The interplay between charge, spin, orbital, and lattice in strongly correlated oxide materials leads to a plethora of implications in both scientific research and technological applications. Emergent phenomena in oxide quantum materials, exhibited across a diverse array of material forms, offer novel functional properties of ceramics that extend beyond conventional electronic applications. This symposium covers recent advances in the synthesis and characterization of oxide quantum materials, encompassing thin film heterostructures, bulk crystals, membranes, and nanomaterials. Topics of interest include epitaxial growth of complex oxides, exploration of new materials, investigation of quantum/electronic/magnetic properties, advanced characterization techniques, theory and computation, and device applications.

This symposium aims to bring together scientific experts and young scientists with an interest in oxides, fostering interactions and advancing knowledge of emergent functional properties and related hardware concepts for unconventional computing.

Session Topics:

Emergent quantum properties at oxide interfaces
Unconventional superconductivity in oxides
Oxide materials for novel computing devices
Characterization of oxide quantum materials
Epitaxial design of novel oxide quantum materials
Synthesis and characterization of freestanding oxide membranes
Twisted oxide and moiré-oxide platforms, and correlated phenomena arising from moiré superlattices
Autonomous/closed‑loop experimentation and accelerated discovery of novel materials and growth conditions

Symposium Organizer(s):

Seung Sae Hong, University of California, Davis, USA
Jennifer Fowlie, Northwestern University, USA
Changhee Sohn, UNIST
Elizabeth Nowadnick, University of California, Merced, USA
Sebastian Reyes Lillo, Andres Bello University, Chile

Point(s) of Contact:

Seung Sae Hong; sshong@ucdavis.edu

Division Sponsor(s):

Basic Science Division
Electronics Division

ACerS Spring Meeting 2027

May 23 • 28, 2027