Abstract: Understanding and predicting material behavior is inherently complex;
however, underlying symmetries provide a powerful framework to guide these
efforts. The recent discovery of altermagnetism—spin-split, even-parity compensated
magnets— has shown that spin symmetries can uncover exchange-driven phenomena
that were previously overlooked. Building on this insight, in my recent works I
explore spin symmetry criteria [1, 2] to identify the odd-parity effective time-reversal
symmetric magnetic states —termed anti-altermagnets— in noncollinear systems,
focusing on effects driven purely by exchange interactions, independent of spin–orbit
coupling. I will present these unconventional magnetic phases and their distinctive
response signatures [1, 2]. Remarkably, they enable a large, purely non-relativistic
out-of-plane charge-to-spin conversion [2], fundamentally different from the
conventional Rashba–Edelstein effect.Then I will briefly discuss my broad research experiences, developmental experiences, and professional background, which enable the exploration and design of novel magnetic and quantum materials beyond conventional limits. Finally, I will conclude by outlining three future research directions demonstrating how symmetry-
guided design of quantum materials can unlock entirely new functionalities for next-
generation spintronic and quantum technologies.