
معرفی
Alex Frañó is an Assistant Professor in the Physics Department at the University of California, San Diego (UCSD), leading research on quantum materials and strongly correlated electron systems using advanced x-ray scattering techniques at international synchrotron facilities.
His educational background includes:
- Bachelor's degree in Physics from the National University of Honduras in Tegucigalpa
- Master's degree from the University of Stuttgart
- Ph.D. from the Max Planck Institute for Solid State Research under Prof. Bernhard Keimer
Frano's research investigates emergent phenomena in transition-metal-oxide ceramics including magnetism, charge/orbital order, and high-temperature superconductivity. His group specializes in resonant elastic/inelastic x-ray scattering, coherent scattering, and high-resolution diffraction to probe spatial ordering in bulk crystals and epitaxial films. Additional interests encompass self-assembly in polymer-grafted nanoparticles and materials for brain-inspired neuromorphic computing.
Recent publications (2023-2025) reveal a focused trajectory applying x-ray methodologies to quantum material systems, with key contributions in structural characterization of neuromorphic filaments, phase-change dynamics, and novel charge ordering phenomena in layered compounds.
His scientific awards include:
- Ernst-Eckhard-Koch Prize
- Springer Outstanding PhD Research Prize
- University of California Presidential Postdoctoral Fellowship
- Sloan Research Award (2020)
- Cottrell Scholar Award (2021)
- NSF CAREER award (2022)
- CIFAR Global Azrieli Fellow (2022)
Frano advises eight graduate students and multiple undergraduates in the Frano X Lab while serving as Assistant Director of a Department of Energy-funded Energy Frontier Research Center developing quantum materials for energy-efficient neuromorphic computing. His grant portfolio includes the NSF CAREER award and DOE center funding.
The Frano X Lab (X-ray Laboratory for Research on Quantum Materials) at UCSD La Jolla investigates spin, charge, and orbital quantum states in transition-metal-oxide heterostructures using global synchrotron facilities including ALS, SSRL, APS, and ESRF.


