研究方向

Exploring the exotic realm of topological phases, we uncover materials with protected boundary states that defy conventional classification. Our work spans topological insulators, Weyl semimetals, and higher-order topological systems, revealing how geometry and symmetry conspire to create robust electronic states. These discoveries pave the way for next-generation low-power electronics and fault-tolerant quantum technologies, where information flows without dissipation along protected pathways.

Witnessing the elegant choreography of electrons in quantum materials, we study transport phenomena where topology dictates electron flow. Our research on quantum Hall effects and chiral anomaly reveals how electrons navigate materials with minimal scattering. These insights inspire novel device concepts for ultra-sensitive sensors, efficient energy conversion, and next-generation electronic circuits that harness topological protection.

Delving into the quantum realm of superconductivity, we investigate materials where electrons form Cooper pairs with exotic symmetries and topological protection. Our research on Majorana fermions and topological superconductors seeks to harness these elusive particles for fault-tolerant quantum computation. By engineering novel superconducting states, we aim to create quantum bits that are intrinsically protected against decoherence, revolutionizing information processing.

In the magnetic landscape where electron spins orchestrate novel quantum phenomena, we explore magnetic topological materials that intertwine magnetism with topology. These systems exhibit extraordinary properties like the quantum anomalous Hall effect and chiral edge states. Our research aims to manipulate spin textures for next-generation spintronic devices, enabling ultra-fast, energy-efficient information processing and storage technologies.