时 间:17:00-18:00, July 30, 2026 (Thu)地 点:RM 1-222, FIT Building内容:Quantum systems host fascinating phases like superconductivity, quantum Hall, topological order, etc that have no classical counterpart. Understanding what quantum phases exist and how phase transitions happen between them is the ultimate goal of condensed matter. But this is notoriously hard, especially in systems w...
时 间:16:00-16:45, Jul 24, 2026 (Fri)地 点:RM 1-222, FIT Building内容:We investigate the structural properties, including isomerization, and melting behavior of two-dimensional ion crystals in an RF trap, focusing on the effects of ion temperature and trap potential anisotropy. We identify distinct crystal structures that form under varying trapping conditions and temperatures through ex...
时 间:10:00-10:45, Jul 24, 2026 (Fri)地 点:RM 1-222, FIT Building内容:Understanding how molecular vibrations afiect charge and energy transfer in complex chemical and biological systems requires modeling the interactions among the electronic, spin, and vibrational degrees of freedom, which cannot be treated independently, especially when the Born-Oppenheimer approximation breaks down. Tr...
时 间:10:30-12:00, Jun 12, 2026 (Fri)地 点:RM S327, MMW Building内容:Quantum networks promise transformative applications in secure communication, distributed quantum computing, sensing, and precision timekeeping. Realising real-world metropolitan-scale quantum networks requires compact, deployable systems capable of distributing entanglement over long distances beyond laboratory conditi...
时 间:09:30-10:30, Jun 12, 2026 (Fri)地 点:RM S327, MMW Building内容:Trapped ions are a versatile platform for quantum simulation of spin models due to their good coherence properties, the possibility to induce variable-range spin-spin interactions as well as the ease of site-resolved single-particle control and readout. We make use of a modified design of a linear Paul trap, which allow...
时 间:10:30-11:30, Jun 11, 2026 (Thu)地 点:线上报告 (腾讯会议:963-955-107)内容:An attractive approach for stabilizing entangled many-body spin states is to employ engineered dissipation. Most existing proposals either target relatively simple collective spin states or require numerous independent and complex dissipative processes. Here, we show a surprisingly versatile scheme [1] for ma...