South China Normal University | China
Author Profile
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Summary
Chen Zuxin is an accomplished associate professor at South China normal university, with a solid background in electronic science and technology. His early academic journey at sun yat-sen university, followed by postdoctoral research at the international iberian nanotechnology laboratory, laid the foundation for his expertise in two-dimensional materials, heterojunctions, and spintronic devices. As principal investigator of multiple national and provincial projects, he has secured competitive funding and advanced innovative research in areas that intersect with next-generation memory, magnetoelectric coupling, and power electronics. his career highlights a consistent trajectory of academic excellence, research leadership, and international collaboration.
Early academic pursuits
Chen Zuxin began his academic journey at Sun Yat-Sen University, where he earned a bachelor of science degree in optical information science and technology. His strong foundation in electronics and optics led him to pursue advanced studies in microelectronics and crystal growth solid-state electronics. he completed his doctor of engineering at sun yat-sen university, developing expertise in two-dimensional materials and device physics, areas that resonate closely with emerging fields such as power electronics and nanoelectronics.
Professional endeavors
After receiving his doctorate, Chen advanced to postdoctoral research at the International Iberian Nanotechnology Laboratory, Portugal. He explored the microstructure and magnetic mechanisms of two-dimensional high-tc intrinsic ferromagnetic materials. He joined South China normal university as an associate professor and master’s supervisor, where he continues to expand research on next-generation materials and devices. his leadership in funded projects demonstrates a balance of academic rigor and technological application, crystal growth with direct implications for power electronics and advanced memory systems.
Contributions and research focus
Chen Zuxin’s research centers on two-dimensional materials, heterojunctions, and multiferroic coupling. He has been the principal investigator of numerous projects supported by prestigious organizations, including the national natural science foundation of China, Guangzhou science and technology elite “pilot” project, Guangdong provincial joint funds, and China postdoctoral science foundation. his projects span topics such as magnetoelectric coupling in heterojunctions, ferroelectric van der waals devices for reversible computing, exciton-spin coupling in chromium-based compounds, and optically readable memory devices. These efforts mark important contributions toward bridging nanoelectronics with scalable systems, crystal growth potentially transforming power electronics through energy-efficient and multifunctional devices.
Impact and influence
Through his work, Chen Zuxin has positioned himself at the forefront of two-dimensional material research. his investigations into heterojunction-based computing and optoelectronic memory offer promising pathways for nonvolatile memory, spintronics, and logic devices. by integrating experimental design with theoretical insights, he influences both national and international scientific communities. he also plays a pivotal role in mentoring young researchers, crystal growth ensuring the transmission of advanced knowledge in electronics and nanotechnology.
Academic cites
Chen’s research outputs have been supported by significant funding— across multiple national and provincial projects. his ability to secure competitive funding reflects recognition of his innovative approach to material science and device engineering. projects such as the development of cuinp2s6/co2se3 heterojunctions and the study of photoluminescence control in mose2 heterostructures are likely to be cited widely, crystal growth as they address key challenges in material integration and application for multifunctional electronic systems.
Legacy and future contributions
Chen Zuxin is expected to further strengthen his contributions in reversible computing, exciton-spin interactions, and novel device architectures. His leadership in cutting-edge projects suggests a long-lasting legacy in the fields of electronic science and technology. As he continues to mentor graduate students and contribute to interdisciplinary research, his work will remain instrumental in shaping the future of electronics, crystal growth material science, and applied nanotechnology. his vision places him among the emerging leaders whose impact will extend from academic exploration to industrial applications.
Publications
Title: Activating Basal Planes of NiPS₃ for Hydrogen Evolution by Nonmetal Heteroatom Doping
Authors: J. Wang, X. Li, B. Wei, R. Sun, W. Yu, H.Y. Hoh, H. Xu, J. Li, X. Ge, Z. Chen, C. Su, ...
Journal: Advanced Functional Materials
Publication Year: 2020
Title: Wafer-Size and Single-Crystal MoSe₂ Atomically Thin Films Grown on GaN Substrate for Light Emission and Harvesting
Authors: Z. Chen, H. Liu, X. Chen, G. Chu, S. Chu, H. Zhang
Journal: ACS Applied Materials & Interfaces
Publication Year: 2016
Title: Magnetically-dressed CrSBr exciton-polaritons in ultrastrong coupling regime
Authors: T. Wang, D. Zhang, S. Yang, Z. Lin, Q. Chen, J. Yang, Q. Gong, Z. Chen, Y. Ye, ...
Journal: Nature Communications
Publication Year: 2023
Title: “Three-in-One”: A New Hg-Based Selenide Hg₇P₂Se₁₂ Exhibiting Wide Infrared Transparency Range and Strong Nonlinear Optical Effect
Authors: Y. Chu, H. Wang, Q. Chen, X. Su, Z. Chen, Z. Yang, J. Li, S. Pan
Journal: Advanced Functional Materials
Publication Year: 2024
Title: Terahertz photodetector arrays based on a large-scale MoSe₂ monolayer
Authors: H. Liu, Z. Chen, X. Chen, S. Chu, J. Huang, R. Peng
Journal: Journal of Materials Chemistry C
Publication Year: 2016
Conclusion
Through his pioneering studies on ferroelectric van der waals heterojunctions, exciton-spin coupling, and multifunctional two-dimensional materials, Chen Zuxin has established himself as a rising leader in the field of electronic science and technology. his contributions not only expand the boundaries of nanoelectronics but also open new directions for efficient and scalable applications in power electronics and optoelectronic systems. looking forward, his commitment to research innovation and mentorship will continue to shape scientific progress, ensuring a lasting impact on both academia and industry.