报告题目：Two-dimensional Materials: A Multidisciplinary Approach to Data Storage, Multiferroics, Energy Storage and Photocatalysis Applications

报 告 人：Prof. Syed Rizwan, National University of Sciences and Technology, Pakistan

邀 请 人： 冷海燕 教授

时 间：2026-08-14 15:00

地 点：宝山校区东区8号楼508会议室

报告人简介：

Dr. Syed Rizwan is currently working as Professor and Head of Department at Department of Physics & Astronomy, National University of Sciences and Technology (NUST), Islamabad, Pakistan. He received his PhD degree in Condensed Matter Physics from the Institute of Physics, Chinese Academy of Sciences (中国科学院物理研究所), Beijing, China in 2011, specializing in micro/nanofabrication for advanced data storage devices. He also has been working as a Senior Research Fellow at Peking University (北京大学), Beijing, China for almost two years. He received NUST University best researcher award for the year 2020 and twice the School best researcher award for the years 2021 and 2017. He has supervised 5 Ph.D students and 40 Master's students in the field of Two-dimensional Materials for data storage, magnetism and energy storage. He has also completed 02 national funded projects and one international (Pakistan – USA) funded project jointly with University of Texas at Austin, USA. Dr. Rizwan is also serving as the Physics Editor of the “Journal of Taibah University for Science”.

报告内容简介：

Two-dimensional (2D) materials have emerged as versatile platforms for next-generation technologies due to their exceptional electrical, optical, mechanical, and chemical properties. This multidisciplinary study explores the multifunctional potential of MXene-based 2D materials in photocatalysis, energy storage, data storage, and multiferroic applications. The tunable surface chemistry, high conductivity, and layered architecture of MXenes enable advanced energy conversion and storage systems, while their unique electronic and ferroelectric characteristics facilitate high-performance nonvolatile memory devices. Recent developments in Nb₂CTx MXene demonstrate ferroelectric switching and resistive memory behavior, whereas Ti₃C₂Tx-derived TiO₂ structures exhibit enhanced endurance for memristive applications. Furthermore, metal-ion-intercalated Ti₃CNTx MXenes improve structural stability and pseudocapacitive energy storage performance. These advances highlight 2D materials as promising candidates for integrated multifunctional electronic and sustainable energy technologies.