Prof. Dr. Rami Ahmad El-Nabulsi | Physics Research Impact Award

Prof. Dr. Rami Ahmad El-Nabulsi | Physics Research Impact Award

Dr. Rami Ahmad El-Nabulsi |  University of South Bohemia, Czech Republic

Dr. Rami Ahmad El-Nabulsi is a globally renowned theoretical physicist and applied mathematician, currently serving as a Senior Research Fellow at the Center of Excellence in Quantum Technology, Chiang Mai University, Thailand; the Department of Optical Networks, CESNET, Prague; and the University of South Bohemia, Czech Republic. With over 390 peer-reviewed journal publications, 6,700+ citations, and an h-index of 43, Dr. El-Nabulsi has established himself as a pioneer in nonlinear dynamics, quantum fractals, and interdisciplinary modeling in physical and engineering systems.

Author Profile

Google Scholar

Education

Dr. Rami Ahmad El-Nabulsi earned his Ph.D. in Mathematical Physics and Modeling from Aix-Marseille University (AMU), France, where he developed advanced analytical frameworks for nonlinear systems. He also holds a Diploma of Advanced Studies (DEA) in Plasma Physics from the same institution, reflecting his deep expertise in high-energy and space plasma phenomena. Prior to that, he completed both his Master’s and Bachelor’s degrees in Physics, building a solid foundation in classical and modern physics that underpins his interdisciplinary research today.

Professional Experience

Dr. El-Nabulsi holds multiple international research affiliations. At Chiang Mai University, he contributes to cutting-edge studies in quantum atom optics and fractal modeling of quantum phenomena. At CESNET and the University of South Bohemia, his research extends into computational modeling, nonlinear systems, and quantum technologies for networking and information systems.

He has published extensively on advanced topics such as nonlinear Hamiltonian systems, quantum chaos, fractal acoustics, and fractional calculus applied to astrophysical and material science problems. His theoretical research is complemented by strong computational skills and interdisciplinary collaborations across nuclear, space, and condensed matter physics.

Research Skills

Dr. El-Nabulsi’s expertise spans a wide range of advanced topics in physics and applied mathematics, including quantum and fractal dynamics, nonlinear differential equations, plasma magnetohydrodynamics (MHD), space physics, nuclear engineering, and superconductivity. He is particularly well-versed in fractional calculus and mathematical modeling, which he applies to develop novel theoretical frameworks for understanding complex systems. Proficient in a variety of computational tools such as MATLAB, Mathematica, Python, Fortran, C/C++, LaTeX, and Octave, Dr. El-Nabulsi brings a computational edge to his theoretical work. His unique contribution lies in constructing new mathematical models and physical theories that interpret phenomena across multiple scales—from subatomic interactions to cosmological structures—within fractal and fractional dimensions.

Selected Publications

Chaotic dynamics and fractal analysis of nonstandard Hamiltonian systems, Chaos, Solitons and Fractals, 2025

A model for ice sheets and glaciers in fractal dimensions, Polar Science, 2025

Structural Analysis of Phononic Crystals in Fractal Dimensions, Journal of Elasticity, 2025

Modeling Stochastic Langevin Dynamics in Fractal Dimensions, Physica A, 2025

A Fractional Model for Soliton in Low-Earth Orbital Plasma, IEEE Transactions on Plasma Science, 2025

Qualitative Financial Modelling in Fractal Dimensions, Financial Innovation, 2025

Time-Dependent Heating of the Solar Corona in Fractal Dimensions, Advances in Space Research, 2024

Higher-order Quantum Waves in Fractal Dimensions, Canadian Journal of Physics, 2024

Physics Research Impact

Dr. Rami Ahmad El-Nabulsi’s research has profoundly impacted the field of theoretical and applied physics, offering groundbreaking insights into the behavior of complex systems across quantum, classical, and cosmic scales. With a solid foundation in mathematical physics and nonlinear dynamics, his work uniquely blends fractal geometry, fractional calculus, and nonlocal variational principles to model physical phenomena that conventional approaches struggle to explain.

His contributions have advanced the theoretical understanding of quantum chaos, Hamiltonian mechanics, and nonlinear wave propagation in fractal dimensions. Dr. El-Nabulsi’s innovative approaches have been applied to diverse fields including plasma magnetohydrodynamics (MHD), quantum electronics, astrophysics, superconductivity, and nuclear fusion physics. Notably, his models on magnetic chaotic field lines in fusion reactors, solar corona heating, and quantum waves in nonlocal geometries offer new perspectives for tackling real-world engineering and astrophysical problems.

Research Interests

Dr. El-Nabulsi’s research interests encompass a diverse and interdisciplinary array of topics, including quantum mechanics in fractal dimensions, geometrical and nonlinear dynamics, and chaos theory. He is deeply engaged in exploring fundamental theories such as general relativity and quantum field theory, while also contributing to applied domains like plasma physics, superconductivity, and mathematical modeling. His work extends to emerging fields such as fractal thermodynamics, multiscale physics, and biophysics, with additional focus on reactor and nuclear systems as well as acoustic metamaterials. This broad scope reflects his commitment to advancing theoretical understanding and practical applications across multiple branches of modern physics.

Conclusion

Dr. Rami Ahmad El-Nabulsi is a multidisciplinary scholar who continues to push the boundaries of theoretical physics and applied mathematics. His passion for scientific exploration, teaching, and global collaboration contributes profoundly to understanding the complex nonlinear structures that govern our universe — from the quantum to the cosmic scale.

Dr. Ambareen Khan | Best Researcher Award

Dr. Ambareen Khan | Best Researcher Award

Dr. Ambareen Khan | University Sains Malaysia (USM) | Malaysia

Dr. Ambareen Khan is an accomplished researcher in aerospace engineering and artificial intelligence, currently serving as a Lecturer in Artificial Intelligence at the Centre for Instructional Technology & Multimedia (PTPM), Universiti Sains Malaysia (USM). Her interdisciplinary research integrates computational fluid dynamics (CFD), machine learning, and experimental aerodynamics, with a focus on supersonic flow control, ANN modeling, and data-driven simulations.

Author Profile

Scopus 

Education

Dr. Ambareen Khan earned her Ph.D. in Aerospace Engineering from Universiti Sains Malaysia, where her thesis investigated passive flow control using rib geometries in sonic and supersonic flow conditions. She holds a Master of Science (Research) in Aerospace Engineering from USM and a second Master’s degree in International Business from the University of Nottingham, Malaysia. She completed her undergraduate studies in Computer Science Engineering under Visvesvaraya Technological University.

Professional Experience

Dr. Ambareen Khan currently lectures and supervises research projects in artificial intelligence applications in engineering. She previously completed a postdoctoral fellowship at USM’s School of Management, contributing to machine learning models for traffic behavior analysis in industrial zones. As a Graduate Research Assistant from 2020 to 2023, she conducted advanced simulations and wind tunnel experiments related to supersonic aerodynamics and base pressure control mechanisms.

Her industry-relevant skill set spans both engineering and AI, enabling her to work across disciplines such as CFD modeling, deep learning for flow prediction, and hybrid simulation methods.

Research Skills

Dr. Ambareen Khan expertise includes computational fluid dynamics (CFD), wind tunnel testing, supersonic jet analysis, and base pressure optimization. Her AI proficiency includes artificial neural networks (ANN), deep learning (CNN, SLNN), and data modeling using Python, TensorFlow, Keras, and C++. Her interdisciplinary capabilities are further supported by project experience in business analytics and systems modeling.

Selected Publications

Ambareen Khan, A., Rajendran, P., Khan, S.A., et al. (2025). Experimental and Numerical Investigation of Suddenly Expanded Flow at Sonic Mach Number. Scientific Reports.

Jamadar, I.S., Kumar, K., Ambareen Khan, A., et al. (2025). Quantum Pressure and Memory Effects in Cancer Modeling: A Fractional Calculus Neural Network Approach. Results in Engineering.

Ambareen Khan, A., Aabid, A., Akhtar, M.N., et al. (2025). Supersonic Flow Control with Quarter Rib in a Duct: An Extensive CFD Study. International Journal of Thermofluids.

Ambareen Khan, A., Rajendran, P., Sidhu, J.S.S., et al. (2023). CNN Modeling and Response Surface Analysis of Compressible Flow at Sonic and Supersonic Mach Numbers. Alexandria Engineering Journal.

Ambareen Khan, A., Mazlan, N.M., Ismail, M.A. (2022). Velocity Distribution and Base Pressure Analysis of Under Expanded Nozzle Flow at Mach 1.0. JARFMTS. (Scopus)

Ambareen Khan, A., Ismail, M.A., Mazlan, N.M. (2020). Numerical Simulation of Suddenly Expanded Flow from Converging Nozzle at Sonic Mach Number. Springer Proceedings, AeroMech 2019.

Conclusion

Dr. Ambareen Khan is a multidisciplinary researcher at the intersection of aerospace engineering and artificial intelligence. Her expertise in CFD, machine learning, and high-speed flow control has resulted in high-impact publications and real-world research applications. Through her innovative approach and academic leadership, Dr. Khan continues to make significant contributions to future aerospace technologies and intelligent systems.

Mr. RACHED BEN MEHREZ | Best Researcher Award

Mr. Rached Ben Mehrez | Best Researcher Award

Rached Ben Mehrez | National Engineering School of Tunis (ENIT) | Tunisia

Dr. Rached Ben Mehrez is a researcher in electrical engineering at the National Engineering School of Tunis (ENIT), specializing in renewable energy systems, power electronics, and hydrogen storage technologies. His research explores advanced energy systems, including the electromagnetic optimization of automotive technologies and the integration of hybrid renewable sources with intelligent energy storage solutions. Dr. Ben Mehrez’s work bridges theoretical modeling, experimental validation, and applied system design for sustainable power generation.

Author Profile

ORCID

Education

Dr. Ben Mehrez earned his PhD in Electrical Engineering from the National Engineering School of Tunis (ENIT), where his dissertation focused on the electromagnetic optimization and aging analysis of steer-by-wire systems for electric vehicles. He holds two master’s degrees—one in Power Systems from ENIT and another in Industrial Computing from the Higher School of Computer and Technology in Tunis. His academic background forms the basis of his multidisciplinary expertise in energy systems and control technologies.

Professional Experience

Dr. Ben Mehrez has been actively involved in research since 2010 at the Electrical Systems Laboratory of ENIT and the Advanced Systems in Electrical Engineering Laboratory at the National Engineering School of Carthage (ENICar). After completing his PhD, he contributed to research in the field of renewable energy with a focus on hybrid systems combining wind and photovoltaic generation integrated with hybrid energy storage systems (HESS).

His work has addressed critical challenges in energy management, system optimization, and hydrogen storage, with specific emphasis on modeling, control strategies, and simulation of decentralized energy systems. Dr. Ben Mehrez has also collaborated on multiple doctoral projects, guiding advanced studies on energy conversion and storage technologies.

Research Skills

Dr. Rached Ben Mehrez possesses a strong multidisciplinary skill set in electrical engineering and renewable energy technologies. His core competencies include renewable energy systems such as photovoltaic, thermal solar, wind, and tidal energy, along with the integration of hybrid storage solutions. He has extensive expertise in power and industrial electronics, including inverters, rectifiers, choppers, switched-mode power supplies, and variable-speed drives. In the field of electrotechnics, he is proficient in the operation and control of rotating machines, optimization of electrical networks, and the design of energy distribution and protection systems. His experience in control and automation encompasses industrial sensors, PLCs, real-time regulation, and advanced control system design. Dr. Ben Mehrez has also conducted significant research in hydrogen storage, particularly in thermodynamic and electrochemical modeling and alloy optimization for hydrogen absorption and discharge. His technical proficiency is further supported by a broad command of engineering and simulation tools such as MATLAB, Feko, Orcad, Simplorer, Python, Scilab, Pspice, VHDL, C/C++, and Workbench.

Selected Publications

Ben Mehrez, R., Briki, C., Beagan, A.M., et al. (2025). A study on the experimental and theoretical aspects of hydrogen absorption by the LmNi₄.₉₁Sn₀.₁₅ alloy. Journal of Alloys and Compounds.

Ben Mehrez, R., Briki, C., El Amraoui, L., et al. (2025). Integrated Theoretical and Experimental Study of Hydrogen Absorption in Pd-Al₂O₃ Pellets. SSRN.

Bahri, H., Ben Mehrez, R., Nasri, F., et al. (2025). The Impact of Temperature Variations on the Electrical Performance of SOI FinFET Devices. International Journal of Numerical Modelling: Electronic Networks Devices and Fields.

Ben Mehrez, R., Almoneef, M., Briki, C., et al. (2024). Experimental and theoretical study of hydrogen electrochemical discharging by MmNi₃.₆Co₀.₆Al₀.₈ alloy. International Journal of Hydrogen Energy.

Abbassi, A., Ben Mehrez, R., Abbassi, R., et al. (2022). Eco-feasibility study of a distributed power generation system driven by renewable green energy sources. Energy Sources, Part A: Recovery, Utilization, and Environmental Effects.

Conclusion

Dr. Rached Ben Mehrez is a multidisciplinary researcher contributing significantly to the development of sustainable and intelligent energy systems. His work integrates electrical engineering, materials science, and renewable energy technologies to address emerging challenges in energy optimization and hydrogen storage. Through his academic and applied contributions, he continues to influence Tunisia’s renewable energy research landscape and beyond.

Mr. Joel Filho | Best Researcher Award

Mr. Joel Filho | Best Researcher Award

Mr. Joel Filho | University of Coimbra | Portugal

Joel Alves Costa Filho is a doctoral researcher in Physical Engineering with a specialization in instrumentation at the University of Coimbra, Portugal. Co-funded by the European Space Agency (ESA), his PhD research investigates novel approaches to space debris detection using compact and intelligent satellite systems. With a background in aerospace engineering and astrophysical instrumentation, Filho’s work integrates simulation, sensor design, and mission analysis to improve space situational awareness and debris mitigation efforts.

Author Profile


ORCID

Education

Joel Alves Costa Filho earned his Bachelor of Science in Aerospace Engineering from the University of Brasília, where he focused on chemical propulsion and CFD modeling. He later completed a Master of Science in Astrophysical and Instrumentation for Space at the University of Coimbra, with a thesis titled “Feasibility Study of Using a Satellite Star Tracker for Space Debris Detection on LEO Orbits.” Currently, he is pursuing his PhD in Physical Engineering at the University of Coimbra, conducting advanced research on space-based surveillance systems.

Professional Experience

Filho serves as a fellow researcher at both the Instituto de Astrofísica e Ciências do Espaço (IA) and the Laboratório de Instrumentação e Física Experimental de Partículas (LIP). He has also held principal investigator roles on ESA-funded projects at the European Space Operations Centre (ESOC), where he led studies on space debris detection and instrumentation.

Previously, he contributed to CFD-based product development as an engineer at S&DG Consulting Unipessoal and worked on space weathering studies at the Geophysical and Astronomical Observatory of the University of Coimbra. His early research foundations were built through an internship at the Chemical Propulsion Laboratory at the University of Brasília, where he focused on ignition system modeling using CH₄/O₂ combustion.

Awards and Recognition

Filho received a prestigious ESA co-funding grant for his doctoral research in physical engineering. He was also selected for participation in the ISSO 2023 Specialization Course at the European Space Research and Technology Centre (ESTEC), Netherlands, which reflects his growing reputation in the field of aerospace instrumentation and miniaturized payloads.

Research Skills

His core competencies include computational fluid dynamics (CFD), satellite instrumentation, star tracker systems, space surveillance, and mission analysis. He is proficient in space weather modeling, numerical simulation, payload prototyping, and sensor algorithm development. His interdisciplinary approach bridges aerospace engineering, physics, and instrumentation to address emerging challenges in low-Earth orbit (LEO) debris monitoring.

Publications

  • Filho, J., Gordo, P., Peixinho, N., Melicio, R., Garcia, P., Flohrer, T. (2025). Mission analysis of space-based small camera for space debris detection. Advances in Space Research.

  • Filho, J., et al. (2025). Dual-Purpose Star Tracker and Space Debris Detector: Miniature Instrument for Small Satellites. Journal of Sensor and Actuator Networks.

  • Filho, J., et al. (2025). SUB-10 CM SPACE DEBRIS: Detection and Initial Orbit Determination with a Star Tracker. 9th European Conference on Space Debris.

  • Filho, J., et al. (2023). Space Surveillance Payload Camera Breadboard: Star Tracking and Debris Detection Algorithms. Advances in Space Research.

  • Filho, J., et al. (2023). Payload Camera Breadboard for Space Surveillance—Part I: Breadboard Design and Implementation. Applied Sciences.

Conclusion

Joel Alves Costa Filho is an emerging figure in aerospace systems engineering and space instrumentation, particularly in the domain of debris tracking technologies. His research bridges theoretical modeling and practical deployment of advanced sensors for orbital monitoring. With a strong technical foundation and active collaboration with European research institutes and space agencies, Filho is contributing to safer and more sustainable space operations.

Mr. Muhammad Usama Haroon | Best Researcher Award

Mr. Muhammad Usama Haroon | Best Researcher Award

Middle East Technical University | Turkey


Muhammad Usama Haroon is a graduate researcher in Sustainable Environment and Energy Systems at Middle East Technical University (METU), where he also serves as a Graduate Teaching Assistant in the Department of Chemistry. A rising voice in sustainable geotechnics, Haroon’s research explores the reuse of sewage sludge and industrial waste for the eco-friendly stabilization of soft soils. His work integrates environmental analysis, material science, and civil engineering to reduce cement dependency and promote circular construction practices. With a strong foundation in chemical engineering and hands-on teaching experience, Haroon contributes to both academic instruction and applied sustainability research in soil improvement, solid waste reuse, and environmental durability assessment.

Author Profile

Google Scholar

Education

Muhammad Usama Haroon earned his Bachelor of Science in Chemical Engineering Technology from the University of Engineering and Technology, Lahore. He is currently pursuing his Master of Science in Sustainable Environment and Energy Systems at Middle East Technical University, Turkey. His master’s thesis, titled Eco-Friendly Stabilization of Soft Clays: Utilizing Sewage Sludge as a Sustainable Alternative to Cement, investigates the mechanical and microstructural behavior of clay composites treated with sewage sludge and sewage sludge ash. His academic background combines theoretical engineering principles with practical experience in laboratory testing and environmental applications.

Professional Experience

Haroon currently serves as a Graduate Teaching Assistant at METU, contributing to undergraduate education in General Chemistry and Physical Chemistry. He supports laboratory instruction, prepares recitation materials, supervises student projects, and offers one-on-one tutoring and academic guidance. Prior to joining METU, he taught Chemistry and Mathematics at The City School (DHA Campus) in Pakistan, where he conducted labs, designed course materials, and mentored students in secondary and higher secondary education. Earlier, as Academic Coordinator at Allied School, he led academic planning, coordinated assessments, implemented curricula, and managed faculty schedules—developing leadership skills in both academic operations and instructional design.

Awards and Recognition

Haroon received a full graduate scholarship from Middle East Technical University in recognition of his academic excellence and research potential. In 2024, he was awarded a certificate for presenting his paper Sustainable Water Utilization and Wastewater Reuse in Pakistan’s Dairy Industry: A Review at the NISE Conference in Kyrenia, Cyprus. His work in sustainability and environmental engineering has been recognized by academic peers and institutions across research and education platforms.

Research Skills

Haroon’s research focuses on the stabilization of soft soils using sustainable materials such as sewage sludge and silkworm cocoon fibers. His expertise spans experimental geotechnics, unconfined compressive strength (UCS) testing, freeze–thaw durability assessment, pozzolanic reactivity, and advanced material characterization techniques such as SEM and XRD. He is proficient in data analysis using Statgraphics and environmental simulation tools, and has demonstrated interdisciplinary knowledge in waste valorization, sustainable construction, and environmental resource management. His work emphasizes the development of low-carbon materials for infrastructure, aligned with the principles of circular economy and environmental resilience.

Publications

Haroon, M. U., Ekinci, A., & Balkis, A. P. (2025). Sustainable strength enhancement of cement-clay composites through partial replacement with sewage sludge and sewage sludge ash. Construction and Building Materials, 489.

Al-Subari, L., Haroon, M. U., & Ekinci, A. (2024). Utilizing silkworm cocoon fibres for improving strength of clay: An experimental study. In Innovative Geo-Environmental Engineering.

Conclusion

Muhammad Usama Haroon is a promising environmental engineer and researcher whose work reflects a deep commitment to sustainable development and green innovation in geotechnical engineering. His leadership in research, dedication to academic teaching, and contributions to low-carbon construction practices make him an ideal candidate for recognition in sustainability-focused academic and professional circles. With a strong interdisciplinary foundation and a forward-looking research agenda, Haroon continues to advance eco-efficient solutions that integrate environmental responsibility with engineering performance.

Ms. Zahra Esmaeili | Best Researcher Award

Ms. Zahra Esmaeili | Best Researcher Award

Zahra Esmaeili | Power Systems Engineering | Best Researcher Award Nominee

Zahra Esmaeili is an emerging expert in electrical engineering with a focus on power systems, smart grid optimization, and renewable energy integration. Currently a Ph.D. candidate in Electrical Engineering (Power) at Iran University of Science and Technology, Zahra is recognized for her work on advanced control strategies for interconnected power systems and her contributions to microgrid stability and planning.

A highly accomplished scholar, Zahra has held competitive academic positions through national talent initiatives and has delivered lectures as a visiting professor at IUST. Her research addresses urgent global energy challenges—ranging from the design of intelligent load frequency control systems to the application of fault current limiters in improving power system reliability. She has published in several prestigious journals and serves as a reviewer for major international publications in power electronics and renewable energy.

Publication Profile

ORCID

Education

Zahra Esmaeili holds a Ph.D. in Electrical Engineering (Power) from Iran University of Science and Technology, where she is currently conducting advanced research in power system dynamics and control. She earned her M.Sc. in Electrical Engineering with a specialization in Power Systems from Sharif University of Technology, focusing on optimal energy management in microgrids. Her academic journey began with a B.Sc. in Electrical Engineering from Urmia University, where she graduated as the top student in her cohort.

Professional and Academic Experience

Zahra has served as a teaching assistant in multiple core courses in power systems analysis, electrical machines, and energy conversion. She is currently involved in undergraduate instruction as a visiting professor, contributing to foundational education in electrical engineering.

Her research includes hybrid modeling for load frequency and voltage regulation, intelligent control techniques for microgrids, and analysis of energy storage planning in active distribution networks. Zahra has also presented her findings at national engineering conferences, emphasizing innovation in both modeling and simulation environments.

Research Interests

Zahra Esmaeili’s research interests lie at the intersection of advanced power system control and sustainable energy integration. Her work focuses on power system dynamics and stability, with particular emphasis on load frequency control (LFC) and automatic voltage regulation (AVR) in interconnected networks. She is deeply engaged in the modeling and optimization of microgrids and distributed generation systems, aiming to enhance the reliability and efficiency of renewable energy integration. Her expertise extends to power system planning and optimization, electricity market operations, and the application of virtual inertia and control strategies for improved grid performance. She is also interested in the deployment of Flexible AC Transmission Systems (FACTS) to support dynamic stability in modern power systems.

Selected Publications

Esmaeili, Z. et al., “Energy Storage Systems Planning in Active Distribution Networks,” Journal of Iranian Association of Electrical and Electronics Engineers
Esmaeili, Z. et al., “Optimal Energy Management of Microgrids using Quantum Teaching Learning Based Algorithm,” AUT Journal of Electrical Engineering
Esmaeili, Z. et al., “Two-Stage Lead-Lag PSS in Combined LFC-AVR Models for Multi-Area Systems,” Journal of Operation and Automation in Power Engineering
Esmaeili, Z. et al., “Review of Fault Current Limiters on Power Systems Reliability,” IET The Journal of Engineering
Esmaeili, Z. et al., “Virtual Inertia Control in Interconnected Microgrids,” International Journal of Electrical Power and Energy Systems (Accepted)

Conclusion

Zahra Esmaeili is a dedicated and innovative researcher whose work spans the frontiers of intelligent power system control and energy optimization. Her commitment to advancing energy resilience through smart technologies makes her a standout candidate for the Best Researcher Award. Her career exemplifies academic rigor, technical depth, and applied impact in the evolving field of sustainable power engineering.

Mr. Nusret ŞAHAN | Best Researcher Award

Mr. Nusret ŞAHAN | Best Researcher Award

Nusret Sahan | Quantum Thermodynamics & Optoelectronics – Research Assistant at Akdeniz University, Turkey

Nusret Sahan is a promising Research Assistant at the Department of Physics, Akdeniz University, Turkey. His research bridges theoretical physics and device-level engineering, with a focus on quantum phase transitions, magnetized curved space-time, and optoelectronic properties of graphene-based systems. Through his rigorous academic training and early research contributions, he is emerging as a dedicated scholar in the fields of quantum systems and nanomaterial applications.

Academic Profile


ORCID 

Education


Nusret Sahan is currently pursuing his Ph.D. in Physics at Akdeniz University (2021–present), where he investigates the quantum phase behavior of Dirac particles in magnetized and rotating curved geometries. He received his M.Sc. in Physics from the Izmir Institute of Technology (2017–2021), where his thesis focused on the impact of adsorbates on the optoelectronic performance of graphene/silicon Schottky barrier photodiodes. He earned his B.Sc. in Physics from Akdeniz University in 2017. His academic pathway reflects a strong background in quantum mechanics, materials physics, and experimental photonics.

Experience


In 2024, Sahan was appointed as a Research Assistant at the Faculty of Science, Akdeniz University. He supports both experimental and theoretical physics research while contributing to undergraduate lab courses and departmental activities. His prior experience includes advanced photodetector characterization and quantum field modeling, preparing him for a multidisciplinary research career. He is fluent in English (B2 level), enabling collaboration with international teams.

Research Interests


Nusret Sahan’s work centers on the interplay between geometry, magnetism, and thermodynamics in curved space-time systems, with applications in quantum cosmology and field theory. In parallel, his research in optoelectronics explores surface modification and adsorbate engineering in 2D material interfaces—particularly for graphene/silicon photodiodes. His ability to combine quantum theory with experimental insight sets him apart as a physicist capable of bridging abstract models with practical technologies.

Awards


In recognition of his academic potential, Sahan was awarded the National PhD Scholarship by TÜBİTAK in 2022. His consistent academic performance and research commitment have positioned him as a top young researcher within Turkey’s graduate science community.

Publications


Quantum Phase Transitions of Dirac Particles in a Magnetized Rotating Curved Background: Interplay of Geometry, Magnetization, and ThermodynamicsPhysics of the Dark Universe (2025).
Adsorbate-Induced Enhancement of the Spectral Response in Graphene/Silicon-Based Schottky Barrier PhotodetectorsApplied Physics A (2020).
These two peer-reviewed publications reflect his engagement with both fundamental and applied research. Together, they have received 6 citations and have contributed to his Scopus H-index of 1.

Conclusion


Nusret Sahan is a motivated and talented early-career researcher whose work spans quantum theory and device physics. With a foundation built on academic excellence and a growing research portfolio, he is poised to make further contributions to quantum thermodynamics and optoelectronic engineering. As he continues to publish, collaborate, and engage in global scientific networks, Sahan represents a new generation of physicists prepared to tackle complex problems at the intersection of theory and technology.

Dr. Liying Fu | Best Researcher Award

Dr. Liying Fu | Best Researcher Award

Dr. Liying Fu | Flotation Chemistry – Researcher at Central South University, China


Dr. Liying Fu is a promising researcher at Central South University (CSU), China, specializing in flotation chemistry, sulfide mineral separation, and collector design. With a solid foundation in chemical engineering and materials science, Dr. Fu has made impactful contributions to the development of novel flotation reagents, particularly heterocyclic and hydroxamic acid-based collectors. Her work combines synthetic chemistry, surface science, and environmental engineering to address challenges in mineral processing and resource efficiency.

Academic Profile

Scopus

Education

Dr. Fu’s academic path reflects strong academic rigor and a focused specialization in mineral processing and chemical engineering. She is currently pursuing her Ph.D. in Materials and Chemical Engineering at Central South University (2024–present), building on her M.Phil. in Chemical Engineering and Technology from the same institution (2020–2023). Her undergraduate studies in Applied Chemistry were completed at Jiangxi University of Science and Technology (2016–2020). Throughout her academic career, Dr. Fu has maintained top-tier GPAs and has excelled in advanced coursework including engineering ethics, advanced separation processes, and materials frontiers.

Research Experience

With a research career that began in 2021, Dr. Fu has developed expertise in synthesizing nitrogen-containing heterocyclic compounds, understanding adsorption mechanisms on mineral surfaces, and optimizing flotation conditions for both sulfide and oxide minerals.

  • Design of Nitrogen-Containing Heterocyclic Collectors (2024–Present): Developed a series of high-selectivity collectors for Zn/Pb and Zn/Fe separation under acidic conditions. Her work contributed to improved flotation performance and sustainability.

  • Thioether Hydroxamic Acid Synthesis (2024): Synthesized and characterized novel hydroxamic acid reagents with enhanced adsorption affinity on oxide minerals, offering a new pathway for improved flotation recovery.

  • Master’s Research on Hydroxyalkyl Oxadiazole-Thione Collectors (2021–2023): Demonstrated the selective flotation of galena and sphalerite using a novel surfactant. Investigated collector-mineral interactions using FTIR, XPS, and DFT simulations, leading to reduced lime use and improved environmental metrics.

  • Bachelor’s Thesis on Perovskite Oxides (2020): Synthesized DyFeO₃ perovskite materials for electrochemical sensors. Designed a dopamine sensor with high sensitivity and selectivity, addressing interference from biological compounds like uric acid and ascorbic acid.

Research Interests

Dr. Fu’s research interests span:

  • Flotation collectors for sulfide and oxide minerals

  • Molecular design and mechanism studies of flotation reagents

  • Adsorption mechanisms and interfacial chemistry

  • Rare earth mineral processing and sustainable flotation technologies
    Her future work aims to integrate novel collector synthesis with green chemistry principles for efficient, selective, and environmentally responsible mineral processing.

Publications

Fu, L., Ahmed, M. M. M., Liu, S., et al. (2025). Hydroxyalkyl Oxadiazole-Thione Surfactants: Preparation, and Clean Flotation Separation of Galena from Sphalerite. (Under Review)
Ahmed, M. M. M., Liu, M., Fu, L., et al. (2025). Separating Galena from Sphalerite with 5-Heptyl-1,3,4-Oxadiazole-2-Thione Chelator and its Flotation Mechanism. (In Revision)
Fu, L., Liu, G., Huang, Y., et al. (2023). Research Progress on Azathione Flotation Collectors. Metal Mine. (Accepted, in Chinese)

Conclusion

Dr. Liying Fu represents a new generation of interdisciplinary researchers in mineral processing, combining deep theoretical insight with practical innovation in flotation chemistry. Her contributions to reagent design, adsorption mechanisms, and environmentally conscious flotation processes underscore her potential as a future leader in the field. As she advances her doctoral research at Central South University, Dr. Fu is poised to make significant strides in sustainable mineral resource utilization and rare earth element recovery, addressing critical challenges in modern materials science and chemical engineering.

Dr. Anicet Kammogne Djoum Nana | Best Researcher Award

Dr. Anicet Kammogne Djoum Nana | Best Researcher Award

Prof. Kammogne Djoum Nana Anicet | Theoretical Condensed Matter Physics – University of Dschang, Cameroon 


Dr. Kammogne Djoum Nana Anicet is an accomplished physicist and researcher in the Department of Physics at the University of Dschang, Cameroon. A dedicated academic, analytical thinker, and emerging voice in quantum theory, Dr. Kammogne has made significant contributions to the understanding of dissipation, interferometry, and spontaneous emission in quantum systems. He is affiliated with international academic platforms such as Scopus and ResearcherID and actively contributes to the development of theoretical condensed matter physics in Africa.

Academic Profile

ORCID

Education

Dr. Kammogne’s academic journey is deeply rooted in the University of Dschang, where he completed both his Master’s and Ph.D. in Physics. His doctoral research, supervised by Prof. Lukong Cornelius Fai and Dr. Nsangou Issofa, explored interferometry, quantum dissipation, and non-resonant spontaneous emission in quantum systems. This work was awarded the highest academic distinction, earning unanimous praise from the examination committee. His studies have laid a solid foundation for his expertise in open quantum systems and their interaction with the environment.

Experience

Dr. Kammogne’s professional experience spans both teaching and research roles within the University of Dschang. He began as a laboratory monitor and later served as a tutor and lecturer, delivering undergraduate and postgraduate courses in electromagnetism, quantum mechanics, solid-state physics, and electrostatics. From 2019 to 2023, he was a core member of the Laboratory of Condensed-Matter, Electronics, and Processing, where he played a central role in curriculum design, mentorship, and collaborative research activities. His dedication to academic excellence and scientific integrity has made him a respected figure among students and faculty alike.

Research Interests

Dr. Kammogne’s research focuses on the theoretical modeling of dissipative quantum systems, spontaneous emission, and interference phenomena in non-resonant environments. His recent work addresses key challenges in quantum level-crossing physics and coherence loss. In 2025, he co-authored two preprints on arXiv: “A Closed-Form Approach to Oscillatory Integrals in Level-Crossing Physics” (with Dr. Maseim B. Kenmoe) and “Effect of Spontaneous Emission on a Tanh Model.” These studies offer novel insights into quantum dissipation mechanisms, with implications for quantum computing, nanophotonics, and next-generation quantum devices.

Awards

Dr. Kammogne received the highest honors for his Ph.D. dissertation, reflecting the depth and originality of his research. He maintains an active presence on scientific platforms such as ResearchGate, Scopus, and ResearcherID. His continued contributions to the field of condensed matter physics have gained recognition within academic networks in Cameroon and internationally. His commitment to scientific progress and student development continues to elevate his standing in the global physics community.

📖Notable Publications

A Closed-Form Approach to Oscillatory Integrals in Level-Crossing Physics – arXiv (2025) – Developed analytical techniques for evaluating oscillatory integrals in quantum level-crossing models.
Effect of Spontaneous Emission on a Tanh Model – arXiv (2025) – Analyzed the impact of spontaneous emission on population dynamics in a hyperbolic-tangent quantum model.
Spontaneous Emission in an Exponential Model – arXiv (2024) – Investigated dissipative quantum transitions in exponential interaction systems.
Non-resonant Exponential Nikitin Models with Decay – Chinese Journal of Physics (2024) – Extended Nikitin-type models to include decay and non-resonant interactions in quantum dissipation studies.
Statistics of Interferograms in Three-Level Systems – Physics Letters A (2022) – Explored statistical properties of interferometric signals in multi-level quantum systems.

Conclusion

Dr. Kammogne Djoum Nana Anicet exemplifies the qualities of a leading theoretical physicist—analytical depth, research innovation, and academic integrity. His contributions to quantum dissipation and interferometry have significant implications for emerging fields like quantum computing and photonics. With continued scholarly engagement, he stands out as a strong nominee for the Best Researcher Award.

Mr. Qinglin Yang| Best Researcher Award

Mr. Qinglin Yang| Best Researcher Award

Shanxi Normal University, China

Authour Profile

Orcid

🏫 Early Academic Pursuits

Qinglin Yang embarked on his academic journey with a keen interest in materials science and magnetism, enrolling at the Nanjing University of Aeronautics and Astronautics (NUAA)—a premier Chinese institution known for its rigorous engineering programs. During his postgraduate studies, he delved into magnetic materials and alloy design, laying the groundwork for his future specialization. His academic training at NUAA equipped him with deep theoretical knowledge and practical research skills, particularly in advanced materials characterization and magneto-structural phase transitions. This early academic foundation would later become pivotal in his contributions to magnetic materials research.

👨‍🔬 Professional Endeavors

Currently serving as a Soft Magnetic Materials R&D Engineer at Hunan Special Metal Materials Co., Ltd., Qinglin Yang plays a critical role in the development of advanced magnetic materials with high performance for industrial and technological applications. Since joining the company in December 2023, he has been involved in cutting-edge research focused on enhancing the efficiency, magnetic properties, and reliability of soft magnetic powder cores.

In his role, Yang contributes to both fundamental research and applied innovation, working closely with production teams and research collaborators to bring lab-scale discoveries to industrial relevance. His responsibilities include materials synthesis, structural analysis, and magnetic testing, ensuring that new formulations meet stringent performance criteria for commercial deployment.

🔬 Contributions and Research Focus

Qinglin Yang’s research primarily revolves around magnetic shape memory alloys (MSMAs), magnetocaloric materials, and soft magnetic composites. His most notable contributions include the systematic investigation of Ni₅₀Mn₃₆₋ₓFeₓIn₁₄ Heusler alloys, where he explored how Fe substitution impacts structural, magnetic, and phase transformation behaviors.Key findings from his work demonstrated that introducing Fe atoms can suppress both martensitic transformation and Curie temperatures, while simultaneously enhancing magnetic hysteresis and the magnetization difference between phases. Notably, the alloy with x = 1 exhibited a reversible magneto-field-induced strain of 0.25% under a 7 Tesla field near room temperature, a promising attribute for sensor and actuator applications. His research emphasizes surface twinning and microstructural control as critical mechanisms for strain recovery and magnetic performance.In addition to MSMAs, Yang is actively engaged in developing high-performance soft magnetic powder cores, aimed at reducing energy losses in electronic components. His work blends theory with practical engineering, enhancing material efficiency in high-frequency applications such as inductors and transformers.

🏆 Accolades and Recognition

While still in the early stages of his professional career, Qinglin Yang has already made his mark in reputable journals such as the Journal of Alloys and Compounds and Applied Physics, showcasing his research to the global materials science community. His paper titled “Influence of Mn→Fe substitution on phase transitions and microstructural evolution in Ni₅₀Mn₃₆₋ₓFeₓIn₁₄ magnetic shape memory alloys” was published in 2025, highlighting him as an emerging researcher in the field.His prior publication in 2022, “Martensitic Transformation and Magnetocaloric Effect of Ni-Mn-In-Ga Ribbon”, further reflects his continued dedication to magnetocaloric materials and solid-state refrigeration technologies.These peer-reviewed publications not only affirm the quality of his research but also establish his reputation as a researcher who bridges the gap between theoretical understanding and industrial implementation.

🌍 Impact and Influence

Qinglin Yang’s work has significant implications for industries ranging from electromagnetic device manufacturing to next-generation refrigeration systems. By contributing to the development of environmentally friendly, energy-efficient magnetic materials, he is helping advance sustainable technologies critical for global energy transition efforts.His ability to translate complex material behaviors into practical engineering solutions makes him an influential figure within his organization and among collaborators. Moreover, his work on magnetostrictive and magnetocaloric materials paves the way for innovations in medical devices, sensors, and green cooling systems.

🔮 Legacy and Future Contributions

As a young and dynamic engineer-researcher, Qinglin Yang is poised to continue making significant advancements in the field of magnetic materials. His future contributions are expected to focus on the commercial scalability of advanced alloys, integration of magnetic composites into electronic systems, and expansion into multifunctional materials with coupled thermal, magnetic, and mechanical properties.In addition to his technical contributions, Qinglin is likely to play a mentoring role in nurturing future talent in applied magnetics and materials research. His career trajectory suggests a strong potential for leadership in both academia-industry collaborations and innovation-driven R&D.His work represents not only academic rigor but also the transformative power of applied research in shaping smarter and more sustainable material solutions.

📖Notable Publications

Influence of Mn→Fe substitution on phase transitions and microstructural evolution in Ni₅₀Mn₃₆₋ₓFeₓIn₁₄ magnetic shape memory alloys 


Author(s): Qinglin Yang, Xiuling Wu, Yang Gu, Yangguang Shi
Journal: Journal of Alloys and Compounds
Year: 2025


 Martensitic Transformation and Magnetocaloric Effect of Ni-Mn-In-Ga Ribbon


Author: Qinglin Yang (庆林 杨)
Journal: Applied Physics
Year: 2022