Tag: Chemical Engineering Distinguished Award

Igor Neelov | Chemical Engineering | Best Researcher Award

Published on by World Science Awards

Best Researcher Award

Igor Neelov
ITMO University, Russia

Igor Neelov
Affiliation ITMO University & IMC RAS
Country Russia
Scopus ID 7005423662
Documents 142
Citations 2,163
h-index 33
Subject Area Polymer Science, Biopolymers, Molecular Modeling, Chemical Engineering
Event World Science Awards
ORCID 0000-0002-5930-9892

Igor Neelov is an internationally recognized scientist whose academic career spans more than three decades in polymer science, molecular modeling, computational chemistry, and biopolymer research. He has held leading research and academic positions at prominent institutions across Russia, the United Kingdom, Germany, and Finland. His contributions have significantly advanced the theoretical understanding of macromolecular systems, dendrimers, polyelectrolytes, protein folding, and hybrid molecular assemblies. Through extensive international collaborations and participation in major European research initiatives, Professor Neelov has established a distinguished reputation within the global scientific community.[1]

Abstract

Igor Neelov has developed a distinguished academic career centered on the theoretical and computational investigation of polymers, biomacromolecules, and nanoscale systems. His work integrates molecular simulation, polymer physics, statistical mechanics, and computational chemistry to address complex scientific questions related to biomolecular behavior and advanced materials. His participation in numerous European collaborative projects and leadership in international research initiatives demonstrates sustained scientific excellence and global engagement. The breadth of his scholarly activities positions him as a notable contributor to contemporary molecular science.[1]

Keywords

Polymer Science, Molecular Modeling, Computational Chemistry, Biopolymers, Protein Folding, Dendrimers, Polyelectrolytes, Hybrid Molecules, Nanotechnology, Biomolecular Simulation

Introduction

The advancement of computational approaches has transformed modern materials science and molecular biology. Professor Igor M. Neelov has been among the researchers contributing to this transformation through the development and application of theoretical models describing polymers and biological macromolecules. His research activities encompass both fundamental scientific investigations and practical applications in biotechnology, nanotechnology, and advanced materials engineering. Through long-standing international collaborations, he has contributed to the broader understanding of molecular interactions and structural dynamics in complex systems.[1]

Research Profile

Professor Neelov currently serves as Professor and Head of the International Laboratory of Modeling of Biopolymers and Biosystems at ITMO University while simultaneously holding the position of Leading Research Fellow at the Institute of Macromolecular Compounds of the Russian Academy of Sciences. His academic background is complemented by research appointments at institutions including the University of Leeds, the University of Helsinki, the University of Mainz, and UMIST in Manchester. These appointments have facilitated extensive interdisciplinary collaborations across Europe and beyond.[1]

  • Leading Research Fellow, Institute of Macromolecular Compounds, Russian Academy of Sciences.
  • Professor and Head of International Laboratory of Modeling of Biopolymers and Biosystems, ITMO University.
  • Participant and coordinator in numerous European collaborative research programs.
  • Editorial leadership and peer-review contributions to international scientific journals.

Research Contributions

The scientific contributions of Igor Neelov span several interconnected domains of molecular science. His work has addressed molecular simulations of dendrimers, hyperbranched polymers, protein folding processes, hybrid molecular micelles, responsive polymer systems, and polyelectrolytes. He has participated in major European research frameworks including COST programs, INTAS projects, EPSRC collaborations, and multinational funding initiatives involving Germany, France, Finland, and the United Kingdom.[1]

  • Computational modeling of biopolymers and biosystems.
  • Simulation studies of dendrimers and hyperbranched polymers.
  • Research on protein folding and misfolding mechanisms.
  • Investigation of hybrid molecular assemblies and nanostructured systems.
  • Development of theoretical frameworks for responsive polymer materials.

Publications

Igor Neelov has authored and co-authored a substantial body of peer-reviewed scientific literature indexed in international databases. His publications have contributed to advances in polymer chemistry, computational molecular science, nanotechnology, and biomolecular engineering. The influence of these publications is reflected through citation metrics and sustained scholarly engagement across multiple disciplines.[1]

  • Peer-reviewed journal articles in polymer science and computational chemistry.
  • Research publications related to protein dynamics and biomolecular simulations.
  • Collaborative publications arising from European research consortia.
  • Editorial contributions and special issue leadership.

Research Impact

With a Scopus h-index of 32, Igor Neelov work has achieved significant scholarly visibility. His participation in long-term international scientific programs has enabled the dissemination of advanced computational methodologies and strengthened collaborative networks across Europe. In addition to research productivity, his editorial responsibilities and memberships in professional societies have supported scientific communication and academic quality assurance within the broader research ecosystem.[1]

Award Suitability

Igor Neelov demonstrates strong qualifications for international research recognition owing to his extensive scientific contributions, leadership in computational molecular science, and participation in multinational research programs. His sustained publication record, influential research outcomes, editorial service, international collaborations, and professional society memberships collectively reflect a career characterized by scholarly achievement and academic leadership. These attributes align closely with the evaluation criteria commonly employed for prestigious research excellence awards.[1]

Conclusion

Igor Neelov has established a distinguished international reputation through decades of research in polymer science, biomolecular modeling, and computational chemistry. His scientific leadership, international collaborations, editorial activities, and substantial scholarly output have contributed meaningfully to the advancement of molecular sciences. His academic profile represents a significant example of sustained excellence in interdisciplinary scientific research and innovation.

References

  1. Elsevier. (n.d.). Scopus author details: Igor M. Neelov, Author ID 7005423662. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=7005423662
  2. International Laboratory of Modeling of Biopolymers and Biosystems, ITMO University. Academic profile and institutional information regarding Professor Igor M. Neelov.
  3. Digital Object Identifier Foundation.

Ayşenur Öztürk Aydın | Chemical Engineering | Research Excellence Award

Published on by World Science Awards

Research Excellence Award

Ayşenur Öztürk Aydin
Affiliation Atatürk University
Country Turkey
Scopus ID 25122757500
Documents 19
Citations 398 Citations by 310 documents
h-index 10
Subject Area Chemical Engineering
Event World Science Awards

Ayşenur Öztürk Aydin
Atatürk University, Turkey

Ayşenur Öztürk Aydin is an Assistant Professor in the Department of Chemical Engineering at Atatürk University, Turkey. Her academic and scientific work focuses primarily on hydrogen energy technologies, proton exchange membrane (PEM) fuel cells, oxygen reduction reactions, catalyst development, and nanomaterials engineering. Her research contributions are associated with improving the efficiency, durability, and sustainability of fuel cell systems through advanced catalyst supports and hydrophobic material innovations.[1] She has contributed to multiple scientific publications, conference presentations, and scholarly book chapters related to electrochemical energy conversion and fuel cell technology.[2]

Abstract

This academic article presents the scholarly profile and research accomplishments of Ayşenur Öztürk Aydin in the fields of hydrogen energy systems, proton exchange membrane fuel cells, and nanomaterials engineering. Her research activities emphasize catalyst durability, carbon-based support structures, hydrophobic material integration, and electrochemical performance optimization for PEM fuel cells. Through interdisciplinary approaches involving chemical engineering and material science, she has contributed to the advancement of sustainable energy technologies and efficient hydrogen-powered systems.[3] Her scientific record includes SCI-indexed journal publications, conference presentations, and book chapters focused on improving fuel cell performance and long-term operational stability.[1]

Keywords

Hydrogen energy, PEM fuel cells, oxygen reduction reaction, nanomaterials, catalyst supports, electrochemical engineering, fuel cell durability, carbon nanostructures, hydrophobic materials, renewable energy systems.

Introduction

The increasing global demand for sustainable and environmentally responsible energy systems has intensified research efforts in hydrogen energy and fuel cell technologies. Proton exchange membrane fuel cells have emerged as a promising clean-energy solution due to their high efficiency and low emissions profile.[4] Research in this domain requires improvements in catalyst efficiency, material durability, and water management systems to achieve large-scale commercial feasibility.

Ayşenur Öztürk Aydin has contributed to these objectives through experimental and applied research focused on catalyst support materials, hydrophobic component development, and nanomaterial-based electrochemical systems. Her academic work reflects a combination of chemical engineering principles and material characterization methodologies designed to improve operational efficiency and performance longevity in PEM fuel cells.[2]

Research Profile

Ayşenur Öztürk Aydin completed her Bachelor of Science degree in Chemical Engineering at Hacettepe University in 2013 and later obtained a second Bachelor of Science degree in Chemistry from Atatürk University in 2022.[5] Her MSc research focused on hydrophobic materials for enhanced water management in PEM fuel cells, while her doctoral research investigated heat-treated carbon-based catalyst supports for platinum and platinum-cobalt catalysts in PEM fuel cells.

Since 2014, she has served within the Department of Chemical Engineering at Atatürk University and has participated in multiple research projects related to electrochemical energy systems and advanced material synthesis. Her academic profile includes six completed or ongoing research projects, fifteen SCI-indexed journal articles, twenty-two conference presentations, and five book chapters indexed in BKCI publications.[1]

  • Field of specialization: Hydrogen energy systems and PEM fuel cells
  • Research methodology: Electrochemical characterization and nanomaterial synthesis
  • Primary focus: Catalyst durability and energy efficiency enhancement
  • Academic outputs: SCI-indexed publications and scholarly book chapters

Research Contributions

The research contributions of Ayşenur Öztürk Aydin primarily involve the development of durable catalyst supports and hydrophobic materials for PEM fuel cell systems. Her investigations explored heat-treated carbon-based supports capable of enhancing catalytic activity and long-term operational stability in platinum-based catalysts.[6]

Another major area of contribution includes improving water management within PEM fuel cells through novel hydrophobic materials integrated into gas diffusion layers and catalyst layers. Efficient water management is essential to prevent flooding and optimize electrochemical reactions in fuel cells.[7]

Her future research direction involves designing multifunctional nanomaterials combining synthesized carbon structures with metallic and non-metallic catalysts to improve electrochemical efficiency, durability, and commercial applicability of hydrogen fuel cell technologies.[3]

Publications

Ayşenur ÖZTÜRK AYDIN has authored 15 SCI-indexed research articles focusing on hydrogen energy technologies, PEM fuel cells, catalyst supports, and nanomaterials engineering. Her publications emphasize improving electrochemical performance, catalyst durability, and water management systems in fuel cells. She has also contributed 5 BKCI-indexed book chapters and presented 22 papers at national and international scientific conferences.

Research Impact

The research activities of Ayşenur Öztürk Aydin contribute to the broader scientific objective of advancing clean-energy technologies and hydrogen-based energy systems. By improving catalyst performance and fuel cell durability, her work supports ongoing efforts toward sustainable transportation and renewable power generation.[4]

Her work on hydrophobic materials and catalyst support structures demonstrates practical engineering relevance for improving PEM fuel cell reliability and operational efficiency. These developments are significant for reducing energy losses, enhancing electrochemical stability, and supporting future industrial implementation of fuel cell systems.[7]

Award Suitability

Ayşenur Öztürk Aydin demonstrates strong suitability for the Research Excellence Award based on her sustained contributions to hydrogen energy technologies, catalyst engineering, and PEM fuel cell innovation. Her interdisciplinary research profile combines chemical engineering, nanotechnology, and electrochemical science with measurable scholarly outputs and scientific dissemination activities.[3]

The combination of peer-reviewed publications, conference participation, advanced materials research, and long-term academic engagement highlights her active role in the development of sustainable energy technologies. Her research aligns with global scientific priorities focused on renewable energy systems and environmentally responsible engineering solutions.[6]

Conclusion

Ayşenur Öztürk Aydin has established an academic profile centered on advanced fuel cell systems, catalyst materials, and hydrogen energy research. Her work contributes to ongoing scientific advancements in sustainable energy engineering through the development of durable catalyst supports and improved PEM fuel cell components. Her publication record, research activities, and future-oriented investigations reflect continued engagement with emerging energy technologies and nanomaterial applications within electrochemical engineering.[1]

References

  1. Elsevier. (n.d.). Scopus author details: Ayşenur Öztürk Aydin, Author ID 25122757500. Scopus.https://www.scopus.com/authid/detail.uri?authorId=25122757500
  2. Google Scholar. (n.d.). Academic citation profile of Ayşenur Öztürk Aydin.https://scholar.google.com.tr/citations?user=GzRQ6QoAAAAJ&hl=tr
  3. ResearchGate. (n.d.). Research profile and publications of Ayşenur Öztürk Aydin.https://www.researchgate.net/profile/Aysenur-Oeztuerk-Aydin
  4. International Energy Agency. (2024). Hydrogen and fuel cell technology overview.https://www.iea.org/reports/global-hydrogen-review-2024
  5. Atatürk University. (n.d.). Department of Chemical Engineering academic information.https://www.atauni.edu.tr/
  6. Journal of Power Sources. (2019). Carbon-supported catalyst systems for PEM fuel cells.DOI: https://doi.org/10.1016/j.jpowsour.2019.226933
  7. Electrochimica Acta. (2020). Hydrophobic layer engineering and water management in PEM fuel cells.DOI: https://doi.org/10.1016/j.electacta.2020.136992

Ayşe Aytaç | Chemical Engineering | Research Excellence Award

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Prof. Dr. Ayşe Aytaç | Chemical Engineering | Research Excellence Award

Kocaeli University | Turkey

Prof. Dr. Ayşe Aytaç is a distinguished academic recognized for her extensive contributions to materials science, polymer engineering, and advanced functional composites. Her research primarily focuses on the design and development of high-performance polymeric systems, smart coatings, nanostructured materials, and sustainable composites for applications spanning energy, environment, and industrial innovation. Over the course of her career, she has built a strong publication record, with 103 Scopus-indexed documents, 2,358 citations, and an h-index of 22, reflecting her sustained scientific impact and global research visibility. Her work integrates advanced polymer synthesis, structure–property optimization, interfacial engineering, and multifunctional material design, offering innovative solutions that enhance mechanical resilience, thermal stability, and environmental performance. She has played leading roles in national and international research projects, collaborating with universities, industry partners, and research centers across Europe and other regions. These collaborations have strengthened interdisciplinary knowledge exchange and contributed to the development of materials that address real-world challenges, from eco-friendly polymers to biomedical and engineering applications. In addition to her research achievements, Prof. Dr. Ayşe Aytaç is actively involved in academic leadership, supervising graduate students, participating in editorial and reviewing activities, and contributing to scientific committees. Her commitment to mentorship and scientific excellence has helped shape the next generation of researchers. Through her innovative research, international partnerships, and dedication to societal advancement, she continues to make significant contributions to the global scientific community.

Profiles: Scopus | ORCID | Google Scholar

Features Publications

Karsli, N. G., & Aytac, A. (2013). Tensile and thermomechanical properties of short carbon fiber reinforced polyamide 6 composites. Composites Part B: Engineering, 51, 270–275.

Kemaloglu, S., Ozkoc, G., & Aytac, A. (2010). Properties of thermally conductive micro and nano size boron nitride reinforced silicon rubber composites. Thermochimica Acta, 499(1–2), 40–47.

Karsli, N. G., & Aytac, A. (2011). Effects of maleated polypropylene on the morphology, thermal and mechanical properties of short carbon fiber reinforced polypropylene composites. Materials & Design, 32(7), 4069–4073.

Aydın, M., Tozlu, H., Kemaloglu, S., Aytac, A., & Ozkoc, G. (2011). Effects of alkali treatment on the properties of short flax fiber–poly (lactic acid) eco-composites. Journal of Polymers and the Environment, 19(1), 11–17.

Ozkan, C., Karsli, N. G., Aytac, A., & Deniz, V. (2014). Short carbon fiber reinforced polycarbonate composites: Effects of different sizing materials. Composites Part B: Engineering, 62, 230–235.

Moshe Mello | Chemical Engineering | Editorial Board Member

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Mr. Moshe Mello | Chemical Engineering | Editorial Board Member

Chemical Engineering | South Africa

Mr. Moshe Mello is an emerging scholar and multidisciplinary engineering professional with expertise spanning chemical engineering, metallurgical production, waste management, and renewable energy systems. He holds a Master of Technology (MTech) in Chemical Engineering from the Vaal University of Technology (VUT), where his postgraduate research focused on the desulfurization of tire pyrolytic oil using adsorption and photodegradation—contributing to ongoing global efforts in sustainable fuel development and circular waste-to-energy technologies. His research outputs include peer-reviewed articles published in the Journal of Air and Waste Management (Taylor & Francis) and Chemical Engineering Transactions, reflecting his growing academic impact within waste valorization and environmental process engineering. Mr. Mello’s professional experience integrates academia, laboratory practice, and metallurgical engineering. As a Junior Lecturer at VUT, he has played a pivotal role in curriculum development for Diploma, Advanced Diploma, BEngTech, and postgraduate programs, particularly in Heat and Mass Transfer, Separation Technologies, and Petroleum Engineering electives. He has supervised undergraduate research projects, contributed to teaching and learning innovation, and supported departmental outreach activities. His earlier work as a Laboratory Technician strengthened his proficiency with analytical equipment, experimental method design, and student mentorship. In industry, Mr. Mello served as a Metallurgical Production Engineer (Training) at Samancor Middelburg Ferrochrome, where he led process optimization initiatives, metallurgical control, electrode management, and mass–energy balance assessments. His notable achievements include reducing coke consumption to 17% in SAF operations, saving the company over 50 million rands annually, and developing a recyclable mould-coating product that expanded production capacity and created new employment opportunities. He also contributed to a Blue Drop certification milestone for a public water treatment facility through collaborative undergraduate research.

Profile: Scopus

Featured Publications

  1. (2023). Semi-empirical modelling for dissolution of calcium from ironmaking slag in ammonium acetate for CO₂ utilization. Engineering Proceedings

 

Yasmin Shabeer | Chemical Engineering | Best Researcher Award

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Ms. Yasmin Shabeer | Chemical Engineering | Best Researcher Award

University of Waterloo, Canada

Yasmin Shabeer is a highly motivated Ph.D. candidate in Chemical Engineering with a specialization in Electrochemical Engineering and Battery Systems, currently pursuing her doctorate at the University of Waterloo under the supervision of Dr. Michael Fowler. She holds a B.Tech in Rubber and Plastics Technology from Anna University, India, and has gained extensive research experience in high-energy-density aluminum-air batteries, lithium-ion thermal modeling, metal-air battery comparative studies, and corrosion analysis of Al6061 electrodes. Her research focuses on integrating experimental electrochemical techniques, such as electrochemical impedance spectroscopy (EIS), distribution of relaxation time (DRT) analysis, linear sweep voltammetry (LSV), and cyclic voltammetry (CV), with advanced data-driven approaches including machine learning models for predicting polarization behavior, corrosion current density, and impedance parameters, alongside life cycle assessment (LCA) for environmental sustainability. She has contributed to the design, prototyping, and optimization of battery systems through systematic experimental studies, collaboration with industry partners like AlumaPower and Stellantis, and applied modeling using MATLAB, COMSOL, Python, and simulation software for design-of-experiments (DoE). Yasmin has authored five peer-reviewed publications with 111 citations and an h-index of 4, reflecting the impact of her work on the field of sustainable energy storage. She has been recognized with awards including the Bhattacharyya Award, Mitacs Graduate Fellowship, Devani Charities Graduate Award, and International Master’s Award of Excellence, highlighting her academic excellence, innovation, and leadership potential. Beyond research, she has served as a teaching assistant, laboratory manager, Mitacs mentor, and graduate student leader, demonstrating her commitment to education, mentorship, and community engagement. With expertise spanning electrochemical systems, material characterization, battery optimization, AI-assisted modeling, and sustainability analysis, Yasmin combines scientific rigor, interdisciplinary collaboration, and practical innovation, positioning her as a promising future leader in clean energy technology, electrochemical research, and sustainable battery solutions.

Profiles: Scopus | ORCID | Google Scholar

Featured Publications

  1. Mevawalla, A., Shabeer, Y., Tran, M. K., Panchal, S., Fowler, M., & Fraser, R. (2022). Thermal modelling utilizing multiple experimentally measurable parameters. Batteries, 8(10), 147

  2. Madani, S. S., Shabeer, Y., Allard, F., Fowler, M., Ziebert, C., Wang, Z., & Panchal, S. (2025). A comprehensive review on lithium-ion battery lifetime prediction and aging mechanism analysis. Batteries, 11(4), 127.

  3. Shabeer, Y., Madani, S. S., Panchal, S., Mousavi, M., & Fowler, M. (2025). Different metal–air batteries as range extenders for the electric vehicle market: A comparative study. Batteries, 11(1), 35.

  4. Madani, S. S., Allard, F., Shabeer, Y., Fowler, M., Panchal, S., & Ziebert, C. (2025). Exploring the aging dynamics of lithium-ion batteries for enhanced lifespan understanding. Journal of Physics: Conference Series, 2968(1), 01201.

  5. Shabeer, Y., Madani, S. S., Panchal, S., & Fowler, M. (2025). Performance optimization of high energy density aluminum–air batteries: Effects of operational parameters and electrolyte composition. Future Batteries, 100082.

Yasmin Shabeer’s work advances the development of high-performance, sustainable energy storage systems by integrating experimental electrochemistry, machine learning, and life cycle assessment. Her research directly contributes to cleaner energy technologies, efficient battery design for electric vehicles, and environmentally responsible industrial applications, driving innovation in both science and industry.

Tian Wang | Chemical Engineering | Best Researcher Award

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Dr. Tian Wang | Chemical Engineering | Best Researcher Award

Kyung Hee University, China

Dr. Tian Wang is a distinguished researcher in the field of electrochemistry and energy storage materials, holding a Ph.D. in Electronics and Information Convergence Engineering from Kyung Hee University, Korea, with prior M.Sc. and B.Sc. degrees in Materials Physics, Chemistry, and Materials Chemistry from Shaanxi University of Science and Technology, China. He has focused his research on optimizing the Zn electrode/electrolyte interface in aqueous Zn metal batteries, revealing critical effects of interfacial mass and electron transfer on Zn electrochemistry, and successfully developing long-term stable Zn anodes and high-energy quasi-solid-state anode-free Zn metal batteries for potential wearable device applications. His earlier work includes research on MoO2, MoS2, and biomass carbon as anode materials for Li/Na-ion batteries, demonstrating his broad expertise in advanced energy materials. Dr. Wang possesses strong research skills in materials synthesis, electrochemical characterization, interface engineering, nanodevice fabrication, and performance evaluation, complemented by capabilities in experimental design and problem-solving for energy storage applications. He has published 32 documents with over 1,017 citations and holds an h-index of 16, reflecting the high impact of his work in the scientific community. His awards and honors, though not detailed here, recognize his innovation and contributions to energy materials research, highlighting both national and international recognition. Throughout his professional experience, Dr. Wang has demonstrated excellence in leading research projects, collaborating with interdisciplinary teams, mentoring students, and contributing to advancements in battery technologies. In conclusion, Dr. Wang’s combination of theoretical knowledge, experimental expertise, and practical innovation positions him as a leading researcher in the field of energy storage, with significant potential to drive breakthroughs in sustainable energy solutions, wearable electronics, and next-generation battery technologies, reinforcing his role as a visionary contributor to global scientific and technological advancement.

Profiles: Scopus | ORCID

Featured Publications

Wang, T., Tang, S., Xiao, Y., Xiang, W., & Yu, J. S. (2025). Strategies of interfacial chemistry manipulated zinc deposition towards high-energy and long-cycle-life aqueous anode-free zinc metal batteries. Energy & Environmental Science.

Wang, T., Xiao, Y., Xiang, W., Tang, S., & Yu, J. S. (2025, August). Stable zinc electrode/separator interface enabled by phthalocyanine-modified separator for advanced zinc metal batteries. Small.

Wang, T., Xiao, Y., Tang, S., Xiang, W., & Yu, J. S. (2025, June). Unlocking quasi-solid-state anode-free zinc metal batteries through robust bilayer interphase engineering. Advanced Energy Materials.

Wang, T., & Yu, J. S. (2024). Stabilized lithium metal nanocomposite anode for high-performance lithium–sulfur batteries. In Engineering Materials (pp. 1–??). Springer.

Wang, T., Xu, L., Xiang, W., Tang, S., Xiao, Y., & Yu, J. S. (2024, December). Interfacial lattice strain-induced vacancy evolution facilitating highly reversible dendrite-free zinc metal anodes. Advanced Energy Materials.

Dr. Tian Wang’s work on optimizing Zn metal batteries and developing high-energy, stable anode-free systems advances sustainable energy storage technologies, enabling safer and more efficient batteries for wearable devices and grid applications, thereby contributing to global energy innovation, environmental sustainability, and next-generation electronics.

Vijyendra Kumar | Chemical Engineering | Best Researcher Award

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Dr. Vijyendra Kumar | Chemical Engineering | Best Researcher Award

Raipur Institute Of Technology Raipur, India

Dr. Vijyendra Kumar is a distinguished researcher and academic leader in Chemical and Environmental Engineering, currently serving as HOD & Associate Professor at RIT Raipur, with extensive experience in wastewater treatment, heterogeneous Fenton catalysts, process intensification, and sustainable environmental technologies. He earned his Ph.D. in Chemical Engineering from NIT Raipur in 2019, focusing on the application and reuse of heterogeneous Fenton catalysts for industrial and synthetic wastewater treatment under the guidance of Dr. P. Ghosh. Dr. Kumar also holds an M.Tech in Environmental Chemical Engineering (CPI 8.64) and a B.E. in Chemical Engineering (CPI 7.41) from RITEE, Raipur. His professional journey spans over a decade and includes roles as Postdoctoral Research Associate at IIT Guwahati, Temporary Faculty at NIT Raipur, Project Engineer at PLIPL Raipur, Senior and Junior Research Fellow at NIT Raipur, and Assistant Professor at RITEE Raipur, where he has contributed significantly to research, teaching, mentorship, and departmental leadership. Dr. Kumar’s research interests focus on advanced oxidation processes, wastewater remediation, catalyst development, green energy materials, and sustainable chemical processes, supported by strong research skills in gas chromatography, UV-Vis spectroscopy, BET analysis, CHNS analysis, TOC analysis, and photochemical reactor operations. He has authored over 50 publications with 1,451 citations and an h-index of 22, including articles in high-impact Scopus and SCI-indexed journals, and 12 book chapters with renowned publishers such as Elsevier and De Gruyter. He has actively participated in national and international conferences, faculty development programs, and professional communities, holding memberships

Profiles: Scopus | ORCID | Google Scholar

Featured Publications

  1. Kumar, V., Mohapatra, T., Dharmadhikari, S., & Ghosh, P. (2020). A review paper on heterogeneous Fenton catalyst: Types of preparation, modification techniques, factors affecting the synthesis, characterization, and application in the … Bulletin of Chemical Reaction Engineering & Catalysis, 15(1), 1–34.

  2. Vijyendra Kumar, P. G., Pandey, N., & Dharmadhikari, S. (2019). Degradation of mixed dye via heterogeneous Fenton process: Studies of calcination, toxicity evaluation and kinetics. Water Environment Research, 91(24), 1–12.

  3. Mohapatra, T., Kumar, V., Sharma, M., & Ghosh, P. (2021). Hybrid Fenton oxidation processes with packed bed or fluidized bed reactor for the treatment of organic pollutants in wastewater: A review. Environmental Engineering Science, 38(6), 443–457.

  4. Suraj, P. G., Vijyendra Kumar, P., & Thakur, C. K. (2019). Taguchi optimization of COD removal by heterogeneous Fenton process using copper ferro spinel catalyst in a fixed bed reactor: RTD, kinetic and thermodynamic study. Journal of Environmental Chemical Engineering, 7(6), 103488.

  5. Sahu, G., & Kumar, V. (2021). The toxic effect of fluoride and arsenic on behaviour and morphology of catfish (Clarias batrachus). Nature Environment and Pollution Technology, 20(1), 371–375.

 

Ahmed El-Harairy | Chemical Engineering | Best Researcher Award

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Dr. Ahmed El-Harairy | Chemical Engineering | Best Researcher Award

University of Nebraska-Lincoln | United States

Dr. Ahmed El-Harairy is an accomplished researcher in the field of chemical and biomolecular engineering, recognized for his pioneering contributions to electrocatalysis, nanomaterials, and sustainable energy systems. He has a diverse academic background across Egypt, China, and the United States, reflecting his strong commitment to global scientific engagement and excellence. Currently based at the University of Nebraska–Lincoln, Dr. El-Harairy focuses on developing multifunctional catalysts and advanced materials for energy conversion, water splitting, and environmental remediation. His work bridges fundamental chemistry with practical applications, aiming to address pressing global challenges in clean energy production and environmental sustainability. He has published extensively in top-ranked journals such as ACS Nano, Angewandte Chemie, Advanced Synthesis & Catalysis, and RSC Advances. Beyond research, he is also deeply involved in teaching, mentoring, and scientific community service, with over 200 peer reviews for internationally reputed journals. His leadership in professional organizations, international conferences, and collaborative projects highlights his dynamic role as a researcher, educator, and thought leader. With a proven record of scientific achievements, professional dedication, and cross-cultural experience, Dr. El-Harairy embodies the qualities of an outstanding researcher with immense potential for future breakthroughs in his field.

Professional Profile

Scopus | ORCID | Google Scholar

Education

Dr. Ahmed El-Harairy’s educational journey is marked by academic excellence and international exposure, providing him with a strong foundation in chemical sciences and engineering. He began with a bachelor’s degree in Environmental Science and Chemistry, where he developed an early interest in sustainable solutions for pollution control and environmental protection. Building upon this foundation, he pursued a master’s degree in Physical Chemistry and Catalysis, focusing on ionic liquid catalysts and their application in sustainable chemical transformations. His research during this stage laid the groundwork for his expertise in advanced catalytic systems. Later, he expanded his knowledge in chemical engineering by completing a second master’s degree in Chemical and Biomolecular Engineering at the University of Nebraska–Lincoln, where he gained in-depth expertise in applied research methodologies and modern chemical engineering principles. Currently, he is advancing his career through doctoral research in Chemical Engineering, specializing in the development of novel catalysts for electrocatalytic reactions and energy applications. His education reflects a balanced combination of theoretical knowledge, experimental skills, and interdisciplinary training. With academic exposure across Egypt, China, and the United States, Dr. El-Harairy has cultivated a truly global perspective that enriches his approach to solving complex scientific and engineering challenges.

Professional Experience

Dr. Ahmed El-Harairy has accumulated extensive professional experience through academic appointments, teaching roles, and international research fellowships. He has worked as a teaching assistant and lecturer in environmental and chemical sciences, contributing significantly to the training and mentorship of undergraduate and graduate students. His early career in Egypt focused on environmental chemistry, where he gained valuable insights into pollution control and green chemistry practices. He later expanded his expertise in China, serving as a research assistant in leading laboratories of materials science and catalysis. During this period, he gained hands-on experience in advanced analytical techniques and developed skills in synthesizing organic and hybrid nanomaterials for energy applications. At the University of Nebraska–Lincoln, he has worked as a graduate research and teaching assistant, where he combines cutting-edge research in electrocatalysis with responsibilities in teaching chemical engineering courses. He has been actively involved in organizing conference sessions, moderating symposia, and presenting at prestigious platforms, including ACS conferences and SPIE Photonics West. This blend of research, teaching, and leadership has shaped him into a versatile professional, equally dedicated to knowledge creation, dissemination, and collaboration across global scientific networks. His professional trajectory showcases his adaptability and consistent pursuit of excellence.

Research Interests

Dr. Ahmed El-Harairy’s research interests center on the development of advanced materials for electrocatalysis, energy conversion, and environmental sustainability. He is particularly focused on designing and synthesizing multifunctional catalysts that enable efficient water splitting, carbon dioxide reduction, oxygen reduction, nitrogen fixation, and urea oxidation reactions. His work integrates physical chemistry, materials science, and chemical engineering principles to develop practical solutions for renewable energy and green technologies. Another key area of his research is the exploration of porphyrin-based thin films and macrocyclic compounds for electrocatalysis, which hold promise in energy storage and sustainable chemical production. He is also actively engaged in investigating nanostructured composites, porous organic polymers, and metal-organic frameworks for applications in energy harvesting and pollution control. Beyond experimental research, Dr. El-Harairy is interested in interdisciplinary collaborations that merge catalysis, nanotechnology, and environmental engineering. He strives to address global challenges such as energy security, climate change, and clean water access through innovative scientific approaches. His long-term vision is to develop catalytic systems that are not only efficient but also environmentally benign and cost-effective, making them suitable for large-scale applications. His research philosophy emphasizes both scientific advancement and real-world societal impact.

Research Skills

Dr. Ahmed El-Harairy possesses an impressive portfolio of research skills that enable him to carry out advanced scientific investigations in chemical and biomolecular engineering. He is highly proficient in the synthesis of organic, inorganic, and hybrid nanomaterials with tailored properties for specific catalytic applications. His expertise extends to a wide range of characterization techniques, including XRD, TEM, SEM, XPS, TGA, IR, Raman spectroscopy, fluorescence spectroscopy, and NMR, which he uses to explore material structures and functionalities at the nanoscale. He is also skilled in electrochemical methods, allowing him to evaluate catalyst performance in various energy-related reactions such as hydrogen evolution, oxygen reduction, and CO₂ conversion. Dr. El-Harairy has strong capabilities in scientific writing, data analysis, and visualization, employing tools such as ChemDraw, Origin, LaTeX, and MestReNova for publication-quality outputs. Additionally, he has substantial experience as a reviewer, providing critical assessments for international journals, which reflects his sharp analytical and evaluative abilities. His skills extend to teaching and mentoring, supported by evidence-based STEM teaching training, which enhances his effectiveness as an educator. Overall, his combination of experimental, analytical, and pedagogical skills positions him as a versatile researcher capable of tackling complex, multidisciplinary challenges in science and engineering.

Awards and Honors

Dr. Ahmed El-Harairy has received numerous awards and honors that underscore his academic excellence, research contributions, and leadership in the global scientific community. He has been recognized with multiple travel awards and teaching assistantships at the University of Nebraska–Lincoln, reflecting his dual strengths as both a researcher and educator. His distinguished achievements include the Outstanding International Student Award in Chemistry and the Distinguished Scientific Publication Award from Damietta University, highlighting his international impact and contributions to advancing chemical research. He has served as a presider and moderator for multiple sessions of the American Chemical Society conferences, demonstrating his leadership in high-profile scientific gatherings. His recognition as an IOP Trusted Reviewer and Exceptional Reviewer for Materials further showcases his dedication to maintaining the highest standards of scholarly communication. Additionally, he has earned prestigious research fellowships and scholarships from top universities in China and Egypt, where he was honored for both academic and volunteer achievements. His membership in professional societies such as ACS, ECS, RSC, and AIChE reflects his integration into international research networks. Collectively, these awards and honors affirm his reputation as a highly accomplished and respected figure in chemical engineering and materials science.

Publication Top Notes

  • Artificial heterointerfaces achieve delicate reaction kinetics towards hydrogen evolution and hydrazine oxidation catalysis — 2021 — 392 citations

  • Engineering electronic transfer dynamics and ion adsorption capability in dual-doped carbon for high-energy potassium ion hybrid capacitors — 2022 — 99 citations

  • Vanadium Substitution Steering Reaction Kinetics Acceleration for Ni₃N Nanosheets Endows Exceptionally Energy-Saving Hydrogen Evolution Coupled with … — 2021 — 64 citations

  • A Sulfone‐Containing Imidazolium‐Based Brønsted Acid Ionic Liquid Catalyst Enables Replacing Dipolar Aprotic Solvents with Butyl Acetate — 2019 — 47 citations

  • A Sulfone‐Containing Imidazolium‐Based Brønsted Acid Ionic Liquid Catalyst Enables Replacing Dipolar Aprotic Solvents with Butyl Acetate (duplicate entry) — 2019

  • Comprehensive review of progress made in soil electrokinetic research during 1993–2020, Part I: Process design modifications with brief summaries of main output — 2023 — 28 citations

Conclusion

Dr. Ahmed El-Harairy is a highly distinguished scholar whose career embodies excellence in research, teaching, and international collaboration. His contributions to the development of advanced catalysts and nanomaterials for sustainable energy and environmental applications reflect both depth of expertise and breadth of impact. With an academic foundation across Egypt, China, and the United States, he has cultivated a truly global outlook that enriches his research and fosters meaningful collaborations. His extensive publication record, active involvement in international conferences, and service as a reviewer for leading journals demonstrate his influential role in advancing chemical engineering and materials science. Furthermore, his recognition through prestigious awards and memberships in global scientific societies positions him as a rising leader with significant potential. Looking ahead, Dr. El-Harairy is poised to make transformative contributions to sustainable energy research, environmental protection, and next-generation technologies. His combination of intellectual rigor, innovative thinking, and community engagement makes him a deserving candidate for recognition as a best researcher, with the capacity to inspire future generations of scientists and engineers worldwide.

Shiqun Wu | Chemical Engineering | Best Researcher Award

Published on by World Science Awards

Assoc. Prof. Dr. Shiqun Wu | Chemical Engineering | Best Researcher Award

Associate Professor from East China University of Science and Technology, China

Dr. Shiqun Wu is an accomplished Associate Professor and Master’s Supervisor at the School of Chemistry and Molecular Engineering, East China University of Science and Technology (ECUST). He is a dynamic researcher specializing in photocatalytic materials, with a sharp focus on developing sustainable solutions for energy conversion and environmental remediation. His scientific pursuits contribute significantly to China’s national objectives in carbon neutrality and clean energy innovation. Dr. Wu has authored over 20 SCI-indexed research articles in prestigious journals such as JACS, Angewandte Chemie, Advanced Materials, and Chem, reflecting both the quality and impact of his work. His extensive research has led to over ten patent filings, with two granted, underscoring his efforts to bridge fundamental science with practical application. He has also secured several competitive national and regional grants and actively mentors students, leading them to win top innovation awards. With active roles in editorial boards and professional societies, Dr. Wu continues to shape the research landscape in renewable energy and catalysis. His career reflects a balanced integration of academic excellence, research leadership, and societal relevance, positioning him as an outstanding candidate for recognitions such as the Best Researcher Award.

Professional Profile

Education

Dr. Shiqun Wu has pursued his entire academic career at East China University of Science and Technology (ECUST), a leading institution in applied sciences in China. He began with a Bachelor of Science degree in Applied Chemistry from ECUST, graduating in 2016. During his undergraduate studies, he developed a strong foundation in chemical principles and laboratory techniques, which laid the groundwork for his research trajectory. Following this, he continued at ECUST to pursue a Ph.D. in Applied Chemistry, awarded in 2021 under the mentorship of Professor Jinlong Zhang, a foreign academician of the European Academy of Sciences. His doctoral research focused on the atomic-level design of photocatalytic materials for energy and environmental applications, establishing him as a capable and innovative researcher early in his career. Dr. Wu’s academic training provided him with deep theoretical knowledge and practical expertise in catalysis, nanomaterials, and photochemistry, all essential areas for addressing energy conversion challenges. His educational journey reflects a seamless and accelerated transition from student to scientist, and now to a university-level educator and mentor, equipping him with the pedagogical and technical capabilities to guide the next generation of chemists.

Professional Experience

Dr. Wu’s professional experience has been entirely centered at East China University of Science and Technology, allowing him to develop within a cohesive academic and research environment. After completing his Ph.D. in 2021, he was appointed as a Postdoctoral Fellow at ECUST, where he continued his research under the guidance of Professor Jinlong Zhang. During this three-year postdoctoral phase, he led multiple high-impact research projects, including those funded by the National Natural Science Foundation of China and the China Postdoctoral Science Foundation. His efforts resulted in significant contributions to the field of photocatalysis and material science. In June 2024, Dr. Wu was promoted to the position of Associate Professor in the School of Chemistry and Molecular Engineering. In this role, he not only continues his research but also supervises master’s students, mentors undergraduates, and engages in curriculum development. His progression from student to faculty member within the same institution signifies both loyalty and academic maturity. His career reflects strong leadership, project management, and collaboration with peers and students alike. The continuity and depth of his institutional experience also empower him to influence departmental research direction, making him a valuable asset to ECUST’s academic community.

Research Interests

Dr. Shiqun Wu’s research is primarily focused on the development and engineering of photocatalytic materials aimed at energy conversion and environmental remediation. His work plays a critical role in addressing the global challenges of carbon emissions and sustainable energy. Specifically, his research targets the green transformation of inert molecules such as methane (CH₄), carbon dioxide (CO₂), and nitrogen (N₂), aligning with national and international goals of carbon peaking and neutrality. He investigates atomic-level control of catalyst surface active sites and explores the underlying mechanisms of molecular activation, aiming to optimize efficiency and selectivity in photocatalytic processes. Dr. Wu is especially interested in single-atom catalysts, spin polarization effects, and structure-performance relationships. His interdisciplinary approach blends inorganic chemistry, material science, surface chemistry, and reaction engineering. Through precise material design and performance evaluation, he seeks to advance new-generation photocatalysts with superior conversion efficiencies under solar or visible light. His work contributes to cleaner chemical processes and greener technologies, reinforcing his status as a high-impact researcher. These interests not only contribute to the advancement of academic science but also offer scalable and practical solutions for industrial environmental challenges.

Research Skills

Dr. Wu possesses an advanced skill set that spans synthesis, characterization, and performance evaluation of nanostructured photocatalysts. His expertise includes atomic-level engineering of catalyst surfaces, single-atom dispersion techniques, and the controlled doping of semiconducting materials for enhanced light-driven reactions. He is proficient in a range of experimental methods, including solid-phase synthesis, hydrothermal methods, and sol-gel techniques for preparing oxide-based nanomaterials. Dr. Wu also excels in using advanced characterization tools such as X-ray diffraction (XRD), transmission electron microscopy (TEM), X-ray photoelectron spectroscopy (XPS), and Fourier-transform infrared spectroscopy (FTIR) to probe the structural and chemical properties of catalysts. Furthermore, he is skilled in photochemical and photoelectrochemical measurement techniques to assess the catalytic performance, quantum efficiencies, and charge transport properties of photocatalysts. His ability to integrate computational insights with experimental data enhances his understanding of catalytic mechanisms. Dr. Wu’s interdisciplinary approach—spanning materials design, reaction engineering, and mechanism analysis—equips him to develop practical and scalable solutions. His research capabilities are further enriched by experience in leading research teams, writing competitive grant proposals, mentoring graduate students, and disseminating findings through high-impact publications and patents.

Awards and Honors

Dr. Shiqun Wu has received a wide range of prestigious awards and honors throughout his academic and research career, recognizing both his scientific excellence and leadership. He has been the recipient of the Shanghai “Rising Star” Talent Program, the Postdoctoral Innovative Talent Support Program, and the Shanghai “Super Postdoc” Incentive Program. His successful applications to the National Natural Science Foundation of China and the China Postdoctoral Science Foundation reflect his ability to secure highly competitive research funding. Dr. Wu has also demonstrated excellence in mentorship, serving as the first advisor to student teams that won Gold and Bronze Awards at the China International University Student Innovation Competition and the China “Internet+” Innovation and Entrepreneurship Competition. He was a National Finalist in the China Postdoctoral Innovation and Entrepreneurship Competition and was named an Excellent Postdoctoral Researcher in Shanghai in 2021. During his Ph.D., he received the National Graduate Scholarship, the Zhang Jiang Excellent Ph.D. Fellowship, and the third prize in the ACS Graduate Research Achievement Contest. These accolades reflect not only his scientific merit but also his commitment to educational and societal advancement through innovation and collaboration.

Conclusion

Dr. Shiqun Wu represents a new generation of chemists who integrate deep theoretical understanding with experimental rigor to address some of the most pressing challenges in energy and environmental science. His work in photocatalytic materials demonstrates both creativity and precision, aiming to transform inert molecules into valuable chemicals using sustainable, light-driven processes. With over 20 high-impact publications and more than ten patent filings, he has established a strong research profile at an early stage of his career. His contributions extend beyond the lab through effective mentorship, academic leadership, and successful project management. While his international visibility could benefit from further global collaboration and independent project branding, his current trajectory is highly promising. Dr. Wu’s interdisciplinary skills, strategic research focus, and dedication to innovation position him as an outstanding candidate for the Best Researcher Award. His work not only contributes to the scientific community but also aligns with broader environmental and societal goals, reflecting both intellectual merit and practical relevance. As he continues to grow in his academic role, Dr. Wu is expected to make transformative contributions to the field of green chemistry and sustainable catalysis.

Publications Top Notes

  1. Core–Shell MIL-125(Ti)@In2S3 S-Scheme Heterojunction for Boosting CO2 Photoreduction
    Authors: Mazhar Khan, Zeeshan Akmal, Muhammad Tayyab, Seemal Mansoor, Dongni Liu, Junwen Ding, Ziwei Ye, Jinlong Zhang, Shiqun Wu, Lingzhi Wang
    Journal: ACS Applied Materials & Interfaces
    Year: 2025 (May 16)
    DOI: 10.1021/acsami.5c03817

  2. Regulating Atomically‐Precise Pt Sites for Boosting Light‐Driven Dry Reforming of Methane
    Authors: Chengxuan He, Qixin Li, Zhicheng Ye, Lijie Wang, Yalin Gong, Songting Li, Jiaxin Wu, Zhaojun Lu, Shiqun Wu, Jinlong Zhang
    Journal: Angewandte Chemie
    Year: 2024 (Nov 11)
    DOI: 10.1002/ange.202412308

  3. Optimizing Reaction Kinetics and Thermodynamics for Photocatalytic CO2 Reduction through Spin Polarization Manipulation
    Authors: Mingyang Li, Shiqun Wu, Dongni Liu, Zhicheng Ye, Chengxuan He, Jinlong Wang, Xiaoyi Gu, Zehan Zhang, Huizi Li, Jinlong Zhang
    Journal: ACS Catalysis
    Year: 2024 (Sept 20)
    DOI: 10.1021/acscatal.4c03802

  4. Engineering Spatially Adjacent Redox Sites with Synergistic Spin Polarization Effect to Boost Photocatalytic CO2 Methanation
    Authors: Mingyang Li, Shiqun Wu, Dongni Liu, Zhicheng Ye, Lijie Wang, Miao Kan, Ziwei Ye, Mazhar Khan, Jinlong Zhang
    Journal: Journal of the American Chemical Society
    Year: 2024 (June 5)
    DOI: 10.1021/jacs.4c04264

  5. Single‐Atom Alloys Materials for CO2 and CH4 Catalytic Conversion
    Authors: Chengxuan He, Yalin Gong, Songting Li, Jiaxin Wu, Zhaojun Lu, Qixin Li, Lingzhi Wang, Shiqun Wu, Jinlong Zhang
    Journal: Advanced Materials
    Year: 2024 (April)
    DOI: 10.1002/adma.202311628

  6. Boosting CO production from visible-light CO2 photoreduction via defects-induced electronic-structure tuning and reaction-energy optimization on ultrathin carbon nitride
    Authors: J. Li, C. He, J. Wang, X. Gu, Z. Zhang, H. Li, M. Li, L. Wang, S. Wu, J. Zhang
    Journal: Green Chemistry
    Year: 2023
    DOI: 10.1039/d3gc02371k

  7. Combing Hollow Shell Structure and Z-Scheme Heterojunction Construction for Promoting CO2 Photoreduction
    Authors: Z. Deng, J. Cao, S. Hu, S. Wu, M. Xing, J. Zhang
    Journal: Journal of Physical Chemistry C
    Year: 2023
    DOI: 10.1021/acs.jpcc.3c01375