Biography
My name is Tang-You (堂友) Huang (黄), a postdoctoral researcher at Chalmers University of Technology, focusing on quantum science and technology with quantum optimal control and machine learning, across both theory and experiment. I completed my Ph.D. at Shanghai University in 2022, where I studied quantum optimal control and shortcuts to adiabaticity for cold atoms from a theoretical perspective. I later worked shortly at the Shanghai Qizhi Institute, collaborating with experimental groups to implement machine-learning–based quantum technologies. Since 2023, I have been a postdoctoral researcher within WACQT, a national program to build a large-scale quantum computer in Sweden. Currently, I am interested in discrete- (continous-) variable-based quantum information/computing applications with quantum control and machine-learning technique, particularly, embed in a superconducting platform. Outside of academia, I have a passion for outdoor activities, particularly hiking and skiing.
Research interests
Keywords: Machine Learning; Quantum Optimal Control; Quantum Information Processing; Superconducting qubits;Shortcuts to Adiabaticity; Variational Quantum Algorithms;
See more details on Research.
Quantum Information/Computing with Optimal Control
Quantum error correction (QEC) [Ref] provides a practical path to fault-tolerant quantum computation relied on discrete-variable (DV) and continuous-variable (CV) [Ref] , requiring precise quantum control and efficient information processing. Along this line, we have explored superconducting quantum gate (discrete-variable) optimization [Ref], bosonic code qubits (continuous-variable) [Ref], and quantum algorithm implementation [Ref1, Ref2].
We all know that the quantum features and resources are valuable but fragile in the presence of noise and errors. How can we efficiently learn the statistical behavior and further offer a better engineering protocol of quantum technologies under imperfection? Machine learning (ML) provides a powerful tool for this question [Ref]. In past years, we developed ML-based quantum control in a random environment [Ref], generative-AI-enhanced quantum sensing [Ref] and quantum process tomography [Ref].
Selected publications
Huang, T., Gaikwad, A., Moskalenko, et al., Quantum Process Tomography with Digital Twins of Error Matrices, Phys. Rev. Lett. 135, 230601 (2025); arXiv:2505.07725 (2025). (AI for Quantum Technology)
Guo, L., Huang, T.*, & Du, L.*, Engineering Fault-tolerant Bosonic Codes with Quantum Lattice Gates, arXiv preprint arXiv:2410.17069 (2024). Communications Physics, 8, 414(2025). (Continuous-variable Quantum Computing)
Huang, T.-Y., Malomed, B. A., & Chen, X., Shortcuts to adiabaticity for an interacting Bose–Einstein condensate via exact solutions of the generalized Ermakov equation, Chaos: An Interdisciplinary Journal of Nonlinear Science, 30(5) (2020). (Quantum Optimal Control)
See the full list of publications on arXiv and Google Scholar.
Teaching & Supervising
2025-2026, Master thesis supervision "Efficient Optimal Control of Superconducting Quantum Gates" at MC2, Chalmers University of Technology.
2025-June, Master course "Open Quantum System" at MC2, Chalmers University of Technology.
As a lab assistant to guide master students in experimentally learning superconducting qubit characterization.
Oral presentation
(Nov 30, 2025 ) invited talk (online), Shanghai University
Talk Title: "Generative AI for Quantum Technologies"
(July 7-13, 2025) Contributed talk, ICMM-CSIC, Madrid
The 9th International Conference on "Quantum Information, Spacetime Simulation, and Quantum Topological Matter (QuIST IX)"
Talk Title: "Improved Quantum Process Tomography"
(2 Jan - 5 Jan, 2024) Visiting talk, Tianjin University , China
I was invited to Tianjin University by Prof. LingZhen Guo at the Center for Joint Quantum Studies.
Talk Title: "Quantum force sensing by digital twinning of atomic Bose-Einstein condensates."
Feel free to contact me by Email: tangyou@chalmers.se.
Useful links: Orcid: ➡️ Google Scholar ➡️ Github Homepage: ➡️ arXiv: ➡️