARPES) and resonant soft x-ray scattering (RSXS) measurements.
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Weiyu Qian
Postdoctoral Scholar, Photon Science, SLAC
BioWeiyu Qian is a postdoctoral researcher at the PULSE Institute. He is focusing on the spectroscopic characterization of fleeting species and chemical reaction paradigm. He received Walter Benjamin Fellowship from DFG. During his time in Germany, he independently drove the discovery of N6 from initial conception to final execution, performing both the experimental synthesis and the computational analyses (10.1038/s41586-025-09032-9, Nature 642, 356–360 (2025)). Drawing on his observations of the academic ecosystem, he also published a correspondence regarding the power imbalances in adviser–student relationships (10.1038/d41586-026-01776-2, Nature 654, 290 (2026)).
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Dongjae Shin
Postdoctoral Scholar, Photon Science, SLAC
BioMy current research focuses on the design of catalytic materials. I have studied atomistic phenomena on catalytic surfaces to develop materials with improved catalytic capability under the philosophy of rational design. To achieve this goal, I use computational approaches, e.g., first-principles calculations and artificial intelligence (AI). Applications include heterogeneous catalysis for exhaust emission control, hydrogen production, and utilization of emission gas to realize carbon neutralization.
