Recently, the Integrated Photonics Laboratory in International Quantum Academy, together with collaborators, made major progress in understanding broadband dispersion control in silicon nitride photonic chips. For the first time, the team systematically established the physical link between residual hydrogen, broadband material dispersion, and phase matching in nonlinear microresonators. The work, entitled "Kramers—Kronig causality in integrated photonics: The spectral tension between ultraviolet transition and midinfrared absorption," was published in Physical Review Letters on September 22, 2026.

Jilei Chen's group at the IQASZ, Shenzhen, in collaboration with the groups of Prof. Pietro Gambardella at ETH Zurich, Switzerland, Prof. Rembert A. Duine at Utrecht University, the Netherlands, and Prof. Haiming Yu at Beihang University, has reported advances spin-orbit-torque-driven antimagnons.

Recently, Superconducting Quantum Computing team of SZIQA, together with the team of Prof. Xiong-Jun Liu from the Center for Quantum Materials Science, School of Physics, Peking University, experimentally observed and characterized exact quantum critical states for the first time using programmable superconducting qubits. By realizing a quasiperiodic mosaic model, the team revealed the universal mechanism underlying these states—namely, incommensurately distributed zeros—and observed an anomalous mobility edge separating critical and localized states.

Shenzhen International Quantum Academy has, for the first time in the world,​ implemented "full-stack" logical operations—from universal logical gates to quantum algorithm demonstrations—on a silicon-based quantum processor, which is a prototype of the logical quantum computer in silicon.

Recently, a team led by Researcher Youpeng Zhong and Academician Dapeng Yu at the Shenzhen International Quantum Academy achieved a major breakthrough in superconducting quantum computation by realizing logical multi-qubit entanglement based on dual-rail encoding for the first time. The results, entitled “Logical multi-qubit entanglement with dual-rail superconducting qubits,” were published online in Nature Physics.