China University of Geosciences - China
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🎓 Early Academic Pursuits
Prof. Zhigao Dai embarked on his academic journey with a Bachelor’s Degree in Science from Hubei Normal University, where he studied from September 2005 to June 2009. Building upon his strong foundation in science, he pursued a Doctorate Degree in Science at Wuhan University, completing it between September 2010 and June 2015. His doctoral studies equipped him with a deep understanding of material science and physics, laying the groundwork for his future research in Optical Field Manipulation.
💼 Professional Endeavors
Prof. Dai began his professional career as a Lecturer at Wuhan University, School of Physics and Technology/Department of Printing and Packaging, where he served from July 2015 to August 2019. During this period, he focused on research and teaching in condensed matter physics and material science. His passion for Optical Field Manipulation led him to a postdoctoral position at Monash University, Australia, from November 2016 to December 2018, where he specialized in optical field manipulation for micro and nano-scale defect detection. Since September 2019, he has held the position of Professor at the China University of Geosciences (Wuhan), School of Materials Science and Chemistry. Here, he leads a research group dedicated to future materials, Optical Field Manipulation, and hyperlens technology, with significant applications in chip defect detection and high-resolution imaging technologies.
🔬 Contributions and Research Focus
Prof. Dai’s research has made significant strides in Optical Field Manipulation, particularly in the context of semiconductor manufacturing. His key contributions include:
- Optical Field Confinement on Mineral Surfaces: Prof. Dai implemented edge-control strategies and source-controlled methods to confine the optical field on mineral surfaces, which resulted in highly directional and low-loss optical field transmission. This work has been pivotal in developing high-resolution defect detection techniques for integrated circuit chip manufacturing.
- Development of Optical Switches: He designed innovative hydrogen-bonded trimming switches and ion-capture switches that enable precise reconfiguration of the optical field. These advancements provide a theoretical foundation for detecting various types of defects in chips, enhancing the reliability of semiconductor manufacturing processes.
- Phase Diagram of Composite Interface Optical Field Transmission: Prof. Dai clarified the phase diagram for directional transmission of composite interface optical fields, leading to amplified optical fields capable of detecting multiple types of defects in chip manufacturing processes.
These breakthroughs have led to the publication of 32 papers, amassing 5800 citations, in top-tier journals such as Nature Communications and Advanced Materials. His work has been featured in prestigious journals like Nature and Science.
🌍 Impact and Influence
Prof. Dai's contributions to Optical Field Manipulation have significantly impacted the fields of material science and semiconductor technology. His research on using mineral materials for high-precision optical field manipulation has not only advanced academic understanding but also provided practical solutions for improving semiconductor yields and quality. His work is widely recognized, earning him several prestigious awards and honors, including the Top Ten Optical Advances of 2022 by China Laser Journal.
🏆Academic Cites
Prof. Dai’s pioneering research in Optical Field Manipulation has led to substantial academic recognition, with his work being cited extensively in the fields of photonics, materials science, and semiconductor technology. His methodologies and findings are frequently referenced in studies aiming to enhance defect detection and optical technologies.
🌟 Legacy and Future Contributions
As Prof. Dai continues his research, his legacy in Optical Field Manipulation is poised to grow even further. His innovative approaches to using mineral materials in optical technologies are likely to influence future research directions in high-resolution imaging and semiconductor manufacturing. His leadership in the development of reconfigurable optical fields and hyperlens technology positions him as a key figure in the ongoing evolution of advanced materials science.
📝Optical Field Manipulation
Prof. Dai’s work on Optical Field Manipulation is not only groundbreaking but also instrumental in addressing the challenges of defect detection in semiconductor manufacturing. His research has the potential to revolutionize the industry by providing more precise and reliable detection methods, which are critical for the production of high-quality semiconductor chips. As he continues to explore new frontiers in optical technologies, his contributions will undoubtedly shape the future of materials science and engineering.
Notable Publication
📝Hybridized Hyperbolic Surface Phonon Polaritons at α-MoO3 and Polar Dielectric Interfaces
Authors: Q. Zhang, Q. Ou, G. Hu, J. Liu, Z. Dai, M.S. Fuhrer, Q. Bao, C.W. Qiu
Journal: Nano Letters
Volume: 21
Issue: 7
Pages: 3112–3119
Year: 2021
📝Advances in Near-Infrared Luminescent Materials Without Cr3+: Crystal Structure Design, Luminescence Properties, and Applications
Authors: Y. Wei, P. Dang, Z. Dai, G. Li, J. Lin
Journal: Chemistry of Materials
Volume: 33
Issue: 14
Pages: 5496–5526
Year: 2021
📝Artificial Metaphotonics Born Naturally in Two Dimensions
Authors: Z. Dai, G. Hu, Q. Ou, L. Zhang, F. Xia, F.J. Garcia-Vidal, C.W. Qiu, Q. Bao
Journal: Chemical Reviews
Volume: 120
Issue: 13
Pages: 6197–6246
Year: 2020
📝Edge-Oriented and Steerable Hyperbolic Polaritons in Anisotropic Van der Waals Nanocavities
Authors: Z. Dai, G. Hu, G. Si, Q. Ou, Q. Zhang, S. Balendhran, F. Rahman, B.Y. Zhang, ...
Journal: Nature Communications
Volume: 11
Issue: 1
Pages: 6086
Year: 2020
📝Long Range Intrinsic Ferromagnetism in Two Dimensional Materials and Dissipationless Future Technologies
Authors: B. Shabbir, M. Nadeem, Z. Dai, M.S. Fuhrer, Q.K. Xue, X. Wang, Q. Bao
Journal: Applied Physics Reviews
Volume: 5
Issue: 4
Year: 2018
📝In-plane Anisotropic and Ultra-low-loss Polaritons in a Natural Van der Waals Crystal
Authors: W. Ma, P. Alonso-González, S. Li, A.Y. Nikitin, J. Yuan, J. Martín-Sánchez, ...
Journal: Nature
Volume: 562
Issue: 7728
Pages: 557–562
Year: 2018