GraduateDepartment of Physics, Chung-Ang University
- Laboratory
무질서계 이론물리 연구실 (김건우 교수님) / Quantum Statistical Physics Lab (Prof. Kun Woo Kim)-
▪ 연구실 소개 : 무질서계 이론물리 연구실 (김건우 교수님)
· 홈페이지 https://sites.google.com/view/kunx
· 구성원: 박사과정 학생: 정인구; 석사 후 연구원: 장형윤, 박찬호; 학부연구생: 김봉수, 배준현, 윤창렬, 최민석, 공진원, 이은호
▪ 연구방법
Our research group searches for various novel features in disordered quantum matter under out-of-equilibrium conditions. Associated theories and methods, if necessary, will be learned as your re-search moves forward. The structure of the way our theory research works can be roughly sketched as follows:(i) Spot an interesting problem to investigate from various sources (seminar talks, research papers, news media, etc.). While the concept of ‘interesting’ is subjective, if you can draw your colleagues’ attention to the problem, then it may be interesting enough. (ii) Model the problem. Construct a minimal model that can capture the essential physics that you are pursuing. This step is crucial. It is highly related to the successful completion of a project. (iii) Solve the model and find relevant physical quantities of your sought-after problem. In our research group, we employ numerical and analytic approaches together. A seemingly simple model in physics often doesn’t yield a simple analytic solution. Numerical approaches are often limited by computing resources. The two (or more, if available) approaches shall be joined and provide consistent results. Our group typically enjoy but not limited to the following techniques:· Condensed matter field theory· Numerical analysis, Computational methods· Non-equilibrium Green's function approach(iv) Propose feasible experiments which can verify your ‘theory’. No matter how bizarre your theory is, condensed matter systems will find you a platform of your theoretical predictions and it will unfold more of unexpected phenomena.
▪ 최근 연구 주제/성과/수행과제
· Quantum electrodynamics of photonic time crystals (Nature Communications, 2025)
· Thermoelectric transport Driven by the Hilbert–Schmidt Distance (Advanced Science, 2024)
· Floquet simulators for topological surface states in isolation (Physical Review X, 2023)
· Optimal superconducting hybrid machine (Physical Review Research, 2023)
· Probing the topological Anderson transition with quantum walks (Physical Review Research, 2021)
· Quantum criticality of Floquet topological insulators (Physical Review B, 2020, Editor's suggestion)
· Nanomechanical characterization of quantum interference in a topological insulator nanowire (Nature Communications, 2019)
· Experimental realization of on-chip topological nanoelectromechanical metamaterials (Nature, 2018)
· Shift charge and spin photocurrents in Dirac surface states of topological insulator (Physical Review B, 2017)
· Surface to bulk Fermi arcs via Weyl nodes as topological defects (Nature Communications, 2016)
Tel : 02-820-5189
Fax : 02-825-4988-
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- 서울특별시 동작구 흑석로 84(중앙대학교 물리학과)
Tel: 02-820-5189 | Fax: 02-825-4988 | E-mail : cauphys@gmail.com
- 개인정보처리방침
서울특별시 동작구 흑석로 84(중앙대학교 물리학과)
Tel: 02-820-5189 | Fax: 02-825-4988 | E-mail : cauphys@gmail.com