Chaojiang Fan | Material Science | Best Researcher Award

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Dr. Chaojiang Fan | Material Science | Best Researcher Award

Lecturer at Shaanxi University of Technology | China

Dr. Chaojiang Fan is a Lecturer and Master Supervisor at the School of Materials Science and Engineering, Shaanxi University of Technology, Hanzhong, China. His academic journey and professional expertise reflect a strong dedication to advancing energy storage technologies, particularly in the field of lithium-sulfur batteries. Dr. Fan has published more than 30 SCI papers in influential journals, with 9 as first or corresponding author, demonstrating his active role in driving research and knowledge dissemination. His research spans the design of key materials, the performance optimization of electrochemical devices, and the recycling of waste lithium-ion batteries, aligning with global efforts toward sustainable energy and environmental responsibility. Over the course of his career, he has contributed significantly to separator innovation, offering solutions to challenges such as the polysulfide shuttle effect and lithium dendrite growth, while also promoting the practical application of advanced energy devices. In addition to his publications, Dr. Fan has been involved in competitive research projects at both national and provincial levels, serving as principal investigator and co-investigator. With a commitment to innovation, mentorship, and collaborative research, he continues to shape advancements in energy storage and sustainable materials science.

Professional Profile

Scopus | ORCID

Education

Dr. Chaojiang Fan pursued his academic career at Xi’an University of Technology, where he earned degrees across three levels in materials science and engineering disciplines. He completed his Bachelor of Science in Materials Forming and Control Engineering, where his foundational studies under the guidance of Prof. Yunpeng Zhang nurtured his interest in material design and processing. Building upon this background, he pursued a Master of Science in Materials Processing Engineering under Prof. Yunhua Xu, developing advanced skills in structural design, electrochemistry, and material engineering. His master’s work introduced him to electrochemical applications, setting the stage for his later research focus. To further specialize, Dr. Fan undertook doctoral studies in Materials Science and Engineering, mentored by Prof. Rong Yang, a recognized leader in electrochemical energy systems. His doctoral research concentrated on functional membranes for lithium-sulfur batteries, exploring characteristic regulation and electrochemical performance to overcome performance limitations of next-generation energy storage systems. His thesis represents a comprehensive study integrating synthesis, modification, and performance evaluation of advanced separator materials. Across these educational milestones, Dr. Fan built a robust knowledge base in materials science while cultivating strong experimental and theoretical capabilities, positioning him as a leading scholar in energy storage research.

Professional Experience

Dr. Chaojiang Fan currently serves as Lecturer and Master Supervisor at the School of Materials Science and Engineering, Shaanxi University of Technology, where he is engaged in both teaching and research. His academic role combines classroom instruction, laboratory guidance, and the supervision of postgraduate students, contributing to the training of the next generation of researchers in materials science. In his research career, Dr. Fan has actively participated in and led numerous high-level projects, including the Doctoral Innovation Fund of Xi’an University of Technology, for which he served as principal investigator, and several nationally funded collaborative programs. His professional experience includes working on critical energy-related challenges such as improving the stability and scalability of lithium-sulfur batteries and exploring sustainable recycling methods for lithium-ion battery materials. He has successfully translated laboratory-scale innovations into applied solutions, guiding both fundamental discoveries and their technological applications. His involvement in international and domestic academic conferences, as both presenter and participant, further reflects his active engagement in scholarly exchange. With a strong record of teamwork, leadership, and innovation, Dr. Fan has developed a career that bridges research, education, and practical implementation in the field of advanced energy storage technologies.

Research Interests

Dr. Chaojiang Fan’s research interests revolve around electrochemical energy storage materials and device engineering, with a particular focus on lithium-sulfur batteries. His primary direction lies in the design and synthesis of advanced separator materials capable of suppressing the polysulfide shuttle effect and stabilizing lithium anodes. By regulating structural and surface properties, his work addresses long-standing challenges such as cycle instability and dendritic growth. Another important area of his research is the construction and performance evaluation of complete energy storage devices, spanning laboratory-scale coin cells to larger pouch cells, with the aim of bridging scientific innovation with industrial application. In addition, Dr. Fan has expanded his research toward sustainable material regeneration and battery recycling, recognizing the necessity of closed-loop solutions in the era of increasing electrification. His exploration of waste lithium-ion battery materials contributes to the development of green and efficient recycling methods, aligning with global strategies for carbon neutrality and sustainable development. With over 30 SCI-indexed publications, Dr. Fan’s research combines theoretical insights, material design, and practical applications, making significant contributions to the development of high-performance, durable, and environmentally responsible energy storage technologies.

Research Skills

Dr. Chaojiang Fan possesses a comprehensive set of research skills that enable him to carry out advanced studies in materials science and energy storage. His expertise includes the synthesis and structural modification of functional membranes, particularly through electrospinning and surface engineering techniques, which he has applied to design high-performance separators for lithium-sulfur batteries. He is proficient in electrochemical characterization methods, including cyclic voltammetry, galvanostatic charge-discharge testing, and electrochemical impedance spectroscopy, which allow him to evaluate the kinetics, stability, and efficiency of battery systems. In addition, Dr. Fan has significant experience with advanced material characterization tools such as scanning electron microscopy (SEM), X-ray diffraction (XRD), and X-ray photoelectron spectroscopy (XPS), which provide insights into microstructure, morphology, and chemical states. Beyond laboratory techniques, he has honed project management and academic writing skills through his extensive publication record and leadership roles in funded projects. His involvement as both investigator and co-investigator in competitive grants reflects his ability to design, coordinate, and implement complex research programs. Combining laboratory precision, analytical depth, and collaborative leadership, Dr. Fan’s skill set positions him to continue advancing the frontier of electrochemical energy storage materials and sustainable technology applications.

Awards and Honors

Throughout his academic career, Dr. Chaojiang Fan has received multiple awards and honors that recognize his innovation, leadership, and contributions to materials science research. He served as project manager for a student innovation team that won the National Silver Medal at the China International College Students Innovation Competition, a highly competitive event organized by the Ministry of Education of China. This award highlights not only his scientific contributions but also his mentorship and ability to lead interdisciplinary teams. Earlier, he was honored with the First Prize at the 6th China Innovation Challenge, hosted by the Xi’an Science and Technology Bureau, where he contributed as a co-investigator on a high-impact project. These awards demonstrate his capacity to translate scientific research into tangible technological outcomes, addressing critical challenges in energy storage and material sustainability. Beyond competitions, his active participation in conferences and research collaborations has earned him recognition among peers in the field of electrochemical energy systems. These distinctions, combined with his strong publication record and successful project leadership, underscore his standing as a promising scholar dedicated to advancing sustainable energy technologies while fostering innovation in academic and applied research environments.

Publications Top Notes

Title: Synergistic Interaction of Strongly Polar Zinc Selenide and Highly Conductive Carbon Nanoframeworks Accelerates Redox Kinetics of Polysulfides
Year: 2024
Citations: 2

Title: Engineering a Semi-Immobilized Ionic Liquid Interface Layer to Boost Li⁺ Conduction at Organic-Inorganic Interface
Year: 2025

Title: Multifunctional Integrated Separator Based on Electrospinning Structure Engineering for High-Stability Lithium-Sulfur Batteries
Year: 2025

Conclusion

In conclusion, Dr. Chaojiang Fan exemplifies a new generation of materials scientists dedicated to the advancement of sustainable energy storage technologies. His research has spanned from fundamental material design to practical device engineering and recycling, covering the entire spectrum of energy storage development. Through his work on lithium-sulfur batteries, he has contributed valuable strategies to overcome performance bottlenecks such as the polysulfide shuttle effect, enhancing both the stability and applicability of these systems. His dedication to recycling waste lithium-ion batteries further aligns his work with global sustainability and carbon-neutral goals. With a strong educational foundation, extensive research skills, and leadership in funded projects, Dr. Fan has established himself as both a capable scientist and a mentor to young researchers. The recognition he has received through awards and honors demonstrates the impact and promise of his contributions. Moving forward, he remains committed to combining academic rigor with technological innovation, aiming to bridge the gap between research and industry applications. Dr. Fan’s career reflects a balance of scholarship, practical advancement, and leadership, positioning him as an influential figure in the field of energy storage and materials science.

Mengyun Hu | Optics | Best Researcher Award

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Assoc. Prof. Dr. Mengyun Hu | Optics | Best Researcher Award

Associate Professor at East China Normal University | China

Assoc. Prof. Dr. Mengyun Hu is an accomplished engineer and researcher at the State Key Laboratory of Precision Spectroscopy, East China Normal University, specializing in laser applications and precision spectroscopy. Her research focuses on developing advanced laser-induced breakdown spectroscopy (LIBS) techniques for environmental monitoring, deep space exploration, and material analysis. She has pioneered femtosecond plasma grating-induced spectroscopy (GIBS), achieving unprecedented detection sensitivity at the parts-per-billion level and establishing the world’s first high-sensitivity GIBS detection system. Dr. Hu collaborates closely with the China Aerospace 504 Institute to conduct ground verification experiments supporting trace analysis of Martian and lunar surface materials, contributing to the advancement of deep-space exploration. She has also introduced innovative techniques such as multi-dimensional plasma breakdown spectroscopy (MIBS) and femtosecond filament-plasma grating synergistic breakdown spectroscopy (F-GIBS), enhancing the precision and efficiency of laser-based analytical methods. In addition, she has developed novel laser light source technologies, including fiber-solid hybrid amplification and time-frequency self-similar amplification, which have been successfully applied in precision measurement, scientific instrumentation, and micro-nano manufacturing. Through her pioneering research and technological innovations, Dr. Hu has become a leading figure in laser spectroscopy and its cutting-edge applications across multiple industries.

Professional Profile

Scopus

Education

Assoc. Prof. Dr. Mengyun Hu has pursued a comprehensive academic journey focused on optics, photonics, and precision spectroscopy. She began her studies with a bachelor’s degree in physics at Shanghai Ocean University, which laid a solid foundation for her career in applied optics and laser technologies. She later earned a master’s degree at East China Normal University, where she specialized in laser spectroscopy, precision measurements, and advanced optical diagnostics. Driven by a passion for innovation and scientific exploration, she further advanced her expertise by undertaking doctoral research at the University of Shanghai for Science and Technology, focusing on ultrafast laser systems, nonlinear optics, and trace detection technologies. Her Ph.D. work involved the development of groundbreaking techniques in femtosecond laser-induced plasma spectroscopy, ultimately leading to the creation of GIBS, a highly sensitive detection method now recognized globally. Dr. Hu’s academic background seamlessly integrates theoretical knowledge with practical applications, enabling her to bridge the gap between experimental research and industrial innovations. Her education has provided her with deep technical proficiency in spectroscopy, ultrafast optics, and analytical measurement systems, which continue to influence her research contributions to environmental sensing, deep-space exploration, and next-generation scientific instrumentation.

Professional Experience

Assoc. Prof. Dr. Mengyun Hu has extensive professional experience in the fields of optics, spectroscopy, and laser-based analytical technologies. She began her career as an engineer at the State Key Laboratory of Precision Spectroscopy, East China Normal University, where she developed innovative solutions for ultrafast laser systems, precision measurement, and trace detection. Building on her strong technical expertise, she advanced to leadership roles and took on broader responsibilities, including research program planning, laboratory supervision, and project coordination with interdisciplinary teams. As a key contributor to numerous collaborative initiatives, she has worked closely with the China Aerospace 504 Institute on projects related to environmental sensing and deep-space exploration, providing advanced technologies for analyzing Martian and lunar materials. In addition to her technical work, Dr. Hu has been actively involved in mentoring students, guiding research projects, and developing experimental facilities for cutting-edge laser spectroscopy studies. Her role includes integrating advanced techniques into practical scientific instruments used in industrial, environmental, and aerospace applications. Through her combined contributions to research, administration, and technical innovation, Dr. Hu has established herself as a leading figure in the development and application of precision laser-based analytical technologies.

Research Interests

Assoc. Prof. Dr. Mengyun Hu’s research interests lie in the areas of laser spectroscopy, optical diagnostics, and ultrafast photonics. She focuses on developing advanced techniques for laser-induced breakdown spectroscopy (LIBS), aiming to achieve high sensitivity and precision in trace element detection. Her pioneering work in femtosecond plasma grating-induced spectroscopy (GIBS) has set new benchmarks for detection sensitivity, reaching parts-per-billion levels and opening new avenues for applications in environmental monitoring, planetary science, and analytical chemistry. Dr. Hu has also introduced methods such as multi-dimensional plasma breakdown spectroscopy (MIBS) and femtosecond filament-plasma grating synergistic breakdown spectroscopy (F-GIBS), expanding the capabilities of LIBS for highly complex environments. Her collaboration with the China Aerospace 504 Institute enables the application of these techniques to deep-space exploration, where they are used to study Martian and lunar surface materials. Additionally, she is dedicated to developing novel ultrafast laser technologies, including adaptive startup systems, fiber-solid hybrid amplification, and time-frequency self-similar amplification, which have practical applications in precision measurement, material processing, and scientific instrumentation. Through her multidisciplinary approach, Dr. Hu continues to advance the frontiers of laser spectroscopy, bridging fundamental science with practical solutions for industrial, environmental, and space research.

Research Skills

Assoc. Prof. Dr. Mengyun Hu possesses exceptional expertise in ultrafast laser technology, high-resolution spectroscopy, and nonlinear optics. She is skilled in developing advanced laser-induced plasma spectroscopy platforms and integrating multi-dimensional diagnostic techniques to achieve high-precision measurements and ultra-low detection limits. Her pioneering work includes designing femtosecond plasma grating-based systems that enable breakthroughs in trace detection, environmental monitoring, and deep-space material analysis. She has extensive experience working with femtosecond laser sources, optical fiber amplification systems, and time-frequency self-similar amplification, allowing her to build high-power, ultrafast light sources for scientific instrumentation and micro-nano fabrication. Dr. Hu is proficient in real-time data acquisition, signal processing, and computational modeling of plasma-laser interactions, enabling her to optimize experimental configurations for maximum sensitivity and accuracy. She also excels in collaborating with interdisciplinary teams and aerospace institutes, conducting ground-based verification experiments for Mars and lunar material analysis. In addition to her technical skills, she has contributed significantly to intellectual property development, with several patents granted for her innovations. Her ability to integrate theoretical knowledge, experimental techniques, and practical engineering applications makes her a leading expert in precision laser spectroscopy and ultrafast optical diagnostics.

Awards and Honors

Assoc. Prof. Dr. Mengyun Hu has received multiple awards and recognitions for her significant contributions to laser spectroscopy, optical engineering, and ultrafast photonics. Her development of femtosecond plasma grating-induced spectroscopy (GIBS) has been widely acclaimed, setting new international standards for trace detection sensitivity and analytical precision. She holds several authorized patents, including six Chinese invention patents and one U.S. patent, reflecting the originality and impact of her research in spectroscopy and laser technology. Dr. Hu has published extensively in high-impact scientific journals, including Advanced Photonics, Optics Express, and Laser and Photonics Reviews, with numerous papers as first or corresponding author. Her collaborative work with the China Aerospace 504 Institute has advanced the capabilities of deep-space exploration, supporting the analysis of Martian and lunar surface materials. In recognition of her contributions to both scientific innovation and practical applications, she has received institutional honors from the State Key Laboratory of Precision Spectroscopy and East China Normal University. Beyond academic achievements, her patented technologies have been successfully applied to industrial and scientific instrumentation, demonstrating the significant technological and societal value of her research.

Publications Top Notes

1. Enhanced Stability of TaS₂ Photodetector by Co Intercalation
Year: 2025
Citations: 3

2. Generation of 435 MHz, Ultrafast Cylindrical Vector Pulses From a Mode-Locked Fiber Laser
Year: 2025

Conclusion

Assoc. Prof. Dr. Mengyun Hu’s career is defined by scientific innovation, technical excellence, and leadership in the field of precision spectroscopy. Her pioneering contributions to ultrafast laser-based analytical methods, including GIBS, MIBS, and F-GIBS, have transformed the capabilities of laser-induced breakdown spectroscopy and advanced its applications in environmental monitoring, material characterization, and planetary exploration. Through collaborations with leading research institutes, including the China Aerospace 504 Institute, she has contributed essential technologies supporting Mars and lunar exploration, strengthening her role in cutting-edge scientific initiatives. Dr. Hu’s ability to translate fundamental research into practical, patented technologies has led to the creation of high-performance scientific instruments and advanced optical systems. As a mentor and innovator, she continues to inspire future researchers while driving forward breakthroughs in ultrafast optics and high-precision spectroscopic diagnostics. With an expanding portfolio of impactful publications, technological achievements, and multidisciplinary collaborations, Dr. Hu has established herself as a leading figure in laser science and optical engineering. Her commitment to advancing scientific frontiers and transforming spectroscopy into practical solutions underscores her influence in both academic and industrial domains.

Nidhi Chandrakar | Emerging Technologies | Applied Scientist Award

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Ms. Nidhi Chandrakar | Emerging Technologies | Applied Scientist Award

Nidhi Chandrakar at NIT Trichy | India

Nidhi Chandrakar is a passionate and highly motivated researcher with expertise in power electronics, converter topologies, and advanced control strategies. Her work focuses on the development of high-efficiency energy conversion systems and smart power solutions for various applications, including electric vehicles, renewable energy integration, and intelligent energy storage systems. She has an exceptional ability to combine theoretical knowledge with practical implementation, demonstrated through her extensive experience in hardware design, circuit simulation, and system optimization. Nidhi has contributed to multiple high-impact research projects, including the design of Dual Active Bridge (DAB) converters and the implementation of innovative modulation strategies for improving performance and efficiency. She has published her research findings in reputed international journals and has presented her work at several prestigious conferences. In addition, she has co-authored book chapters on emerging electric vehicle technologies and hybrid energy systems, reflecting her versatility and technical proficiency. Nidhi’s strong analytical skills, collaborative mindset, and innovative approach position her as a dedicated researcher committed to driving advancements in sustainable power systems and next-generation energy solutions.

Professional Profile

Scopus | ORCID

Education

Nidhi Chandrakar has built a solid academic foundation in electrical engineering, power systems, and energy technologies. She is currently pursuing advanced research focused on power electronics and control strategies, particularly the optimization of high-performance DC-DC converters. Her academic journey has been defined by her deep interest in converter topologies, modulation techniques, and energy-efficient system designs. Throughout her studies, she has explored hardware implementation, simulation modeling, and algorithm development to bridge the gap between theory and real-world applications. She has consistently demonstrated strong academic performance, excelling in both analytical and experimental aspects of electrical engineering. Nidhi’s research training has provided her with practical exposure to modern control systems, FPGA programming, and microcontroller-based hardware development. Her academic experiences also include collaborative projects, interdisciplinary research, and active participation in workshops and seminars, which have strengthened her understanding of emerging technologies. By integrating advanced concepts of power electronics, renewable energy systems, and intelligent control, Nidhi has developed a holistic perspective on modern engineering challenges. Her educational background has shaped her into a skilled researcher with a passion for exploring innovative solutions in sustainable energy systems and cutting-edge power conversion technologies.

Professional Experience

Nidhi Chandrakar has gained valuable professional experience through diverse roles in research, development, and teaching. She is currently contributing as a Senior R&D Engineer, where she works on the design and development of electronic load systems used for testing power supplies, batteries, and advanced energy systems. Her role involves hardware design, circuit optimization, testing, and troubleshooting, enabling her to develop efficient and reliable systems. Previously, she worked as an R&D Engineer, where she focused on Boost PFC circuits, LLC resonant converters, and Dual Active Bridge (DAB) converters. During this period, she played a key role in developing gate driver circuits, isolated regulated power supplies, and advanced PCB layouts. In addition to her industrial contributions, Nidhi has served as a Teaching Assistant, supporting academic courses in Digital System Design and HDL programming, and has also worked as a Residential Student Counselor, mentoring students and assisting in administrative responsibilities. Through these experiences, she has developed strong problem-solving abilities and gained practical exposure to power system optimization, simulation tools, and microcontroller-based hardware development. Her professional journey demonstrates a balanced expertise in both academic research and industry-driven innovation.

Research Interests

Nidhi Chandrakar’s research interests focus on power electronics, energy conversion, and intelligent control strategies. She is particularly interested in the development of high-efficiency DC-DC converters, with a specialization in Dual Active Bridge (DAB) topologies and their applications in electric vehicle systems. Her current work involves optimizing converter performance through innovative approaches to current stress reduction and circulating current minimization, ensuring improved system reliability and energy efficiency. Nidhi is also passionate about renewable energy integration, smart grids, and energy storage technologies, with a strong focus on improving the interaction between distributed energy resources and power electronics systems. She has explored pulse-width modulation (PWM) and phase-shift modulation (PSM) techniques to enhance converter efficiency, supported by both simulation and experimental validation. Beyond power converters, her interests extend to real-time control systems, hardware-in-the-loop (HIL) testing, and embedded systems development for sustainable energy applications. Nidhi seeks to contribute to innovative research addressing global energy challenges by designing scalable, cost-effective, and environmentally friendly solutions. Her long-term goal is to advance the field of power electronics by bridging the gap between theoretical research and practical implementation in smart energy systems.

Research Skills

Nidhi Chandrakar possesses strong technical, analytical, and experimental skills that complement her research expertise in power electronics and control systems. She is proficient in Verilog coding and FPGA-based digital system design, enabling her to implement high-performance hardware prototypes. She has extensive experience working with Texas Instruments C2000 microcontrollers, particularly the F28379D series, for real-time control applications and advanced converter optimization. Nidhi is skilled in using MATLAB and PLECS simulation software for system modeling, analysis, and performance evaluation of power electronics systems. Her technical capabilities also include gate driver circuit design, isolated regulated power supply development, and PCB layout optimization, allowing her to translate complex concepts into functional designs. Additionally, she is proficient in programming languages such as C, C++, and Python, which she uses for developing algorithms, simulations, and embedded control solutions. Nidhi has hands-on expertise in soldering, hardware testing, troubleshooting, and validating control strategies for experimental setups. She also demonstrates strong abilities in technical documentation, academic writing, and presenting research findings at international conferences. Her diverse skill set empowers her to conduct impactful research and develop innovative, high-efficiency power solutions for emerging technologies.

Awards and Honors

Nidhi Chandrakar has been recognized for her research contributions, academic excellence, and technical expertise in the field of power electronics. She has co-authored several highly cited publications in leading international journals, where her research on current stress mitigation and circulating current reduction strategies in Dual Active Bridge converters has been well-appreciated. Nidhi has also presented her work at prestigious international conferences, where her innovative approaches to converter control and optimization have received positive recognition from the scientific community. Her contributions to book chapters published by Springer and Academic Press highlight her growing influence in the areas of electric vehicle technologies, hybrid energy systems, and renewable energy applications. In addition to her academic achievements, she has consistently maintained an outstanding record of performance throughout her studies, earning appreciation for her dedication, hard work, and technical innovation. Nidhi’s research outputs demonstrate her ability to produce impactful solutions to real-world engineering challenges. These honors reflect her strong commitment to advancing sustainable energy technologies and her potential to contribute significantly to the development of next-generation power electronics systems.

Publications Top Notes

Title: Efficient Control Strategy for Circulating Current Minimization in Dual Active Bridge Applications
Year: 2025

Conclusion

In conclusion, Nidhi Chandrakar is a highly driven researcher, engineer, and innovator with a strong focus on power electronics, converter design, and sustainable energy systems. Her academic background, professional experience, and hands-on expertise in hardware design, control strategies, and energy optimization have shaped her into a well-rounded contributor to both research and industry. Through her publications, conference presentations, and collaborative projects, she has demonstrated a deep understanding of converter technologies and renewable energy integration, positioning her as an emerging expert in her field. Nidhi strives to bridge the gap between theoretical research and practical implementation, aiming to develop efficient, reliable, and cost-effective power solutions that address global energy challenges. Her commitment to innovation, sustainability, and knowledge sharing underscores her long-term vision of contributing to advancements in electric vehicle systems, renewable power integration, and intelligent energy storage technologies. With her passion, determination, and strong technical foundation, Nidhi is well-prepared to make a meaningful impact in the evolving landscape of modern power electronics.

 

Iman Roqan | Semiconductors | Best Researcher Award

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Prof. Iman Roqan | Semiconductors | Best Researcher Award

Professor at King Abdullah University of Science and Technology | Saudi Arabia

Prof. Iman Roqan is an internationally recognized researcher and academic leader, currently serving as a Professor and Head of the Semiconductor and Material Spectroscopy Group at King Abdullah University of Science and Technology (KAUST), Saudi Arabia. With a distinguished career spanning over two decades, she has made pioneering contributions to semiconductor physics, optoelectronic materials, nanostructures, and spintronics. She holds a BSc (Hons.) in Physics and Education from Umm Al-Qura University, an MSc in Photonics and Optoelectronics Devices from the University of St Andrews and Heriot-Watt University, and a Ph.D. in Applied Physics (Semiconductors) from the University of Strathclyde, UK. Prof. Iman Roqan’s groundbreaking work focuses on developing advanced III-Nitride and oxide-based semiconductors, novel nanostructures, and quantum materials for applications in LEDs, lasers, UV detectors, and spin-optoelectronics. She has published 121 refereed papers, authored book chapters, and holds 11 patents in semiconductor technology and nanofabrication techniques. With 5,365 citations, an h-index of 47, and global collaborations across leading research institutions, Prof. Iman Roqan is regarded as a visionary scientist driving innovation in material science and photonic applications. Her leadership at KAUST has significantly shaped the field of spectroscopy and semiconductor device engineering.

Professional Profile

Scopus | Google Scholar

Education

Prof. Iman Roqan’s academic journey reflects her exceptional dedication to advancing knowledge in physics, photonics, and semiconductor science. She earned her BSc (Hons.) in Physics and Education  from Umm Al-Qura University, Saudi Arabia, laying a solid foundation in applied physics and pedagogy. She then pursued an MSc in Photonics and Optoelectronics Devices at the University of St Andrews and Heriot-Watt University, UK, where her thesis focused on the optical properties of II-VI semiconductor quantum dots under the supervision of Prof. Richard J. Warburton. This research provided her with expertise in quantum materials and optoelectronic device engineering. She completed her Ph.D. in Applied Physics (Semiconductors) at the University of Strathclyde, Glasgow, where she conducted innovative research on the optical, structural, and magnetic properties of rare-earth-doped III-Nitrides under the mentorship of Dr. Carol Trager-Cowan and Prof. Kevin P. O’Donnell. Her doctoral research marked a significant step toward understanding wide bandgap materials and their applications in UV optoelectronics. Prof. Iman Roqan’s diverse academic training across top-tier institutions has equipped her with interdisciplinary expertise, enabling her to bridge fundamental material science and advanced semiconductor technologies.

Professional Experience

Prof. Iman Roqan has established herself as a distinguished academic and research leader through her extensive professional journey. She has been a Professor at King Abdullah University of Science and Technology (KAUST), Saudi Arabia, where she leads the Semiconductor and Material Spectroscopy Group. Her leadership role involves directing multidisciplinary research programs, mentoring graduate students, and developing cutting-edge technologies in semiconductors and nanophotonics. Prof. Roqan has also served as a Visiting Researcher at the University of Strathclyde and an Academic Visitor at Imperial College London, where she collaborated with leading scientists on next-generation optoelectronic materials. Her expertise has been instrumental in developing spectroscopy laboratories, consulting on industrial semiconductor projects, and advising on photonic device fabrication. She has successfully led multiple research initiatives on III-Nitride materials, perovskites, and quantum dot technologies in collaboration with globally renowned institutions. Additionally, Prof. Iman Roqan has served as a consultant for King Fahd University of Petroleum and Minerals, spearheading projects involving Li-doped ZnO and other advanced materials. Her multifaceted professional experience demonstrates her ability to translate fundamental research into real-world innovations, significantly impacting academia, industry, and global semiconductor technologies.

Research Interests

Prof. Iman Roqan’s research interests lie at the intersection of semiconductor physics, nanomaterials, and optoelectronic device engineering, focusing on developing materials and technologies that enable high-performance applications. Her work primarily explores wide bandgap semiconductor nanostructures such as III-Nitrides and oxide semiconductors for ultraviolet (UV) and visible light-emitting devices, high-efficiency LEDs, lasers, and UV detectors. She is also deeply engaged in advancing spintronics by engineering quantum materials and spin-optoelectronic devices to achieve enhanced functionalities at the nanoscale. Another significant area of her research involves perovskite-based materials for next-generation optoelectronics, enabling breakthroughs in low-cost and flexible device architectures. Prof. Iman Roqan integrates theoretical modeling with advanced spectroscopy and nanofabrication techniques to understand and manipulate material properties at the atomic level. Her ongoing projects focus on developing novel nanostructures, such as GaN-based LEDs, MnO quantum dots, and ZnO-based spin devices, aimed at revolutionizing photonics, energy conversion, and information technologies. By combining experimental innovations with computational analysis, Prof. Iman Roqan drives impactful research that addresses the challenges of modern semiconductor technologies while paving the way for scalable, cost-effective, and energy-efficient optoelectronic solutions.

 Research Skills

Prof. Iman Roqan possesses exceptional expertise in semiconductor spectroscopy, nanofabrication, and materials characterization, supported by her extensive experience across interdisciplinary domains. She is proficient in designing and synthesizing III-Nitride and oxide-based semiconductor nanostructures, leveraging techniques such as pulsed laser deposition, molecular beam epitaxy, and chemical vapor deposition. Her skills encompass advanced optical spectroscopy, including photoluminescence, Raman spectroscopy, and time-resolved carrier dynamics, enabling detailed insights into material properties. Prof. Iman Roqan has also mastered quantum dot synthesis, perovskite fabrication, and spintronic device engineering, applying her knowledge to develop UV optoelectronic and spin-optoelectronic devices with groundbreaking functionalities. She has successfully filed 11 patents, demonstrating her ability to translate laboratory discoveries into scalable industrial applications. Her collaborative skills extend globally, working with leading research groups in the UK, USA, Japan, France, South Korea, and China, where she contributes to multidisciplinary projects in nanophotonics, quantum materials, and spectroscopy. As an editorial board member and reviewer for prestigious scientific journals, she maintains deep involvement in evaluating cutting-edge research. Prof. Iman Roqan’s combination of experimental expertise, analytical capability, and leadership in innovation establishes her as a leading figure driving advances in semiconductor science and optoelectronic technologies worldwide.

Awards and Honors

Prof. Iman Roqan has received numerous prestigious awards and recognitions that reflect her global impact in semiconductor physics, spectroscopy, and material science. She is the recipient of the International Teaching Award from the American Association of Physics Teachers (AAPT) and the American Physical Society (APS), recognizing her outstanding contributions to physics education and mentorship. She has also been honored with the Young Scientist Award by the VENUS International Foundation, India, and the IAAM Fellow Lecture Award by the International Association of Advanced Materials, Sweden. Prof. Iman Roqan’s work on UV optoelectronic devices earned her a special award from the Advanced UV for Life Association, Germany, highlighting her contributions to energy-efficient deep-UV photonic technologies. Additionally, she has been featured in the MRS Bulletin for establishing state-of-the-art spectroscopy laboratories in Saudi Arabia, advancing both research infrastructure and talent development. Under her mentorship, her students have also achieved international recognition, including awards at the International Science and Engineering Fair (ISEF). Her editorial appointments with ACS Applied Electronic Materials and Materials Science & Engineering International Journal further underscore her leadership within the global research community. These achievements collectively demonstrate Prof. Roqan’s exceptional contributions, pioneering discoveries, and lasting influence on the fields of nanotechnology, spintronics, and photonic device engineering.

Publications Top Notes

Title: Investigation of ultrathin surface passivation layers for GaN: A comparative analysis of Al2O3, SiO2, and SiNx in reducing surface recombination
Year: 2025

Title: Carrier Dynamics and Structural Analyses of Orange/Red In-Rich InGaN Double-Quantum Wells LED Hybridized by Blue InGaN Single-Quantum Well
Year: 2025

Title: Uniform blue emitting carbon nanodots synthesized from fig fruit using reverse diffusion purification
Year: 2024
Citation: 1

Title: Enhancement the performance of MAPbI3 perovskite solar cells via germanium sulfide doping
Year: 2024
Citation: 3

Title: Enhanced Electronic Structure, Phase, and Morphology of a CH3NH3PbI3 Perovskite Solar Cell Using Vanadium Copper Sulfide (VCuS) Nanoparticle Treatment
Year: 2024
Citation: 2

Conclusion

Prof. Iman Roqan stands as a pioneering figure in semiconductor physics, optoelectronics, and spectroscopy, making transformative contributions to materials science and photonics on a global scale. Her groundbreaking research on III-Nitride materials, quantum nanostructures, spin-optoelectronic devices, and UV LEDs has opened new avenues for high-performance, scalable, and cost-effective technologies. As a Professor and Head of the Semiconductor and Material Spectroscopy Group at KAUST, she has built world-class research facilities, fostered multidisciplinary collaborations, and guided future scientists through innovative mentorship. With 121 refereed publications, 11 patents, and over 5,365 citations, Prof. Iman Roqan’s scientific influence is recognized internationally. Her leadership extends beyond research, serving in editorial roles, conference committees, and global professional organizations, strengthening the bridge between academia and industry. Her achievements demonstrate an unwavering commitment to advancing optoelectronic technologies, enabling impactful innovations across energy, communication, and healthcare sectors. Prof. Iman Roqan’s nomination for the Best Researcher Award celebrates her outstanding contributions, exceptional academic excellence, and dedication to shaping the future of semiconductor science and nanophotonics. Through her vision and innovation, she continues to inspire researchers worldwide and transform the landscape of next-generation materials and device engineering.

 

Jong-Hyun Kim | Applied Visual Computing | Best Researcher Award

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Prof. Jong-Hyun Kim | Applied Visual Computing | Best Researcher Award

Associate Professor at Inha University | South Korea

Prof. Jong-Hyun Kim is an accomplished Associate Professor at Inha University, currently serving in the College of Software and Convergence within the Department of Artificial Intelligence and Design Technology, as well as holding a joint appointment in the Graduate School of Electrical and Computer Engineering. Prof. Jong-Hyun Kim has established himself as a leading researcher in computer graphics, simulation technologies, artificial intelligence, and visualization, building a career that blends academic rigor with practical applications. His research trajectory has been defined by his ability to integrate physics-based simulation with visual effects, animation, and human-computer interaction, contributing innovations that enhance both scientific visualization and user creativity. Having received his B.S. in Computer Science and Engineering from Sejong University, followed by M.S. and Ph.D. degrees in the same field from Korea University, Prof. Jong-Hyun Kim has steadily advanced through both academic and industry positions. His work spans collaboration with global technology leaders and Korean research foundations, earning him numerous awards for best papers, innovative projects, and outstanding teaching. As a scholar, innovator, and mentor, Prof. Jong-Hyun Kim continues to push the boundaries of applied research, striving to create technologies that seamlessly blend science, creativity, and real-world problem solving.

Professional Profile

ORCID 

Education

Prof. Jong-Hyun Kim’s academic journey has been both distinguished and rigorous, laying the foundation for his research expertise and professional achievements. Prof. Jong-Hyun Kim began his undergraduate studies in Computer Science and Engineering at Sejong University, where he earned his B.S. degree. His early academic focus combined theoretical computer science with practical applications, preparing him for advanced research. He then pursued graduate education at Korea University, where he completed his M.S. in Computer Science and Engineering. During his master’s program, Prof. Jong-Hyun Kim deepened his understanding of computer graphics, computational models, and interactive systems, working closely with faculty mentors to produce impactful research. His dedication to scholarly excellence led him to continue at Korea University for his Ph.D. in Computer Science and Engineering. His doctoral work focused on physically based simulations, visual effects, and advanced modeling techniques, topics that remain central to his research career. Through this academic pathway, Prof. Jong-Hyun Kim combined foundational engineering knowledge with cutting-edge research in visualization and simulation, equipping him with the interdisciplinary skills necessary for his later accomplishments as a researcher, educator, and innovator in artificial intelligence, graphics, and interactive technologies.

Professional Experience

Prof. Jong-Hyun Kim has built an impressive professional career that spans academia, industry, and collaborative research projects, positioning him as a key figure in computer graphics, artificial intelligence, and simulation studies. He currently serves as an Associate Professor at Inha University, where he contributes to the College of Software and Convergence and the Graduate School of Electrical and Computer Engineering. Prior to this role, he was an Associate Professor at Kangnam University, where he combined teaching with groundbreaking research and earned multiple awards for teaching excellence and research innovation. Prof. Jong-Hyun Kim also gained valuable experience at Korea University, serving as a lecturer and teaching fellow. Before transitioning fully into academia, he held several industry positions as a research engineer and senior research engineer in companies such as TenEleven Co. Ltd, MakeAlive Co. Ltd, Team-Profeta, and T-3 Co. Ltd, contributing to projects that bridged simulation technologies with industrial applications. Prof. Jong-Hyun Kim has also led multiple large-scale projects funded by the National Research Foundation of Korea, the Institute for Information and Communications Technology Promotion, and collaborations with leading companies. His professional journey reflects a seamless integration of teaching, research, and industrial innovation.

Research Interest

Prof. Jong-Hyun Kim’s research interests span a diverse range of fields within computer science and engineering, with a focus on integrating creativity and technology to solve complex real-world problems. Prof. Jong-Hyun Kim has made significant contributions in computer graphics, visual effects, and physically based simulation, with his work advancing the modeling and animation of fluids, hair, cloth, and natural phenomena. His expertise extends to artificial intelligence, where he applies AI-driven techniques to enhance scientific visualization, geometry processing, and image analysis. Additionally, Prof. Jong-Hyun Kim explores cutting-edge areas such as VR/AR environments, human-computer interaction, and GPU optimization, all of which contribute to building immersive, efficient, and highly interactive systems. His vision is to make technology more accessible and creative, empowering individuals and industries to simulate, visualize, and interact with complex systems in innovative ways. Ongoing projects funded by prestigious organizations, including the National Research Foundation of Korea and IITP, demonstrate the impact of his work in digital twins, smart cities, and AI convergence. Prof. Jong-Hyun Kim continues to push the frontiers of interdisciplinary research, focusing not only on the technical accuracy of simulations but also on enhancing the user experience in both academic and industrial applications.

Research Skills

Prof. Jong-Hyun Kim possesses a comprehensive set of research skills that combine theoretical foundations, technical mastery, and interdisciplinary applications. Prof. Jong-Hyun Kim has strong expertise in physically based simulation, enabling the accurate representation of fluids, cloth, hair, and other complex physical phenomena. His proficiency in computer graphics and visual effects allows him to design realistic and immersive animations, widely applied in gaming, VR/AR environments, and scientific visualization. He has advanced skills in artificial intelligence, including neural networks and deep learning, which he applies to optimize simulations, enhance geometry processing, and develop innovative visualization techniques. Prof. Jong-Hyun Kim is highly skilled in GPU programming and optimization, enabling efficient large-scale computations and real-time rendering. His ability to combine simulation frameworks with interactive user interfaces demonstrates his competence in human-computer interaction research. Furthermore, his interdisciplinary approach includes data visualization, image processing, and physics engines, giving him the ability to work across academic research, industry collaborations, and applied science projects. Prof. Jong-Hyun Kim’s skill set is also reflected in his extensive record of patents, best paper awards, and industry partnerships, underscoring his ability to transform technical innovations into practical tools and solutions that advance both scientific understanding and technological creativity.

Awards and Honors

Prof. Jong-Hyun Kim has received numerous awards and honors in recognition of his excellence in research, teaching, and industry collaboration. His achievements include multiple Best Paper Awards at prestigious conferences such as the Korea Society of Computer and Information Conference, the Korea Computer Graphics Society Conference, and international venues like the Computer Animation and Social Agents (CASA). His innovative work in visual simulations, GPU optimization, and AI-driven modeling has consistently earned him recognition for originality and impact. In addition to research accolades, Prof. Jong-Hyun Kim has been honored with teaching awards, reflecting his dedication to mentoring and education. He has also received Outstanding Professor Awards, Distinguished Research Achievement Awards, and industry-related recognitions such as the Excellence Award from Kangnam University’s Job Crew program. Notably, Prof. Jong-Hyun Kim has been acknowledged by national organizations, including the Ministry of Science and ICT and the Korean Ministry of Education, for his scientific contributions and educational impact. His long list of awards showcases sustained excellence, innovation, and leadership in his field. Collectively, these honors highlight Prof. Jong-Hyun Kim’s influence as a researcher, educator, and innovator in computer graphics, simulation, and artificial intelligence.

Publications Top Notes

Title: A Geometric Approach to Efficient Modeling and Rendering of Opaque Ice With Directional Air Bubbles
Year: 2025

Title: Advanced GPU Techniques for Dynamic Remeshing and Self-Collision Handling in Real-Time Cloth Tearing
Year: 2025

Title: Improved Air Mesh Refinement for Accurate Strand-Solid and Self-Collision Handling
Year: 2025

Title: Neural Network-Based Projective Grid Model for Learning Representation of Surface and Wave Foams
Year: 2025

Title: Porous Models for Enhanced Representation of Saturated Curly Hairs: Simulation and Learning
Year: 2025

Conclusion

Prof. Jong-Hyun Kim stands out as a scholar whose career reflects the perfect balance of academic rigor, technological innovation, and societal contribution. Throughout his journey, Prof. Jong-Hyun Kim has demonstrated an unwavering commitment to advancing research in computer graphics, simulation, and artificial intelligence, while also fostering collaboration across academia and industry. His contributions have been recognized globally through publications, patents, and awards, while his dedication to teaching has nurtured the next generation of engineers and researchers. With a research portfolio that spans digital twins, VR/AR systems, physics-based simulations, and GPU optimization, he has positioned himself at the intersection of creativity and computation. Beyond technical achievements, Prof. Jong-Hyun Kim has actively contributed to professional services, serving as a vice dean, editorial board member, and technical advisor, thereby strengthening the scientific community. His vision remains centered on developing technologies that make creativity and problem-solving more accessible, meaningful, and impactful in real-world contexts. Moving forward, Prof. Jong-Hyun Kim’s work will continue to shape the future of applied computer science, ensuring that the fields of visualization, simulation, and artificial intelligence evolve in ways that benefit science, industry, and society alike.

Chihyun Hwang | Energy Sustainability | Best Researcher Award

Published on by Applied Scientist

Dr. Chihyun Hwang | Energy Sustainability | Best Researcher Award

Principle at Koreal Electronics Technology Institute | South Korea

Dr. Chihyun Hwang is a distinguished energy scientist and Senior Researcher at the Korea Electronics Technology Institute (KETI), specializing in next-generation electrochemical energy storage systems. His expertise spans lithium-ion, sodium-ion, zinc-ion, and all-solid-state batteries, with particular emphasis on molecular binder design, nanostructured anodeless materials, and in-situ electrochemical analysis. Over the years, he has developed an outstanding research profile, contributing significantly to advancing energy technologies that support high-density, durable, and safe energy storage solutions for electric vehicles and renewable energy systems. With an H-index of 22 and nearly 60 published papers in prestigious journals such as Advanced Energy Materials, Advanced Functional Materials, and Angewandte Chemie, he has demonstrated both academic excellence and industry relevance. His work has frequently addressed critical issues in interface stability, electrode architecture, and electrochemical reversibility, ensuring long-term performance and scalability of energy storage devices. Beyond publications, Dr. Hwang actively contributes to professional communities, serving as Academic Director of the Korean Battery Society. His research leadership, supported by national and international collaborations, has positioned him as a vital contributor to the global battery research community, dedicated to enabling sustainable and high-performance energy technologies for the future.

Professional Profile

Scopus | ORCID | Google Scholar

Education

Dr. Chihyun Hwang pursued a rigorous academic path that laid the foundation for his career in energy storage research. He earned his Bachelor of Science in Fiber Engineering from Inha University, where he developed a strong materials science background. Motivated by the potential of energy technologies, he advanced to doctoral studies at the Ulsan National Institute of Science and Technology (UNIST), completing his Ph.D. in Energy Engineering under the mentorship of Professor Hyun-Kon Song. His doctoral research, titled Designing Molecular Structures of Polymeric Binders for Alloying-Based Anodes, reflected his early focus on electrochemical materials engineering and binder chemistry. The project involved designing and optimizing polymer binders to enhance electrode reversibility and stability, especially for high-capacity alloying anode systems such as silicon and antimony. This work gave him critical expertise in molecular design, electrochemical kinetics, and the durability of next-generation battery systems. His academic training was further enriched through exposure to interdisciplinary studies in chemical engineering, materials processing, and nanotechnology. Collectively, his education equipped him with both theoretical depth and experimental versatility, enabling him to address fundamental challenges in modern battery science while preparing him for a highly impactful international research career.

Professional Experience

Dr. Chihyun Hwang’s professional journey demonstrates a consistent trajectory of leadership and innovation in advanced energy storage. He has served as Senior Researcher at the Advanced Batteries Research Center of KETI, where he leads multiple large-scale projects on lithium metal, sodium-ion, and solid-state batteries. He was previously a Research Professor at UNIST, focusing on energy and chemical engineering, bridging academia and industry in battery innovation. Before that, he broadened his international exposure as a Postdoctoral Fellow in the research group of Prof. Nian Liu at the Georgia Institute of Technology, investigating zinc-ion and solid-state battery chemistries. Prior to his U.S. experience, he worked as a Postdoctoral Researcher in Prof. Hyun-Kon Song’s group at UNIST, extending his doctoral research into industrially viable energy storage solutions. At KETI, Dr. Hwang plays a critical role in projects developing digital twin infrastructures for battery manufacturing, high-energy solid-state batteries, and safe sodium-ion systems. His career reflects an integration of academic rigor, postdoctoral innovation, and applied industrial research, with a strong emphasis on multidisciplinary collaboration. This combination highlights his ability to translate laboratory advances into scalable technologies, essential for global energy transition initiatives.

Research Interest

Dr. Chihyun Hwang’s research interests span a wide spectrum of next-generation energy storage technologies, emphasizing fundamental innovation and practical application. A major focus is all-solid-state batteries, where he works on designing polymeric binders, nanostructured anodeless materials, and interfacial stabilizers to improve energy density and long-term cycling. He also explores large-scale bipolar stacking strategies to enable commercialization. His second research stream involves sodium-ion batteries, particularly mitigating reactive oxygen species through surface doping and additive engineering for stable high-voltage cathodes. Another growing area is zinc-ion batteries, where his work includes developing single-crystalline zinc anodes, electrolyte systems, and protective interfacial layers that enhance cycling stability and suppress dendritic growth. A distinctive strength of his research lies in in-situ electrochemical analysis, employing advanced techniques such as Raman microscopy, differential electrochemical mass spectrometry, and impedance spectroscopy to elucidate reaction mechanisms. These methods provide molecular-level insights into degradation and reversibility, accelerating the design of more robust systems. Collectively, his research aims to develop high-energy-density, safe, and durable electrochemical storage devices for electric mobility and renewable integration. His interests integrate theoretical understanding, nanomaterials design, and scalable processing, establishing him as a leading figure in the quest for sustainable battery technologies.

Research Skills

Dr. Chihyun Hwang possesses a diverse and highly specialized skill set that underpins his success in energy storage research. He is an expert in molecular and polymer design, particularly for binders that enhance electrode kinetics and mechanical resilience. His skills in nanostructure engineering allow him to create novel anodeless materials and functional electrode architectures that optimize charge transport and suppress failure mechanisms. A significant technical strength lies in his command of in-situ characterization techniques, including Raman microscopy, electrochemical impedance spectroscopy, and differential electrochemical mass spectrometry, which provide real-time insights into electrochemical reactions and interfacial dynamics. He is also highly experienced in solid-state battery fabrication and analysis, enabling him to evaluate interface stability and optimize electrolyte formulations. His expertise extends to computational and analytical methods, which he uses to model battery reactions and validate experimental findings. Beyond laboratory techniques, Dr. Hwang demonstrates strong project management skills, having coordinated multi-institutional and industry-supported initiatives. His ability to integrate materials synthesis, device engineering, and mechanistic analysis allows him to approach research challenges holistically. These combined skills make him not only a prolific researcher but also a leader capable of bridging science, engineering, and technology development in advanced energy systems.

Awards and Honors

Dr. Chihyun Hwang’s contributions to energy research have been recognized through prestigious awards and leadership roles that highlight both his scientific excellence and professional impact. He was elected Academic Director of the Korean Battery Society, underscoring his standing as a leading voice in the national research community. He also received the Award Certificate of Chungbuk Governor, reflecting regional acknowledgment of his technological contributions. He was honored with the highly competitive Sejong Science Fellowship (NRF), awarded to exceptional early-career researchers in Korea. This fellowship supported his independent research initiatives and accelerated his trajectory in advanced battery innovation. In addition to these distinctions, Dr. Hwang has consistently been invited to deliver presentations at international conferences, including meetings of the Materials Research Society, Electrochemical Society, and Korean Battery Society. His invited talks and presentations demonstrate global recognition of his expertise in zinc-ion, sodium-ion, and solid-state batteries. Collectively, these awards and honors not only validate his scientific contributions but also highlight his leadership potential in shaping Korea’s and the world’s energy technology landscape. His recognitions underscore his dual role as a pioneering researcher and influential academic contributor.

Publications Top Notes

Title: Gel/solid polymer electrolytes characterized by in situ gelation or polymerization for electrochemical energy systems
Year: 2019
Citation: 304

Title: Self‐assembling films of covalent organic frameworks enable long‐term, efficient cycling of zinc‐ion batteries
Year: 2021
Citation: 188

Title: Mechanical mismatch-driven rippling in carbon-coated silicon sheets for stress-resilient battery anodes
Year: 2018
Citation: 138

Title: Folding graphene film yields high areal energy storage in lithium-ion batteries
Year: 2018
Citation: 122

Title: An antiaging electrolyte additive for high‐energy‐density lithium‐ion batteries
Year: 2020
Citation: 83

Conclusion

Dr. Chihyun Hwang exemplifies the profile of a modern applied scientist, integrating deep academic training, cutting-edge research, and practical innovation in the field of advanced batteries. With a career spanning prestigious institutions in Korea and the United States, he has built a strong reputation for addressing critical challenges in electrochemical energy storage through creative design and rigorous analysis. His more than 50 publications, combined with international collaborations and leadership in professional societies, mark him as both a thought leader and a collaborative innovator. His work consistently bridges the gap between theory and application, from molecular design of binders to the development of high-energy solid-state and sodium-ion systems. Recognition through fellowships, awards, and professional leadership further reflects his excellence and influence in the scientific community. Looking forward, Dr. Hwang is well-positioned to drive transformative advances in sustainable energy technologies, particularly in developing safer, higher-density, and more durable batteries for electric mobility and renewable integration. His career embodies a commitment to excellence, innovation, and impact, making him not only a respected researcher but also a vital contributor to the global transition toward sustainable energy solutions.

Mouna Sbai Idrissi | Computational Science | Best Researcher Award

Published on by Applied Scientist

Ms. Mouna Sbai Idrissi | Computational Science | Best Researcher Award

Mouna Sbai Idrissi from Hassan II University | Morocco

Mouna Sbai Idrissi is a dedicated researcher and doctoral candidate at Université Hassan II, Faculty of Sciences Ben M’Sick, Casablanca, Morocco, specializing in the study of silica-based glasses using molecular dynamics and artificial intelligence. Her academic and research journey reflects a strong commitment to the intersection of physics, material science, and computational modeling. With an educational background spanning from physics and new technologies to specialized certifications in AI, digitalization, and scientific communication, Mouna has built a multifaceted skill set. She has actively contributed to academia as a tutor, practical course instructor, and co-supervisor for undergraduate and master’s projects, demonstrating her ability to guide and mentor future scientists. Her research has been presented in both national and international conferences, where she has delivered oral and poster communications on advanced topics like machine learning applications in materials science. Mouna’s work has also led to publications in reputable journals, covering structural and mechanical properties of glasses, predictive modeling, and nanomaterial synthesis. Known for her adaptability, teamwork, and innovative thinking, she combines technical expertise with a passion for continuous learning. Beyond her research, she is engaged in academic event organization and community activities, reflecting her commitment to both scientific advancement and academic service.

Professional Profile

Google Scholar

Education

Mouna Sbai Idrissi’s academic trajectory is characterized by consistent advancement in physics, materials science, and computational methods. She is currently in her third year of doctoral studies in Sciences and Techniques at Université Hassan II, focusing on the structural and mechanical properties of silica-based glasses through molecular dynamics and AI. Alongside her doctoral program, she has undertaken numerous certified trainings, including AI applications, digitalization, intellectual property, research methodology, machine learning, advanced Python, SQL, and Power BI. Her exposure to international learning environments includes participation in ICTP’s workshop on Classical and Quantum Machine Learning for Condensed Matter Physics. She holds a Master’s degree in Physics and New Technologies, where her thesis applied deep learning for predicting the Young’s modulus of silicate glasses, and a Bachelor’s degree in Physics and its Applications, with a final project on photovoltaic cell simulation. Her foundational studies include a DEUG in Physics of Matter and multiple baccalaureate-level certifications in physical sciences, humanities, and electrical sciences. This diverse educational portfolio is complemented by seminars on microscopy and scientific publishing, demonstrating her dedication to interdisciplinary knowledge acquisition. Her academic growth reflects a balance between theoretical mastery, experimental techniques, and computational innovation.

Professional Experience

Mouna has accumulated substantial teaching and academic supervision experience at Université Hassan II, where she has served in various pedagogical roles. She has co-supervised undergraduate and master’s final projects, guiding research on hydrogen production modeling and glass phase prediction using AI. As a tutor, she has led sessions in geometric optics, electricity, and thermodynamics, preparing students through problem-solving exercises, past examination reviews, and personalized guidance. Her laboratory teaching responsibilities include practical courses in optics, thermodynamics, electrostatics, modern physics applications, and electrokinetics, covering both undergraduate and master’s levels. Mouna’s contributions extend beyond teaching into academic administration and event organization, where she has been an active member of committees for scientific days, doctoral welcome events, and national research meetings. She has also participated in exam invigilation, student orientation, and conference coordination. Her engagement demonstrates not only her teaching competence but also her organizational and leadership abilities. In addition, she has been involved in para-university activities such as facilitating training programs and contributing to innovation clubs. These experiences have allowed her to integrate pedagogical skills with her research expertise, strengthening her role as both an educator and a scientist committed to fostering academic excellence.

Research Interest

Mouna’s research interests lie at the intersection of materials science, computational modeling, and artificial intelligence. Her doctoral work focuses on studying the structural and mechanical properties of silica-based glasses through molecular dynamics simulations coupled with machine learning algorithms, aiming to develop predictive models for properties such as Young’s modulus and ion mobility. She is particularly interested in understanding how compositional variations, such as the incorporation of TiO₂, affect the mobility of alkali ions in glass matrices. Her broader scientific curiosity extends to nanomaterials, including the synthesis and functionalization of nanoparticles for photocatalytic applications. She also explores the use of deep learning in physical sciences to accelerate discovery, improve predictive accuracy, and optimize material properties. In addition to core research, she is keen on developing computational tools for energy-related applications, such as modeling hydrogen production systems powered by photovoltaic panels. Mouna’s vision is to bridge the gap between experimental materials science and computational intelligence, enabling faster innovation cycles and sustainable technological solutions. She remains open to interdisciplinary collaborations, particularly those that merge condensed matter physics, nanotechnology, and AI to address industrial and environmental challenges.

Research Skills

Mouna possesses a robust set of research skills spanning computational, experimental, and analytical domains. She is proficient in programming languages such as Python, C/C++, and Fortran, with expertise in applying machine learning and deep learning techniques to materials modeling. Her computational toolkit includes MATLAB, MATLAB Simulink, LabVIEW, Origin, and molecular dynamics simulation packages, enabling her to model, simulate, and analyze complex material systems. Experimentally, she has hands-on experience with techniques such as transmission electron microscopy (TEM) and other material characterization methods. She is skilled in designing simulation workflows for predicting structural and mechanical properties of glasses, as well as for renewable energy systems modeling. Her research communication skills are demonstrated through numerous oral and poster presentations at scientific conferences, as well as publications in peer-reviewed journals. Additionally, she is adept at data visualization, statistical analysis, and preparing publication-ready figures and manuscripts. Her proficiency in Word, Excel, PowerPoint, and LaTeX supports her academic writing and reporting activities. Fluent in Arabic, French, and English, Mouna can effectively engage with diverse research communities. Combined with her adaptability, teamwork, and innovative mindset, these skills make her well-equipped to tackle multidisciplinary research challenges.

Awards and Honors

Mouna’s academic dedication has been recognized through prestigious awards and honors. Notably, she is a recipient of the Bourses Doctorants-Moniteurs (PASS – Associate Scholarship PhD), awarded to doctoral candidates who demonstrate both academic excellence and teaching contributions. This recognition underscores her dual role as a researcher and educator, excelling in advancing scientific knowledge while mentoring students. Her research has earned invitations to present at both national and international scientific gatherings, such as the Rencontre Nationale des Jeunes Chercheurs and the International Conference on Research and Innovation. She has also been selected to participate in specialized international workshops, such as the ICTP’s program on Classical and Quantum Machine Learning for Condensed Matter Physics, reflecting her integration into global scientific networks. The breadth of her conference contributions—ranging from oral communications on glass property prediction to poster sessions on molecular dynamics simulations—highlights her commitment to disseminating knowledge. These achievements, combined with her teaching roles and active involvement in academic events, demonstrate her standing as a promising scientist whose work bridges experimental and computational approaches in material science. Her awards serve as a testament to her hard work, innovation, and potential for future research impact.

Publications Top Notes

Title: Synthesis of perfect TiO₂ nanospheres decorated by silver shell nanoparticles for photocatalytic applications
Year: 2024
Citation: 5

Title: Structural and mechanical properties of alkali silicate glasses: Insights from molecular dynamics simulations and artificial intelligence
Year: 2025

Title: Young’s modulus of calcium-alumino-silicate glasses: Insight from machine learning
Year: 2024

Conclusion

Mouna Sbai Idrissi embodies the profile of a modern researcher—technically skilled, pedagogically active, and deeply engaged in scientific advancement. Her journey from undergraduate physics studies to doctoral research has been marked by continuous learning, interdisciplinary exploration, and a drive to apply artificial intelligence in solving complex material science problems. She has effectively balanced her roles as a researcher, educator, and academic organizer, contributing meaningfully to both student development and the broader research community. Through her publications, conference presentations, and teaching activities, she has demonstrated not only technical expertise but also strong communication and leadership abilities. Her ability to merge computational simulations with experimental insights positions her at the forefront of emerging trends in glass science and nanotechnology. Looking ahead, Mouna aspires to expand her research collaborations, advance innovative AI-driven materials design, and contribute to sustainable energy and advanced materials development. Her dedication to knowledge dissemination, coupled with her adaptability and problem-solving mindset, ensures that she will continue to make significant contributions to the scientific community while inspiring future generations of researchers.

 

Mengqiang Li | Material Science | Best Applied Science Award

Published on by Applied Scientist

Mr. Mengqiang Li | Material Science | Best Applied Science Award

Mengqiang Li from Chungnam National University | South Korea

Li Meng Qiang is a dedicated researcher currently pursuing a Ph.D. at Chungnam National University, specializing in the development of advanced organic optoelectronic materials and perovskite solar cells. His work bridges fundamental material design with practical device applications, aiming to enhance efficiency, stability, and commercialization potential in next-generation photovoltaic and optoelectronic devices. Over the course of his academic journey, Li has demonstrated exceptional productivity, contributing to more than 12 SCI-indexed publications in highly regarded journals such as Advanced Functional Materials, Advanced Science, Materials Today Energy, and ACS Energy Letters. His research interests extend into π-conjugated molecular design, organic photodetectors, and interface engineering strategies that optimize device performance. With an h-index of 5, total citations of 57, and multiple collaborative projects involving leading institutions in Korea and China, Li has established himself as a promising scientist in his field. His contributions include the development of ionic liquid additives, nonfullerene acceptors, and novel quinone-terminal organic semiconductors, which have been recognized with honors such as the BK21 Outstanding Researcher Award and the Korean Industrialization Society Outstanding Presentation Award. Li’s research is fueled by a strong commitment to innovation, scientific rigor, and the translation of laboratory breakthroughs into viable industrial solutions.

Professional Profile

Scopus | ORCID | Google Scholar

Education

Li Meng Qiang’s academic path reflects a deep commitment to materials science and device engineering. He is currently enrolled in the Ph.D. program at Chungnam National University, Republic of Korea, where his research focuses on organic optoelectronic materials and perovskite solar cells. This doctoral training has provided him with advanced expertise in molecular design, synthesis, thin-film fabrication, and device characterization. His work integrates both experimental and theoretical approaches, ensuring a well-rounded understanding of how material properties translate into device performance. Prior to his doctoral studies, Li acquired a strong foundation in chemistry, materials science, and electronic engineering through rigorous undergraduate and postgraduate coursework, where he developed early interests in π-conjugated systems and their optoelectronic applications. His educational experience has been enriched by collaborations with interdisciplinary research teams, which have exposed him to global research standards and cross-cultural scientific exchange. Through seminars, workshops, and international conferences, Li has continuously expanded his academic horizons, keeping pace with the rapidly evolving landscape of organic electronics. His education not only equipped him with technical knowledge but also fostered a mindset oriented toward problem-solving, innovation, and the practical application of scientific discoveries.

Professional Experience

Although currently engaged in full-time doctoral research, Li Meng Qiang has accumulated valuable professional experience through his active involvement in high-impact research projects and collaborations. At Chungnam National University, he has led and contributed to multiple funded projects focusing on the synthesis and application of organic semiconductors, interface engineering for perovskite solar cells, and the development of near-infrared organic photodetectors. His work is characterized by a hands-on approach, from material synthesis to device fabrication and performance optimization. Li’s professional contributions extend beyond laboratory work; he has authored and co-authored over 12 SCI-indexed journal articles, often serving as a key contributor in experimental design, data analysis, and manuscript preparation. His international collaborations with research groups in Korea and China have further broadened his professional scope, allowing him to work on projects that combine material innovation with scalable manufacturing processes. Li has also been actively involved in presenting his research at international conferences, where he has earned recognition for his clarity in communication and the novelty of his findings. Through these experiences, he has developed a professional identity as a skilled experimentalist, an effective communicator, and a collaborative team member dedicated to advancing optoelectronic technologies.

Research Interest

Li Meng Qiang’s research interests lie at the intersection of materials chemistry, nanotechnology, and device engineering, with a particular focus on organic optoelectronic materials and perovskite solar cells. His scientific curiosity is driven by the need to improve the efficiency, stability, and scalability of next-generation energy conversion devices. Central to his work is the design and synthesis of π-conjugated molecules, nonfullerene acceptors, and novel electron acceptors with unique quinone-terminal groups for enhanced optoelectronic performance. Li is also deeply engaged in exploring ionic liquid additives and surface passivation strategies to mitigate defects, suppress nonradiative recombination, and enhance device operational stability. His research extends into organic photodetectors, especially those capable of near-infrared detection, which hold significant promise for applications in sensing, imaging, and communication. By combining molecular engineering with advanced device architecture, Li seeks to develop materials that can be seamlessly integrated into high-performance, cost-effective, and environmentally sustainable electronic systems. His long-term vision is to bridge the gap between laboratory-scale innovations and industrial-scale applications, enabling the commercialization of high-efficiency solar cells and multifunctional optoelectronic devices that contribute to global clean energy solutions.

Research Skills

Li Meng Qiang possesses a diverse set of research skills spanning molecular design, material synthesis, device fabrication, and performance characterization. In synthetic chemistry, he is proficient in designing and producing π-conjugated molecules, nonfullerene acceptors, and organic semiconductors with targeted optoelectronic properties. His expertise in thin-film deposition techniques, such as spin-coating and vacuum evaporation, enables him to fabricate high-quality active layers for perovskite and organic solar cells. He is adept at employing interface engineering methods, including surface passivation and additive incorporation, to optimize device efficiency and stability. Li is also skilled in the characterization of materials and devices using UV-vis spectroscopy, photoluminescence spectroscopy, X-ray diffraction (XRD), scanning electron microscopy (SEM), and current-voltage (J-V) measurements. His analytical skills allow him to interpret complex datasets and derive meaningful correlations between molecular structure, film morphology, and device performance. Additionally, Li has experience with collaborative research management, manuscript preparation, and peer-reviewed publishing. His strong presentation skills, honed through international conferences, enable him to effectively communicate technical concepts to diverse audiences. Overall, his research toolkit is both comprehensive and adaptable, supporting his goal of advancing the frontiers of organic optoelectronic materials and device engineering.

Awards and Honors

Li Meng Qiang’s research excellence has been recognized through several prestigious awards and honors, reflecting both the quality and impact of his scientific contributions. Among his notable accolades is the BK21 Outstanding Researcher Award, which honors outstanding achievements in graduate-level research and innovation. This award underscores his commitment to advancing knowledge in organic optoelectronics and his ability to deliver high-quality, impactful scientific work. He also received the Korean Industrialization Society Outstanding Presentation Award, acknowledging his skill in effectively communicating complex research findings and their industrial relevance. These honors are complemented by his strong publication record in leading journals such as Advanced Functional Materials and ACS Energy Letters. Beyond formal awards, his work has garnered attention through invitations to present at international conferences and participate in collaborative projects with top research groups in Korea and China. His recognition is not only a testament to his technical expertise but also to his dedication, perseverance, and ability to translate research into meaningful technological advancements. These achievements highlight his potential as a future leader in the field of optoelectronic materials and sustainable energy technologies.

Publications Top Notes

Title: Passivating detrimental grain boundaries in perovskite films with strongly interacting polymer for achieving high-efficiency and stable perovskite solar cells
Year: 2023
Citations: 25

Title: Recent progress in semitransparent organic solar cells: photoabsorbent materials and design strategies
Year: 2024
Citations: 10

Title: Enhanced chemical interaction between ionic liquid and halide perovskite to improve performance of perovskite solar cells
Year: 2024
Citations: 7

Title: Interlayer molecular doping to enhance efficiency in tin perovskite solar cells
Year: 2024
Citations: 5

Title: Critical role of the end-group acceptor in enhancing the efficiency of indacenodithiophene-benzothiadiazole-linked nonfullerene organic solar cells through morphology optimization
Year: 2024
Citations: 5

Conclusion

In summary, Li Meng Qiang is an emerging scientist whose work in organic optoelectronic materials and perovskite solar cells stands at the forefront of clean energy research. Through rigorous doctoral training at Chungnam National University, he has developed expertise that spans the entire spectrum from molecular design to device fabrication and performance optimization. His scientific output—comprising more than 12 SCI-indexed publications, an h-index of 5, and over 57 citations—reflects a consistent commitment to quality, innovation, and impact. His contributions to π-bridge engineering, ionic liquid additives, and novel electron acceptors have significantly advanced the understanding and performance of optoelectronic devices. Honors such as the BK21 Outstanding Researcher Award further validate his potential and achievements. Looking forward, Li aims to continue bridging academic research with industrial applications, focusing on scalable, high-performance, and environmentally sustainable solutions. With a foundation built on technical excellence, collaborative engagement, and a forward-looking research vision, he is poised to make substantial contributions to global energy challenges and the future of optoelectronic technology.

Zheng Liu | Material Science | Best Researcher Award

Published on by Applied Scientist

Dr. Zheng Liu | Material Science | Best Researcher Award

Researcher at Taihang Laboratory | China

Dr. Zheng Liu is an accomplished materials scientist and engineer whose expertise spans polymer chemistry, physics, and advanced composite materials for aerospace applications. As an associate researcher at the Lightweight Structure and Materials Manufacturing Research Center, jointly affiliated with Taihang Laboratory and Northwestern Polytechnical University, he has made significant contributions to the development, optimization, and mechanistic understanding of polymer- and ceramic-based composite materials. His research focuses on structural/functional integrated composites, wave-transparent and wave-absorbing composites, ceramic matrix composites, and thermal conductive composites, with applications in aviation flight vehicles and power systems. Dr. Liu’s work has led to notable advancements implemented in pre-research aircraft and propulsion systems. He has authored over 20 high-impact journal publications, including multiple ESI Hot Papers and Highly Cited Papers, and holds 10 national invention patents. His scholarly influence is further reflected in his authorship of a monograph with Springer Nature, contributions to Wiley and Intech publications, and service as a guest editor and peer reviewer for prestigious journals. Recognized as a national-level young talent and recipient of multiple awards, Dr. Liu combines academic excellence with industrial application, bridging fundamental materials research with real-world engineering solutions.

Professional Profile

Scopus | ORCID

Education

Dr. Zheng Liu’s academic foundation reflects a continuous and focused progression toward expertise in advanced composite materials and their engineering applications. He began his undergraduate studies at Nanchang Hangkong University, earning a bachelor’s degree in materials science with a strong emphasis on polymer chemistry and structural materials. Building on this, he pursued a master’s degree at Northwestern Polytechnical University, where he deepened his research into polymer-based composites and interface modification strategies, gaining hands-on experience with laboratory synthesis and performance testing. His master’s research provided the groundwork for his doctoral studies, also at Northwestern Polytechnical University, where he conducted extensive research on structural/functional integrated composites, particularly focusing on wave-transparent and thermal-conductive materials for aerospace applications. Throughout his academic journey, Dr. Liu actively engaged in national and provincial research projects, honing his skills in both experimental techniques and theoretical modeling. His education not only equipped him with solid scientific knowledge but also cultivated his ability to translate complex material designs into practical engineering applications. This strong academic progression laid the foundation for his current role as a leading engineer and researcher in high-performance composite materials for advanced aerospace systems.

Professional Experience

Dr. Zheng Liu currently serves as an engineer at the Taihang Laboratory, working closely with the Lightweight Structure and Materials Manufacturing Research Center in collaboration with Northwestern Polytechnical University. In this role, he applies his deep expertise in polymer and ceramic matrix composites to develop advanced structural and functional materials for aerospace applications. His work focuses on optimizing composite architectures, improving interface bonding, and enhancing performance parameters such as thermal conductivity, dielectric properties, and wave transparency. Dr. Liu plays a critical role in integrating research innovations into practical engineering solutions, particularly for aviation flight vehicles and power systems. His contributions have been successfully implemented in pre-research aircraft projects, demonstrating both technological and industrial impact. In addition to his engineering responsibilities, Dr. Liu serves as an industry mentor for engineering master’s degree students, guiding the next generation of researchers. He has also been actively involved in national and provincial-level research initiatives, collaborating with multidisciplinary teams on high-profile projects supported by organizations such as the National Natural Science Foundation of China. His dual role as a researcher and engineer ensures that his work maintains a balance between cutting-edge science and functional application.

Research Interest

Dr. Zheng Liu’s research interests lie at the intersection of polymer science, composite engineering, and aerospace material innovation. He specializes in the design, fabrication, and performance optimization of polymer-based and ceramic-based composites for high-performance structural and functional applications. His work encompasses structural/functional integrated composites, wave-transparent composites, wave-absorbing materials, and thermal conductive composites, all tailored for demanding operational environments. A key focus of his research is the modification of composite interfaces, aimed at improving mechanical strength, thermal stability, and electromagnetic properties. Dr. Liu is particularly interested in uncovering the intrinsic mechanisms governing composite material behaviors, enabling precise optimization for aerospace and defense systems. He integrates experimental studies with theoretical modeling to establish structure–property relationships, ensuring material designs meet both functional and structural demands. Additionally, he explores novel fabrication and processing methods, such as polymer modification and hybrid reinforcement strategies, to achieve multi-functional integration. His research aligns with national priorities in aerospace innovation, with outcomes directly applied to aviation flight vehicles and propulsion systems. Ultimately, Dr. Liu aims to advance next-generation lightweight, high-strength, and multi-functional composite materials that push the boundaries of aerospace engineering and materials science.

Research Skills

Dr. Zheng Liu possesses a broad and specialized skill set that supports his work in advanced composite materials research and development. His materials synthesis and processing expertise includes polymer modification, ceramic matrix fabrication, fiber surface functionalization, and hybrid composite assembly. He is proficient in interface engineering techniques, employing advanced compatibilizers, polymer grafting, and surface coatings to enhance composite bonding and performance. Dr. Liu is skilled in materials characterization methods such as scanning electron microscopy, transmission electron microscopy, X-ray diffraction, Fourier-transform infrared spectroscopy, and thermogravimetric analysis. His mechanical property evaluation capabilities include tensile, flexural, impact, and interlaminar shear testing, as well as thermal and dielectric property assessments. He has significant experience in wave-transparency and electromagnetic testing, critical for aerospace applications. Beyond experimental skills, Dr. Liu is adept in scientific writing and publishing, having authored numerous high-impact papers and book chapters. He is also experienced in project leadership, managing interdisciplinary teams and overseeing multiple national and provincial research initiatives. His combination of hands-on laboratory expertise, analytical skills, and engineering insight enables him to translate cutting-edge research into practical, industry-ready composite materials solutions.

Awards and Honors

Dr. Zheng Liu has been widely recognized for his scientific excellence, innovation, and impactful contributions to advanced composite materials research. He has been selected for national-level and provincial-level talent programs, including the China Association for Science and Technology Young Talent Support Program, underscoring his status as an emerging leader in materials science. His achievements have earned multiple prestigious honors, such as the Wiley China High Contribution Author Award, the COS Award in Materials Science for Best Researcher, the First Prize in the Cross-Strait Youth Composite Materials Innovation and Entrepreneurship Competition, and the Excellent Paper Award from the Chinese Society of Composite Materials. Dr. Liu’s research impact is reflected in his role as first or corresponding author on over 20 high-impact journal publications, including multiple ESI Hot Papers and Highly Cited Papers, with several exceeding 100 citations. His intellectual property portfolio includes 10 national invention patents, and his academic influence extends through his authorship of a Springer Nature monograph, a co-authored Wiley monograph, and multiple book chapters. These awards and honors highlight his dedication to advancing aerospace material technologies and his contributions to bridging academic research with engineering applications.

Publications Top Notes

Title: A review on optimal preparation of multi-component fillers and fibers with excellent wideband microwave absorbing performance through the electromagnetic loss engineering
Year: 2025

Title: Optimal Preparation and Inherent Mechanism of Advanced Integrated Structural/Electromagnetic Wave-Absorbing Polymer-Based Composites for Aeronautical Applications: A Review
Year: 2025

Title: Interfacial strengthening and processing of carbon fibers reinforced poly(ether-ether-ketone) composites: A mini-review
Year: 2024

Title: A mini-review of ultra-low dielectric constant intrinsic epoxy resins: Mechanism, preparation and application
Year: 2024

Title: Block copolymer functionalized quartz fibers/cyanate ester wave-transparent laminated composites
Year: 2023

Conclusion

Dr. Zheng Liu represents a new generation of materials scientists whose work bridges fundamental research and practical engineering in aerospace composite materials. With a solid academic foundation, extensive research experience, and a proven track record of translating innovations into industrial applications, he exemplifies the integration of science and technology. His contributions to polymer-based and ceramic-based composite optimization have already been implemented in pre-research aircraft and propulsion systems, showcasing the real-world value of his research. As a national-level young talent and award-winning author, Dr. Liu continues to influence the field through his publications, patents, and editorial work. His mentorship of graduate students and active participation in collaborative research projects further extend his impact within the scientific community. Driven by a commitment to advancing lightweight, high-strength, and multi-functional materials, Dr. Liu is poised to contribute significantly to the future of aerospace engineering and high-performance composites. His career reflects both academic rigor and industrial relevance, making him a leading figure in the evolving landscape of advanced materials science.

Mahmoud Mahdian | Quantum Computing | Best Researcher Award

Published on by Applied Scientist

Assoc. Prof. Dr. Mahmoud Mahdian | Quantum Computing | Best Researcher Award

Associate Professor at University of Tabriz | Iran

Dr. Mahmoud Mahdian is an accomplished Associate Professor of Theoretical Physics at the University of Tabriz, Iran, specializing in quantum information and computation. His expertise spans quantum algorithms, optimization, simulation, and quantum machine learning, with extensive contributions to the study of open quantum systems, relativistic entanglement, and quantum correlations. Throughout his career, Dr. Mahdian has combined rigorous theoretical insight with innovative computational approaches, contributing significantly to the advancement of quantum technologies. His international experience includes research appointments at Harvard University, the University of Toronto, and the Beijing Computational Science Research Center. With a strong track record of publications in leading journals, he has made pioneering contributions to entanglement detection methods, hybrid quantum-classical algorithms, and quantum simulation of biological processes such as photosynthesis. His teaching covers foundational and advanced courses at undergraduate, master’s, and doctoral levels, mentoring numerous theses in quantum information science. Dr. Mahdian has also presented his research at major international conferences, strengthening scientific collaboration and visibility. Recognized for academic excellence, he has been awarded for his outstanding doctoral work and continues to integrate machine learning and quantum computing toward next-generation computational paradigms. His career reflects a commitment to both cutting-edge research and the training of future quantum scientists.

Professional Profile

Google Scholar

Education

Dr. Mahmoud Mahdian earned his Ph.D. in Theoretical Physics from the University of Tabriz, Iran, specializing in quantum information and computation. His doctoral research, titled Relativistic Quantum Entanglement and supervised by Professor M. A. Jafarizadeh, explored the interplay between relativity and quantum correlations, providing foundational insights for high-energy quantum information science. Prior to this, he completed his M.Sc. in Theoretical Nuclear Physics at the University of Tabriz, where his thesis involved calculating spectral density distributions and nuclear mass using a generalized Thomas–Fermi model. His academic journey began with a B.Sc. in Theoretical Physics from Ferdowsi University of Mashhad, Iran, where he built a strong foundation in classical mechanics, electromagnetism, and quantum theory. This progression from nuclear to quantum information physics reflects his evolving research trajectory toward quantum computation and simulation. Each academic stage was marked by deep engagement with both mathematical formalism and physical interpretation, enabling him to tackle complex interdisciplinary problems. His exposure to diverse physics domains—from nuclear structure modeling to relativistic quantum mechanics—has shaped his holistic approach to research. This solid academic background has been instrumental in his later contributions to quantum algorithms, quantum machine learning, and simulations of open quantum systems on near-term quantum devices.

Professional Experience

Dr. Mahmoud Mahdian’s professional career reflects a sustained commitment to quantum information research, international collaboration, and advanced teaching. He is currently an Associate Professor at the University of Tabriz, following his tenure as an Assistant Professor. His international appointments include a research assistantship in the Aspuru-Guzik Group at Harvard University’s Department of Chemistry and Chemical Biology and a visiting scholar position at the University of Toronto. Earlier, he contributed to the Beijing Computational Science Research Center in quantum optics and theoretical physics. Dr. Mahdian began his academic career as a lecturer at Payame Noor University of Tabriz and worked as a physics teacher prior to that. His teaching has spanned undergraduate, master’s, and doctoral levels, covering quantum mechanics, statistical mechanics, group theory, quantum field theory, and quantum computing. He has supervised numerous theses, ranging from quantum entanglement dynamics to machine learning-assisted quantum algorithms. Alongside his academic responsibilities, Dr. Mahdian has published extensively, presented at high-profile conferences, and fostered collaborations across Iran, China, Canada, and the United States. His blend of research innovation and educational leadership positions him as a key contributor to advancing quantum sciences globally.

Research Interests

Dr. Mahdian’s research is deeply rooted in the intersection of theoretical physics, quantum information science, and computational methods. His core interests include quantum algorithms, quantum optimization, quantum simulation, and quantum machine learning. In quantum algorithms, he focuses on both purely quantum and hybrid quantum-classical approaches tailored for noisy intermediate-scale quantum (NISQ) devices. His work in quantum optimization explores advanced variational algorithms for solving combinatorial and physical system challenges. In quantum simulation, Dr. Mahdian investigates open quantum systems, particularly biological energy transport phenomena such as the Fenna–Matthews–Olson (FMO) complex, using methods from both mathematical physics and experimental quantum computing platforms. His contributions to quantum machine learning involve developing entanglement detection techniques via classical and quantum support vector machines, enhancing the interface between artificial intelligence and quantum theory. These research themes are united by a goal to bridge theoretical insights with computational implementations, enabling scalable solutions for real-world quantum problems. His recent work has also addressed the role of symmetry protection in quantum batteries, noise-resilient algorithms, and quantum neural network architectures. By integrating diverse quantum paradigms, Dr. Mahdian seeks to push the boundaries of how quantum technologies can address complex scientific and industrial challenges.

Research Skills

Dr. Mahdian possesses an extensive skill set encompassing analytical theory, computational modeling, and algorithm development in quantum science. He is proficient in programming languages such as Python, C++, and FORTRAN, with deep expertise in scientific libraries and packages including QuTiP, Qiskit, Cirq, and PennyLane for quantum computation. His computational toolkit also includes Mathematica, MATLAB, and Maple, which he uses for symbolic manipulation, numerical simulation, and data visualization. His theoretical strengths lie in quantum mechanics, quantum field theory, statistical mechanics, group theory, and mathematical physics, allowing him to model and analyze complex quantum systems. Experimentally aligned, he has collaborated on NMR quantum computing and simulation projects, translating theory into practical quantum protocols. Dr. Mahdian is adept at designing quantum algorithms for optimization, simulation, and entanglement detection, with applications in physics, chemistry, and biology. His interdisciplinary competence extends to applying machine learning for quantum system analysis, including supervised and unsupervised techniques for quantum data classification. He also brings strong skills in scientific writing, peer-reviewed publishing, and international conference presentation. By combining programming, analytical modeling, and collaborative research experience, Dr. Mahdian has built a versatile skill set that supports both academic and applied advancements in quantum technologies.

Awards and Honors

Dr. Mahdian’s academic excellence has been recognized through notable honors, including being named Outstanding and Selected Ph.D. Physics Student by the President of the University of Tabriz. This distinction reflects his exceptional performance during his doctoral studies in quantum information and computation. Beyond formal awards, his achievements include multiple invitations to speak at prestigious conferences and international schools on quantum information science, showcasing his leadership in the field. His contributions to cross-disciplinary projects—spanning quantum biology, machine learning, and computational physics—have also led to collaborative opportunities with leading institutions such as Harvard University and the University of Toronto. The breadth of his published work, which includes high-impact articles in Physical Review A, Quantum Information Processing, and European Physical Journal D, further underscores his recognition in the scientific community. His role as a supervisor for cutting-edge research projects in quantum simulation, entanglement detection, and variational quantum algorithms highlights his influence on the next generation of physicists. Dr. Mahdian’s career distinctions not only reflect personal accomplishment but also his commitment to advancing global research networks and fostering interdisciplinary innovation in quantum science.

Publications Top Notes

Title: Quantum discord evolution of three-qubit states under noisy channels
Year: 2012
Citations: 34

Title: Detecting some three-qubit MUB diagonal entangled states via nonlinear optimal entanglement witnesses
Year: 2008
Citations: 19

Title: Hybrid quantum variational algorithm for simulating open quantum systems with near-term devices
Year: 2020
Citations: 14

Title: Investigating a class of bound entangled density matrices via linear and nonlinear entanglement witnesses constructed by exact convex optimization
Year: 2008
Citations: 14

Title: Incoherent quantum algorithm dynamics of an open system with near-term devices
Year: 2020
Citations: 10

Conclusion

Dr. Mahmoud Mahdian’s academic journey is a testament to dedication, innovation, and a deep passion for advancing quantum science. With a robust educational foundation in theoretical physics and a research portfolio that bridges quantum information, computation, and machine learning, he has made substantial contributions to both fundamental theory and practical quantum technologies. His professional experiences span leading international institutions, enabling him to engage with diverse research cultures and cutting-edge methodologies. As a teacher, he has inspired and guided numerous students, equipping them with the knowledge and skills to thrive in an evolving scientific landscape. His publications and conference presentations have contributed to shaping discussions on entanglement, quantum simulation, and noise-resilient algorithms, reinforcing his role as an influential voice in the field. Dr. Mahdian’s blend of theoretical insight, computational expertise, and collaborative spirit positions him as a driving force in the pursuit of scalable, real-world quantum applications. Looking ahead, his work promises to further the integration of quantum technologies into interdisciplinary domains, from biology to artificial intelligence, fostering scientific breakthroughs with far-reaching societal impact.