Personal profile
Personal profile
Title: Special Associate Researcher
Contact number:
Department: Optical Physics
E-mail: yfsun@bit.edu.cn
Address: Beijing Institute of Technology, No.5 Zhongguancun South Street, Haidian District, Beijing
Contact number:
Department: Optical Physics
E-mail: yfsun@bit.edu.cn
Address: Beijing Institute of Technology, No.5 Zhongguancun South Street, Haidian District, Beijing
Research Interests
Quantum simulation, quantum computing, and optical design.
Education
2011-2016 PhD, Beijing Normal University
2007-2011 Bachelor, Beijing Normal University
2007-2011 Bachelor, Beijing Normal University
Professional Experience
2019 - Assistant Professor, Beijing Institute of Technology
2017-2018 Visiting Scholar, University of the Basque Country, Spain
2016-2017 Visiting Scholar, University of the Basque Country, Spain
2016-2019 Postdoctoral Fellow, Wuhan Institute of Physics and Mathematics, Chinese Academy of Sciences
2017-2018 Visiting Scholar, University of the Basque Country, Spain
2016-2017 Visiting Scholar, University of the Basque Country, Spain
2016-2019 Postdoctoral Fellow, Wuhan Institute of Physics and Mathematics, Chinese Academy of Sciences
Research Achievement
Obtained the youth start-up fund support from Beijing Institute of Technology, and presided over a natural science Youth fund project. The main research results include:
1) Combining classical optical degrees of freedom, several schemes are proposed to simulate quantum entangled states, and on this basis, quantum information processes such as quantum off-object state transfer and quantum Fourier transform are simulated. (SR 5, 9175 (2015), et al.)
2) In quantum optics, the regulatory effects of classical optical processes such as fractional Fourier transform and angular momentum diffraction on optical quantum states are theoretically discussed (OE 22, 727 (2014), PRA 93, 063851 (2016)).
3) In terms of theoretical quantum calculation, a strict method for eliminating Leakage quantum error of an achievable three-level physical system is given (SR 9, 11035 (2019)). A class of linear optical circuits capable of statically simulating the adiabatic quantum evolution process is theoretically designed, and its application to the diagonalized bilinear Hamiltonian problem is discussed (NJP 22, 053012 (2020)).
4) Expanded some applications of machine learning algorithms in the field of quantum imaging.
1) Combining classical optical degrees of freedom, several schemes are proposed to simulate quantum entangled states, and on this basis, quantum information processes such as quantum off-object state transfer and quantum Fourier transform are simulated. (SR 5, 9175 (2015), et al.)
2) In quantum optics, the regulatory effects of classical optical processes such as fractional Fourier transform and angular momentum diffraction on optical quantum states are theoretically discussed (OE 22, 727 (2014), PRA 93, 063851 (2016)).
3) In terms of theoretical quantum calculation, a strict method for eliminating Leakage quantum error of an achievable three-level physical system is given (SR 9, 11035 (2019)). A class of linear optical circuits capable of statically simulating the adiabatic quantum evolution process is theoretically designed, and its application to the diagonalized bilinear Hamiltonian problem is discussed (NJP 22, 053012 (2020)).
4) Expanded some applications of machine learning algorithms in the field of quantum imaging.
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Engineering Topological States and Quantum-Inspired Information Processing Using Classical Circuits
Chen, T., Zhang, W., Zou, D., Sun, Y. & Zhang, X., 12 Jun 2025, In: Advanced Quantum Technologies. 8, 6, 2400448.Research output: Contribution to journal › Review article › peer-review
Open Access8 Link opens in a new tab Citations (Scopus) -
Multi-reflection quantum-optical coherence tomography and experimental mimic with the classical optical field
Li, Q., Sun, Y., Kong, L. J. & Zhang, X., 10 Mar 2025, In: Optics Express. 33, 5, p. 11361-11383 23 p.Research output: Contribution to journal › Article › peer-review
Open Access -
Quantum-Inspired Fourier Transforms Based on Circuits
Zhang, H., Sun, Y. & Zhang, X., 13 Nov 2025, In: Advanced Science. 12, 42, e10261.Research output: Contribution to journal › Article › peer-review
Open Access -
Quantum Inspired Universal Analog Computation Based on Circuits
Zhang, H., Sun, Y. & Zhang, X., 2025, (Accepted/In press) In: Advanced Quantum Technologies.Research output: Contribution to journal › Article › peer-review
Open Access -
Quantum next-generation reservoir computing and its quantum optical implementation
Wang, L., Sun, P., Kong, L. J., Sun, Y. & Zhang, X., Feb 2025, In: Physical Review A. 111, 2, 022609.Research output: Contribution to journal › Article › peer-review
Open Access2 Link opens in a new tab Citations (Scopus)