Dr. Haseebul Hassan | Material Science | Excellence in Research
Shenzhen University | China
Dr. Haseebul Hassan is an accomplished physicist and materials scientist specializing in advanced energy materials and electrochemical technologies. He earned his Ph.D. in Physics from Riphah International University, Pakistan, following an M.Phil. in Physics with distinction and a BS (Hons) in Physics, building a strong foundation across quantum physics, solid-state physics, electromagnetism, and thermodynamics. His academic and research career includes appointments as Post-doctoral Researcher at Shenzhen University, China, and the University of Trento, Italy, along with prior roles as Senior Lecturer and Research Associate at Riphah International University. Dr. Hassan’s research focuses on materials science for energy storage and conversion, including supercapacitors, batteries, supercapatteries, electrocatalysis for hydrogen and oxygen evolution reactions, and thin-film photovoltaic systems. He has demonstrated extensive expertise in materials synthesis, advanced characterization, and electrochemical analysis. With over 30 high-impact publications in leading international journals, a strong citation record, and successful supervision of postgraduate research, his work has contributed significantly to next-generation sustainable energy technologies. Through active involvement in international conferences and funded research projects, Dr. Hassan continues to advance innovative, scalable solutions for clean energy and electrochemical systems, reflecting a commitment to scientific excellence and societal impact.
Featured Publications
Advanced MASnI3 and PTAA-Integrated ZnO2 Perovskite Composite: Optimizing Stability and Charge Dynamics for Next-Gen Photobatteries
– ACS Applied Materials & Interfaces, 2025
Dual Electric Fields in Ni-CdS@Ni(OH)2 Heterojunction for Enhanced CO2 Photoreduction and Selective Toluene Oxidation
– Advanced Powder Materials, 2025
Design of Iron-Based MOF and Molybdenum Telluride Nanohybrids for Enhanced Energy Storage and Hydrogen Evolution
– Inorganic Chemistry Communications, 2025
Enhanced Supercapacitor Performance Using Nitrogen-Doped Graphene Quantum Dots/MnO2/Sn-MOF Hybrid Electrodes
– New Journal of Chemistry, 2025