Wenliang Yin | Sustainable Development | Best Researcher Award

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Assoc. Prof. Dr. Wenliang Yin | Sustainable Development | Best Researcher Award

Chairman Of Department at Shandong University of Technology, China

Wenliang Yin is an associate professor at the School of Electrical and Electronic Engineering at Shandong University of Technology (SDUT), China. With a robust background in renewable energy systems and wind power engineering, he has made significant contributions to the development of hybrid wind power generation systems integrated with hydrogen storage technologies. As a recipient of multiple prestigious grants and awards, he has positioned himself as a leading early-career researcher in the intersection of mechanical transmission, electrical control, and renewable energy integration.

Profile

Scopus

Education

Dr. Yin received his Ph.D. in Energy Power and Mechanical Engineering from North China Electric Power University (NCEPU), Beijing, in 2019, following a direct transfer from his Master’s program due to outstanding academic performance. During his doctoral studies, he also served as a visiting Ph.D. candidate at the University of New South Wales, Sydney, from 2017 to 2018, where he deepened his knowledge in electrical engineering and control systems. His undergraduate and initial graduate training were also completed at NCEPU, where he built a solid foundation in energy systems and mechanical engineering.

Experience

Since joining SDUT in 2019, Dr. Yin has advanced from lecturer to associate professor and currently supervises Master’s research students while also coordinating and lecturing undergraduate courses such as New Energy Power Generation Technology and Condition Monitoring. In parallel, he was appointed a Youth Outstanding Researcher in Shandong Province, a recognition granted to top academic talents. Prior to this, his early career included extensive involvement in national-level research programs focused on wind turbine systems and energy storage technologies.

Research Interests

Dr. Yin’s research focuses on the dynamics, modeling, and optimization of wind power generation systems, especially those employing speed regulating differential mechanisms (SRDM). His work also explores robust control strategies for hybrid-drive wind turbines integrated with hydrogen energy storage systems to enhance grid-friendly operation. His interests extend to mechanical vibration theory, electrical machine control, and system-level energy optimization. He is particularly known for developing simulation models and experimental verifications of hybrid wind-hydrogen systems, bridging theoretical concepts with practical engineering applications.

Awards

Dr. Yin has been recognized with several prestigious honors, including the Excellent Doctoral Dissertation Award from NCEPU (Top 5%) in 2019 and the Youth Outstanding Researcher Award by the Shandong provincial government (Top 1%) the same year. He has also been awarded the National Teacher Qualification Certificate and was named an Excellent Teacher by SDUT in 2021 (Top 1%). Additionally, he has received multiple first-class scholarships throughout his academic career and was acknowledged as an Excellent Reviewer at IEEE I&CPS Asia 2020. His supervision excellence is also evidenced by two undergraduate theses being named among SDUT’s top 2%.

Publications

Dr. Yin has authored numerous academic works, among which the following seven represent key contributions to his field:

Yin et al., “Advanced Power Curve Modeling for Wind Turbines: A Multivariable Approach with SGBRT and Grey Wolf Optimization,” Energy Conversion and Management, 2025 – cited for its advanced prediction methodology in wind energy performance (SJR Q1; IF 9.9).

Jia, Yin et al., “Performance improvement of active distribution networks…,” CSEE Journal of Power and Energy Systems (Online, 2025) – noted for control strategies in hybrid-drive farms (SJR Q2; IF 6.9).

Yin, Rui, “Research on dynamic characteristics…,” Acta Energiae Solaris Sinica, 2021 – studied mechanical dynamics in SRDM-based systems (SJR Q4; IF 1.069).

Yin et al., “Modeling and simulation analysis of 1.5 MW wind turbine…,” Chinese Science Paper Online, 2016 – explored hydrogen integration in turbines.

Yin et al., “Simulation analysis of wind turbine hydrogen production system…,” Chinese Science Paper Online, 2016 – introduced SRDM-based hydrogen production modeling.

Yin et al., “Analysis of a front-end speed regulation wind turbine with hydrogen storage system,” IEEE I&CPS Asia 2020 – presented hybrid drive designs (IEEE/EI indexed).

Wang, Yin et al., “Fractional-order sliding mode control…,” Journal of Modern Power Systems and Clean Energy, 2023 – focused on voltage stability in hybrid turbines (SJR Q1; IF 6.3).

Conclusion

With a strong academic pedigree, impressive publication record, and a track record of successful project leadership, Dr. Wenliang Yin has emerged as a promising researcher in the fields of wind energy systems and renewable energy integration. His work bridges mechanical design and electrical control, making him a unique contributor to next-generation energy technologies. His excellence in supervision, innovation, and academic service illustrates not only his technical proficiency but also his commitment to advancing the renewable energy discipline in both research and education.

Sohanth Tej Maganty | Structural Engineering | Best Researcher Award

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Mr. Sohanth Tej Maganty | Structural Engineering | Best Researcher Award

Research Scholar at IIT Hyderabad, India

Sohanth Tej Maganty is a highly driven structural engineering researcher currently pursuing his doctoral studies at the Indian Institute of Technology (IIT) Hyderabad. With a strong foundation in structural design and analysis, Sohanth specializes in the application of the Finite Element Method (FEM), structural mechanics, and innovative lightweight construction methods. He brings practical industry experience combined with academic excellence, contributing to the advancement of modern construction techniques through a focused research approach. His proficiency in software tools like ABAQUS, ETABS, STAAD, and MATLAB enhances his capability to model and analyze complex structural systems. He is recognized for his dedication to solving real-world engineering challenges, particularly in the domain of fracture mechanics and sandwich panel systems for sustainable infrastructure.

Profile

Scopus

Education

Sohanth’s academic journey began with excellence in high school, completing his 10th grade from Dr. KKR’s Gowtham Concept School with a CGPA of 9.0/10, followed by an outstanding 948/1000 score in his MPC intermediate studies. He then pursued a dual degree path, completing both his Bachelor’s in Civil Engineering and Master’s in Structural Engineering from JNTU Hyderabad between 2016 and 2021. He graduated with distinction, scoring 9.09/10 in his undergraduate program and 9.65/10 in his master’s degree. Currently, he is enrolled in a PhD program at IIT Hyderabad where he maintains a stellar CGPA of 9.3/10 in coursework. His doctoral research revolves around fracture mechanics and the development of lightweight construction materials such as EPS (Expanded Polystyrene) core sandwich panels.

Experience

Sohanth has accumulated a diverse range of academic and professional experiences. At IIT Hyderabad, where he currently works as a Research Scholar, he investigates fracture behavior and performance characteristics of sandwich panel structures. His research aids in advancing durable, cost-effective, and lightweight alternatives for conventional construction materials. During his time at JNTU Hyderabad, he contributed to structural proof-checking for a multi-storeyed residential building project, ensuring compliance with IS code standards. Additionally, he interned at Integrity Structural Consultants in Chennai, where he modeled and analyzed reinforced concrete buildings using KMK codal provisions for an overseas project in Uzbekistan. In 2019, he was selected for a competitive summer internship at IIT Madras under Prof. A. Meher Prasad, where he participated in structural analysis research for a building project at IIT Tirupati, gaining firsthand exposure to high-level engineering practices and research culture.

Research Interest

His primary research interests lie in fracture mechanics, sustainable building materials, and advanced structural modeling. Sohanth is particularly focused on enhancing the mechanical performance of sandwich panel systems through analytical and experimental studies, aiming to improve their application in energy-efficient and seismic-resistant structures. He is also exploring the use of geopolymer concrete to develop environmentally sustainable construction alternatives. His current work contributes toward bridging the gap between experimental mechanics and real-world application in infrastructure development.

Awards

Throughout his academic journey, Sohanth has been recognized for excellence with several honors. He received a Student Gold Medal from Nine Education Institute in 2016 for top academic performance. In 2019, he was selected for the prestigious Summer Internship Program at IIT Madras. He also earned the MHRD Fellowship to pursue his PhD at IIT Hyderabad, awarded based on academic merit and research potential. His research on sandwich panels was recently selected for presentation at the BEFIB 2024 conference in Dresden, Germany, further attesting to the significance of his contributions to the field.

Publications

Sohanth has authored and contributed to several scholarly publications in high-impact journals and conferences. These include:

“Fracture Behaviour of EPS Core Sandwich Panels Under Bending Load”, Journal of Sandwich Structures and Materials, 2023 – Cited by 12 articles.

“Analytical Modeling of Lightweight Concrete Panels for Seismic Resistance”, Engineering Structures, 2022 – Cited by 9 articles.

“Finite Element Simulation of Crack Propagation in Geopolymer Concrete”, Computers and Concrete, 2022 – Cited by 7 articles.

“Performance of Hybrid Core Sandwich Panels in Flexural Testing”, Materials Today: Proceedings, 2023 – Cited by 6 articles.

“Structural Evaluation of EPS Panels for Modular Housing”, Construction and Building Materials, 2021 – Cited by 10 articles.

“Experimental Study on Fracture Mechanics of Lightweight Panels”, Procedia Structural Integrity, 2024 – Cited by 3 articles.

“Geopolymer Concrete in Modern Structural Systems: A Review”, Journal of Cleaner Production, 2021 – Cited by 15 articles.

Conclusion

Sohanth Tej Maganty embodies the qualities of a promising structural engineer and academic scholar, seamlessly combining theoretical rigor with practical insight. With a strong foundation in structural engineering principles, a commitment to research innovation, and a deep understanding of computational tools, he is well-equipped to address the future challenges in construction technology. His dedication to sustainable practices and innovative materials reflects a broader vision for the development of resilient and efficient infrastructure. As he continues to explore the frontiers of fracture mechanics and lightweight structural systems, Sohanth stands poised to make lasting contributions to both academia and industry.

Chuanshan Dai | Thermal Energy Enginnering | Best Researcher Award

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Prof. Dr. Chuanshan Dai | Thermal Energy Enginnering | Best Researcher Award

Professor at Tianjin University, China

Professor Chuanshan Dai currently serves as Professor and Director at the Tianjin Geothermal Research and Training Center within the School of Mechanical Engineering at Tianjin University. A recognized leader in geothermal engineering and sustainable energy systems, Professor Dai has devoted decades to advancing renewable energy solutions, particularly in the fields of heat transfer and geothermal resource utilization. His expertise in both academic research and practical engineering has had a significant impact on the development of clean energy strategies in China and globally. With over 30 years of experience, his academic and applied contributions continue to shape innovative geothermal technologies and influence policy development in renewable energy management.

Profile

Scopus

EDUCATION

Professor Dai began his academic journey at Tianjin University, where he received his Bachelor of Science in 1985. He continued to advance his expertise in thermal sciences by earning a Master of Science from Harbin Institute of Technology in 1988. Driven by an enduring passion for geothermal systems, he pursued a Ph.D. at Okayama University in Japan, which he completed in 2003. Throughout his educational path, he secured prestigious fellowships, including from the Geothermal Institute at Auckland University (New Zealand, 1990), the United Nations University Geothermal Training Programme (Iceland, 1992), and the Monbusho Fellowship from the Japanese government (1999–2003), highlighting his international recognition and cross-border expertise.

EXPERIENCE

With decades of professional and academic service, Professor Dai has played a pivotal role in research and training initiatives focused on geothermal energy. As a faculty member and director at Tianjin University, he has led critical projects in heat transfer optimization, multiphase flow, and district heating. His academic responsibilities include teaching courses such as “Numerical Heat Transfer,” “Multiphase Flow and Heat Transfer,” “Energy Resources and Management,” and “Geothermal Heat Pump.” These courses span both undergraduate and postgraduate levels and emphasize his commitment to nurturing the next generation of energy engineers. He also contributes to policy consultation and infrastructure planning, bridging the gap between theoretical research and field applications.

RESEARCH INTEREST

Professor Dai’s research interests focus on geothermal energy systems, including heat extraction technologies, ground source heat pump systems, district heating solutions, and numerical modeling of heat and mass transfer. His investigations have led to breakthroughs in lattice Boltzmann methods, natural circulation loops, and open-loop deep geothermal wells. His integrated approach combines computational simulation, experimental validation, and applied engineering to improve the efficiency and sustainability of thermal energy systems. He is particularly known for optimizing the thermal performance of borehole heat exchangers and enhancing district heating systems with renewable sources.

AWARD

Professor Dai has been consistently recognized for his contributions to the field of geothermal engineering. His international fellowships in New Zealand, Iceland, and Japan reflect his early promise and sustained excellence. He has also been nominated and honored in various scientific and academic platforms for his leadership in renewable energy research. His educational outreach and innovation have earned him nominations for national and institutional awards, acknowledging both his technical competence and mentorship in the energy sector.

PUBLICATION

Professor Dai’s research has led to numerous high-impact publications, with several cited widely in the geothermal and energy engineering communities. His recent co-authored article, “An implicit lattice Boltzmann flux solver with a projection-based interpolation scheme for the convection-diffusion equation,” published in Computers and Mathematics with Applications (2024), addresses simulation accuracy for heat transfer. Another 2024 work in Renewable Energy, “Optimization of a district heating system coupled with a deep open-loop geothermal well and heat pumps,” offers practical solutions for energy efficiency. In 2022, he co-authored “Analyses and reconstruction of the lattice Boltzmann flux solver,” in the Journal of Computational Physics, cited for improving solver performance. His 2019 article in Applied Energy, “An experiment on heat extraction from a deep geothermal well using a downhole coaxial open loop design,” has influenced geothermal system design strategies. His 2020 publication in the International Journal of Heat and Mass Transfer, “Heat transfer enhancement based on single phase natural circulation loops,” is referenced for its thermal management techniques. Another 2022 study in Geothermics, “The influence of thermal boundary conditions of wellbore on the heat extraction performance of deep borehole heat exchangers,” provides key insights for system efficiency. These works are widely cited and have made significant scholarly impact in both theoretical and applied energy engineering.

CONCLUSION

Chuanshan Dai exemplifies the qualities of a top-tier researcher through his academic excellence, international fellowships, influential teaching, and pioneering research. His deep commitment to sustainable energy and heat transfer research, along with his global impact and leadership, make him an outstanding candidate for the Research for Best Researcher Award.

Hong Zheng | Computational Geomechanics | Best Researcher Award

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Prof. Hong Zheng | Computational Geomechanics | Best Researcher Award

Professor at Beijing University of Technology, China

Professor Hong Zheng is a leading scholar in engineering numerical analysis, renowned for his groundbreaking work in computational geotechnical mechanics. Currently serving as a professor at Beijing University of Technology, he holds titles such as Beijing Scholar and recipient of the prestigious National Science Fund for Distinguished Young Scholars. He has played a significant role in shaping academic and practical geotechnical research in China and internationally, contributing extensively through high-impact publications, software development, and national engineering projects such as the Three Gorges Project. Recognized globally, he has been named among the top 2% of scientists in engineering and applied mathematics and consistently appears on the Elsevier Highly Cited Authors list.

Profile

ORCID

EDUCATION

Professor Zheng began his academic journey at Northeastern University, where he earned his bachelor’s degree in mechanical engineering in 1985. He continued at the same university, completing his master’s degree in solid mechanics in 1988. His academic pursuits culminated with a Ph.D. in engineering mechanics from the Graduate University of the Chinese Academy of Sciences in 2000. This comprehensive education provided the technical and analytical foundation that has enabled him to lead advancements in computational geomechanics and solid mechanics modeling.

EXPERIENCE

Professor Zheng has built a prolific career combining academic leadership with hands-on engineering experience. In addition to his professorship at Beijing University of Technology, he previously served as director of the Geotechnical Mechanics Committee under the Chinese Society of Theoretical and Applied Mechanics. He has led research and consulting initiatives on nationally significant infrastructure projects, most notably the Three Gorges Project, offering expertise in soil-structure interaction and stability analysis. His professional efforts have been instrumental in forming national standards and improving commercial geotechnical software systems.

RESEARCH INTEREST

Professor Zheng’s research is primarily focused on computational geotechnical mechanics. His expertise lies in numerical simulations of geotechnical systems, including finite element methods, constitutive modeling, and coupled thermo-hydro-mechanical analysis. He is especially interested in geotechnical reliability, slope stability, and soil-structure interaction, and has developed innovative models that are widely used in academia and practice. His work bridges engineering theory and application, resulting in methodologies that are integrated into educational textbooks and adopted in international engineering standards.

AWARD

In recognition of his scientific excellence, Professor Zheng has received multiple prestigious awards. Notably, he is a recipient of the National Science Fund for Distinguished Young Scholars. His work has earned him continued placement on the Elsevier Highly Cited Researchers list and inclusion in Stanford University’s list of the top 2% of global scientists in engineering and applied mathematics. These accolades reflect his consistent contributions to high-impact research, academic leadership, and engineering innovation, both nationally and internationally.

PUBLICATION

Professor Zheng has published nearly 100 SCI-indexed articles in renowned journals. Highlighted works include: (1) “A novel strength reduction method for slope stability analysis based on finite element limit analysis,” Computers and Geotechnics, 2014, cited by 350+ articles; (2) “Three-dimensional slope stability analysis considering progressive failure,” Int. J. for Numerical and Analytical Methods in Geomechanics, 2016, cited by 220+ articles; (3) “Nonlinear analysis of tunnel excavation-induced ground settlement,” Tunnelling and Underground Space Technology, 2013, cited by 180+ articles; (4) “Numerical investigation of the bearing behavior of pile groups in layered soils,” Soils and Foundations, 2015, cited by 160+ articles; (5) “A coupled thermo-hydro-mechanical model for saturated porous media,” Acta Geotechnica, 2017, cited by 200+ articles; (6) “Implementation of a user-defined constitutive model in commercial geotechnical software,” Geomechanics and Engineering, 2018, cited by 110+ articles; (7) “Analysis of soil-structure interaction under dynamic loading conditions,” Engineering Geology, 2012, cited by 190+ articles.

CONCLUSION

Given his exceptional academic qualifications, influential research, high-impact publications, prestigious recognitions, and sustained leadership in engineering mechanics and geotechnics, Professor Hong Zheng is an outstanding candidate for the Research for Best Researcher Award. His career not only demonstrates excellence but also reflects a profound and lasting impact on both national and international scales.

Prakash Palei | Non-destructive testing, controlled blasting methodology | Best researcher award

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Dr. Prakash Palei | Non-destructive testing, controlled blasting methodology | Best researcher award

SCIENTIST – D at Central Water & Power Research Station, India

Dr. Prakash Kumar Palei currently serves as a Scientist-B in the Vibration Technology Division at the Central Water & Power Research Station (CWPRS), Pune. With a solid academic foundation in Physics and a keen focus on applied research, Dr. Palei has significantly contributed to the fields of vibration monitoring, structural health assessment, and controlled blasting technology. His cross-disciplinary approach integrates material science with field applications, making him a pivotal figure in civil and structural engineering research, especially concerning hydraulic structures. His work supports the safe operation and sustainability of major national infrastructure projects across India.

Profile

SCholar

EDUCATION:

Dr. Palei holds a Doctor of Philosophy (Ph.D.) in Physics from the National Institute of Technology, Rourkela, where he researched the structural and electrical characterization of lead-free KNN-based ceramics processed by conventional and microwave methods. He completed his M.Sc. in Physics from the same institute in 2007, and earlier earned his B.Sc. degree with honors in Physics from Ravenshaw College, Cuttack, in 2002. His academic credentials are further reinforced by his successful qualification in the GATE 2007 examination.

EXPERIENCE:

Dr. Palei possesses over a decade of professional experience that spans both academia and applied research. He began his career in education as an Assistant Professor at MIT College of Engineering, Pune, before transitioning into a scientific research role at CWPRS in 2014. He has played an instrumental role in over 30 national projects, involving controlled blasting, non-destructive testing (NDT), and vibration monitoring. Notably, he has collaborated on DRDO- and DIT-sponsored research on the development of lead-free ceramics and radiation-shielding materials. His experience also includes health assessment of dams, tunnels, and power stations, making him a valuable asset in ensuring structural safety and compliance.

RESEARCH INTEREST:

Dr. Palei’s research interests are multidisciplinary, encompassing ferroelectric and piezoelectric ceramics, structural safety evaluation through vibration analysis, controlled blasting near critical structures, and NDT methodologies. He integrates advanced instrumentation, such as ultrasonic testers and engineering seismographs, to collect empirical data that informs infrastructure resilience. He has also contributed to the development of new materials with dielectric and magnetic properties, emphasizing sustainable and safe engineering practices.

AWARD:

Dr. Palei has earned recognition for his applied research in ensuring the structural safety of critical infrastructure. His innovative work in implementing safe blasting techniques near earthen dams and tunnels, and his technical reports submitted to government clients, position him as a leading candidate for national research and engineering excellence awards. His nomination reflects both his academic rigor and his real-world impact on infrastructure safety.

PUBLICATION:

Dr. Palei has authored several peer-reviewed journal articles and conference proceedings. Key publications include:

  1. Effective implementation of controlled blasting methodology during excavation of hard rock in the close proximity of earthen dam and tunnel, Defence Technology, 2025 (In Press), cited in studies on dam safety.

  2. Polymethyl methacrylate (PMMA)–bismuth ferrite (BFO) nanocomposite: low loss and high dielectric constant materials, Dalton Transactions, 2014, cited 85 times.

  3. Synthesis and Characterization of Superparamagnetic Fe₃O₄@SiO₂ Nanoparticles, Journal of Korean Chemical Society, 2014, cited 42 times.

  4. Novel Nanocrystalline Zinc Silver Antimonate as Ecofriendly Photocatalyst, Journal of Materials Chemistry A, 2013, cited 69 times.

  5. Temperature dependent electrical properties of Ag-modified ceramics, Journal of Electroceramics, 2012, cited 55 times.

  6. Microwave processed KNN-LS ceramics: Structural and electrical properties, Journal of Microwave Power and Electromagnetic Energy, 2012, cited 38 times.

  7. Impedance spectroscopy of ferroelectric ceramics, Journal of Advanced Dielectrics, 2011, cited 33 times.

CONCLUSION:

Dr. Prakash Kumar Palei demonstrates an outstanding blend of academic excellence, practical expertise, innovative research, and national service, all underpinned by a prolific publication and project portfolio. His versatile contributions to both material science and structural engineering applications make him exceptionally suited for the Best Researcher Award. His work not only advances scientific understanding but also directly supports public safety and infrastructure resilience, fulfilling the highest ideals of research excellence.

Ksenia Velmozhina | Аlternative energy | Best Researcher Award

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Ms. Ksenia Velmozhina | Аlternative energy | Best Researcher Award

Research engineer at Peter the Great St.Petersburg Polytechnic University, Russia

Ksenia Velmozhina is a research engineer at Peter the Great St. Petersburg Polytechnic University with a strong focus on sustainable technologies and renewable energy systems. Over the past four years, she has specialized in scientific research targeting biogas and biohydrogen production from organic waste. Her work is rooted in the broader mission of promoting energy efficiency and ecological responsibility through applied science. Ksenia’s scientific approach combines creativity, analytical rigor, and a dedication to environmental innovation, allowing her to contribute meaningfully to real-world sustainability challenges through interdisciplinary collaboration and patented solutions.

Profile

Scopus

EDUCATION

Ksenia completed her Bachelor’s degree in Technosphere Safety from Peter the Great St. Petersburg Polytechnic University in 2021, where her thesis explored the implementation of green building standards in Russia. She continued at the same institution for her Master’s degree in Technosphere Safety, specializing in Environmental Safety in Industry, which she completed in 2023. Her graduate thesis focused on improving anaerobic digestion technology for energy purposes, laying the foundation for her research into renewable energy recovery from organic waste. Her academic background provided her with a solid understanding of industrial safety and ecological engineering, which directly informs her current professional and research endeavors.

EXPERIENCE

Professionally, Ksenia has held the position of research engineer at her alma mater, where she has applied her education to projects involving waste-to-energy technologies. Her responsibilities include the design and enhancement of anaerobic digestion systems, development of biohydrogen production methods, and research into microalgae-based carbon capture. She works closely with both academic researchers and industry experts to bring theoretical advancements into practical, scalable solutions. Her work bridges laboratory experiments with industrial application, making her contributions valuable for both scientific progress and real-world implementation of sustainable technologies.

RESEARCH INTEREST

Her primary research interests lie in the fields of anaerobic digestion, biogas and biodiesel production, hydrogen energy, microalgae-based environmental technologies, and organic waste recycling. She is particularly enthusiastic about hydrogen bioenergy, viewing it as a critical pillar of the future sustainable energy infrastructure. Ksenia’s work often emphasizes integration—combining processes like wastewater treatment, carbon dioxide capture, and energy recovery into comprehensive, eco-friendly systems. Her research contributes to sustainable development goals and seeks to mitigate climate change through advanced waste-to-energy conversions and bioengineering solutions.

AWARD

Ksenia has received several awards in recognition of her innovation and scientific excellence. She holds two patents: “Carbon Dioxide Utilization Using Chlorella Microalgae” (Patent No. 2022119015) and “Method for Enhancing Biogas Potential of Organic Waste” (Patent No. 2826145). In 2021, she won the EcoMarathon student competition, and in 2022, she earned first place in the All-Russian Youth Research Competition on Waste-to-Energy. Her continued success in renewable energy research earned her a prestigious grant in 2023 from St. Petersburg to support her work on biogas and biohydrogen production technologies, further validating her contribution to sustainable science and engineering.

PUBLICATION

Ksenia has authored and co-authored impactful scientific articles in high-ranking journals. In 2025, she co-authored “Development of a technological scheme for the utilization of carbon dioxide and the production of biohydrogen using microalgae” in the International Journal of Hydrogen Energy, cited for advancing CO₂-to-fuel methods. In 2023, she published “Production of Biohydrogen from Microalgae Biomass after Wastewater Treatment and Air Purification from CO₂” in Processes, a paper recognized for its integrated wastewater-energy approach. Her collaboration on “Carbon Dioxide Utilization Using Chlorella Microalgae” appeared in Environments (2023), a work cited in CO₂ biosequestration studies. She also contributed to “Heavy Metal Ions(II) Sorption by a Cellulose-Based Sorbent Containing Sulfogroups” in Polymers (2023), cited for eco-material innovation. Her 2024 review “Review of modern strategies for the development of hydrogen bioenergy” in International Journal of Hydrogen Energy outlined global hydrogen policies and pathways. Additionally, she co-authored “Production of biogas from organic waste at landfills by anaerobic digestion” in the same journal (2024), and contributed to the 2023 study “Modification of Liquid Glasses Is a Key Factor in the Technology of Obtaining Hybrid Compositions and Coatings with Anticorrosive Properties” in Coatings, expanding her interdisciplinary reach into materials science.

CONCLUSION

In view of her impressive scientific contributions, innovative mindset, and commitment to solving environmental challenges through research, Ksenia Velmozhina is highly suitable for the Best Researcher Award. Her portfolio embodies excellence, creativity, and a strong vision for a sustainable future, making her a worthy candidate for this prestigious honor.

Xin Zhang | Microbiology | Best Researcher Award

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Dr. Xin Zhang | Microbiology | Best Researcher Award

Research Assistant at Zhejiang Gongshang University, China

Xin Zhang is a dedicated environmental scientist and engineer whose work centers on sustainable nutrient recovery, waste valorization, and advanced electrochemical treatment methods. With a career that bridges China and the United States, she combines strong academic training with practical experience in both research institutions and industry. Her achievements span innovative phosphorus recovery techniques, development of catalytic materials, and applications in anaerobic digestion and biochar technologies. Her strong interdisciplinary background and focus on practical environmental challenges make her an exemplary candidate for recognition in the field of sustainable environmental engineering.

Profile

Scopus

EDUCATION

Dr. Xin Zhang received her Ph.D. in Bioproducts and Biosystems Science Engineering and Management from the University of Minnesota in September 2018, where she specialized in phosphorus removal and recovery from animal manure using electrocoagulation. Her doctoral research provided innovative insights into nutrient management and agricultural sustainability. She earned her B.S. in Bioengineering from Beijing University of Chemical Technology in June 2014, completing a thesis on superabsorbent hydrogel materials. Her educational trajectory highlights a consistent dedication to merging biochemical and environmental technologies for real-world impact.

EXPERIENCE

Xin Zhang currently serves as a Research Assistant at Zhejiang Gongshang University in the School of Environmental Science and Engineering, a position she has held since August 2022. She previously completed a postdoctoral fellowship at Zhejiang University from 2019 to 2022, focusing on bioresource engineering and anaerobic digestion. Earlier, she worked at the Cargill R&D Center in the United States (2018–2019), where she participated in industrial research projects involving manure treatment and phosphorus recovery. Her experience includes collaborations on government-funded and industry-sponsored research, spanning various roles from laboratory innovation to engineering demonstration.

RESEARCH INTEREST

Dr. Zhang’s research revolves around nutrient recovery, phosphorus solubilization by microorganisms, development of electrochemical treatment technologies, and enhancement of anaerobic digestion using hydrochar. She has led and participated in numerous research projects, including those funded by the National Natural Science Foundation of China and provincial innovation centers. Her recent investigations explore the synthesis and modification of metal-doped hydrochar, organic acid mechanisms in phosphorus solubilization, and sulfide oxidation using electrochemical methods. Her work reflects a consistent focus on translating environmental challenges into scientifically sound, technologically feasible solutions.

AWARD

Xin Zhang has received numerous prestigious accolades throughout her academic and professional career. She was awarded the Second Award for Science and Technology by the China Association of Urban Environmental Sanitation in December 2024. In 2016, she was the runner-up in the Dow Sustainability Innovation Student Challenge Award and was honored for her outstanding oral presentation at the Annual International Meeting in Orlando, ranking among the top four of 90 presenters. Notably, she won the Nutrient Recycling Challenge organized by the U.S. EPA, placing in the top four out of 75 participants for her proposal on nutrient-concentrated biosolids.

PUBLICATION

Xin Zhang has published a range of influential peer-reviewed articles. Among them:

  1. Chemical Engineering Journal (2022): “Effective anodic sulfide removal catalyzed by single nickel atoms on nitrogen-doped graphene,” cited by numerous studies in catalyst design.

  2. Biosystems Engineering (2022): “A pilot-scale study of electrocoagulation on phosphorus removal,” recognized for bridging lab-scale results to industry application.

  3. Applied Surface Science (2023): “Enhanced electro-activity of nickel phosphide by pre-treatment,” advancing H₂S removal technologies.

  4. Rhizosphere (2023): “Screening of phosphorus solubilizing fungi,” which supports bio-based phosphorus management in agriculture.

  5. Inorganic Chemistry (2024): “Synthesis of hydrogen peroxide in neutral media by iron-doped nickel phosphide,” extending her work into green catalysis.

  6. Separation and Purification Technology (2018): “Electrocoagulation effects on phosphorus and settling from swine manure.”

  7. Journal of Environmental Engineering (2020): “Electrocoagulation of dairy manure using low-carbon steel electrodes for phosphorus removal.”
    These publications have garnered substantial citations, attesting to their scientific and practical value.=

CONCLUSION

Given Xin Zhang’s outstanding academic background, extensive research portfolio, leadership in funded projects, high-quality publications, patent contributions, and multiple prestigious honors, he is highly deserving of the Best Researcher Award. His work not only advances scientific knowledge but also offers tangible solutions to environmental sustainability, fulfilling the highest standards of excellence in research

Moina Ajmeri | Sustainable Development | Best Research Article Award

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Dr. Moina Ajmeri | Sustainable Development | Best Research Article Award

Assitant Professor at National Institute of Technology Patna, India

Dr. Moina Ajmeri is a dedicated and accomplished academic serving as an Assistant Professor (Grade-II, Level-11) in the Department of Electrical Engineering at the National Institute of Technology (NIT) Patna. With an impressive h-index of 8 and over 298 citations, Dr. Ajmeri has made significant contributions to the fields of control systems, power electronics, and renewable energy systems. Throughout her career, she has demonstrated a strong commitment to research, teaching, and innovation, underlined by her involvement in several patents and high-impact journal publications. Her multidisciplinary approach and passion for advancing control techniques for complex industrial processes and energy applications have positioned her as an influential voice in her field.

profile

scopus

Education

Dr. Ajmeri holds a Ph.D. in Electrical Engineering from the prestigious Indian Institute of Technology (IIT) Patna, completed in 2016. Her doctoral research focused on the development of new two-degree-of-freedom control schemes tailored for integrating and unstable processes with time delay, and she graduated with a commendable CPI of 8.93/10. She also holds an M.Tech. in Electronics and Communication Engineering from Birla Institute of Technology, Mesra, Ranchi, which she completed in 2010, securing an excellent academic score of 88.50%. Her undergraduate foundation in engineering was established at Magadh University, Bodh Gaya, where she earned a B.Sc. Engineering in Electronics and Communication with distinction, obtaining 82.33% marks.

Experience

Dr. Ajmeri’s professional journey began at NIT Patna, where she joined as an Assistant Professor (On Contract) in the Department of Electronics and Communication Engineering in 2015. Post completion of her Ph.D., she transitioned to a permanent faculty role in the Department of Electrical Engineering in 2018, and since September 2022, she has held her current position as an Assistant Professor (Grade-II, Level-11). During this period, she has combined her academic instruction with active research, mentoring students, and contributing to the academic and administrative growth of the department.

Research Interest

Dr. Ajmeri’s research interests lie in process modeling and system identification, control design for both linear and nonlinear systems, and advanced control applications for power electronic circuits. Her expertise also extends to micro-grids and renewable energy systems, where she seeks to develop robust and efficient control strategies to meet the demands of modern sustainable energy networks. Her research stands at the crossroads of theory and application, striving to solve real-world industrial challenges while pushing the boundaries of control systems engineering.

Award

In recognition of her research excellence and commitment to innovation, Dr. Ajmeri has been an instrumental contributor to two patents related to high-gain DC-DC boost converter technologies, co-filed in 2023 under the aegis of NIT Patna. These patents are designed to address the challenges of high switching frequencies and multi-level energy conversion, which are pivotal in renewable energy and power electronic systems. These innovations showcase her practical problem-solving skills and her vision for transforming power electronics.

Publication

Dr. Ajmeri’s scholarly output features several high-impact journal articles. Selected examples include:

Ajmeri, M. (2024). “Novel twofold control for delayed industrial processes with integrating and inverse response characteristics,” IFAC Journal of Systems and Control (Q3).

Kumar, P., & Ajmeri, M. (2025). “A non-isolated buck-boost converter based on SEPIC topology for renewable energy applications,” Computers and Electrical Engineering, Volume 124, Part A.

Kumar, S., & Ajmeri, M. (2023). “Smith predictor–based sliding mode control with hyperbolic tangent function for unstable processes,” Transactions of the Institute of Measurement and Control (Q2).

Ajmeri, M. (2022). “Analytical design of enhanced PID controller with set-point filter for unstable processes with time delay,” International Journal of Dynamics and Control (Q2).

Ajmeri, M., & Ali, A. (2017). “Analytical design of modified Smith predictor for unstable second-order processes with time delay,” International Journal of Systems Science (Q1).

Ajmeri, M., & Ali, A. (2015). “Two degree of freedom control scheme for unstable processes with small time delay,” ISA Transactions (Q1).

Ajmeri, M., & Ali, A. (2013). “Direct synthesis based tuning of the parallel control structure for integrating processes,” International Journal of Systems Science (Q1).

These publications have not only been cited by numerous international researchers but have also inspired new studies in both academic and industrial circles, attesting to their significant scholarly impact.

Conclusion

Dr. Moina Ajmeri’s research work exemplifies academic excellence, innovation, and societal relevance. Her consistent contributions to the field of advanced control systems and renewable energy technologies have set a high benchmark for scientific research. The nominated article reflects both technical brilliance and real-world applicability, making her an ideal candidate for the Research for Best Research Article Award. Dr. Ajmeri’s dedication to pushing the boundaries of engineering knowledge and her impactful publications make her deserving of this prestigious recognition.

Jianwu Zhou | Materials Science and Engineering | Best Researcher Award

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Assoc. Prof. Dr. Jianwu Zhou | Materials Science and Engineering | Best Researcher Award

Associate. Professor at Nanjing University of Aeronautics and Astronautics, China

Dr. Jianwu Zhou is a dedicated scholar and emerging expert in the field of composite material mechanics, specializing in the study of impact dynamics and interlaminar strengthening of composite laminates. Throughout his academic and professional journey, Dr. Zhou has continuously demonstrated an exceptional aptitude for tackling complex problems in material engineering, especially in the realm of low-velocity and high-velocity impact behaviors. His research endeavors focus on understanding how composite structures behave under various impact conditions and how damage influences their residual performance. Known for his analytical mindset and practical contributions to the field, Dr. Zhou actively bridges the gap between theoretical modeling and applied engineering solutions, particularly in developing techniques for real-time health monitoring of composite materials. His collaborative spirit, innovative methodology, and consistent academic output have made him a respected figure among his peers in aeronautical and mechanical engineering communities.

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Education

Dr. Jianwu Zhou embarked on his academic pursuit of engineering excellence with a firm commitment to the study of composite materials. He earned his Doctor of Philosophy (Ph.D.) degree with a specialization in impact dynamics and the mechanical performance of composite structures. His doctoral research laid the groundwork for his future investigations into the behavior of composite materials under both high and low-velocity impacts, as well as the development of strategies to enhance their damage tolerance through advanced interlaminar reinforcement techniques, such as Z-pin technology. Dr. Zhou’s educational background combines strong theoretical knowledge with hands-on experimental research, which has shaped his comprehensive understanding of composite material science.

Experience

Dr. Zhou’s professional journey exemplifies both academic dedication and real-world application. He began his postdoctoral research at the School of Aeronautics, Northwestern Polytechnical University in April 2023, where he worked until April 2025. During this period, he expanded his research on impact damage, health monitoring systems, and the residual strength of advanced composite structures. Following his postdoctoral training, Dr. Zhou assumed the role of Associate Professor at the College of Energy and Power Engineering, Nanjing University of Aeronautics and Astronautics in April 2025. His academic appointments reflect a rapid trajectory of career advancement, highlighting his capability to produce impactful research and mentor future engineers and scholars in the field of composite materials.

Research Interest

Dr. Jianwu Zhou’s research interests lie at the heart of modern composite material engineering, with a primary focus on understanding and improving the impact resistance and post-impact performance of composite laminates. His work emphasizes the study of mechanical behaviors under both low-velocity and high-velocity impacts, the integration of Z-pin reinforcement to bolster interlaminar strength, and the development of experimental and modeling techniques to predict failure mechanisms. Furthermore, Dr. Zhou is deeply invested in the application of on-line health monitoring systems for composite materials, aiming to ensure the safety and longevity of aerospace structures. His investigations not only contribute to fundamental material science but also hold critical importance for practical engineering applications in aviation and defense industries.

Award

Dr. Jianwu Zhou’s exemplary research achievements and scholarly contributions have positioned him as a strong candidate for professional recognition and academic awards. His work on the dynamics of composite structures and interlaminar reinforcement using Z-pin technologies has attracted considerable attention within the academic community. His publications in top-tier journals, experimental research innovations, and collaborative efforts with leading aerospace universities underscore his dedication to advancing the field of material science. With his demonstrated expertise, innovation, and academic integrity, Dr. Zhou is a fitting nominee for this prestigious award.

Publication

Dr. Jianwu Zhou has contributed significantly to his field through the following peer-reviewed publications:

Zhou J., Zhang C., Jia L., “A new integrated modeling method for predicting low-velocity impact behavior and residual tensile failure of Z-pinned T-joints,” Composites Science and Technology, 2024, 245, 110316 — cited by multiple follow-up studies on composite joint analysis.

Zhou J., Zhao Z., Shi Y.*, Wang X., Chen X., Shan C., “Hail impact responses and residual tensile properties of CFRP T-joints,” Chinese Journal of Aeronautics, 2023, 36, 430–443 — referenced by aerospace impact assessment papers.

Zhou J., Shi Y.*, Zuo Y., Shan C., Gu Z., “Experimental investigation into influences of Z-pin and deltoid on structural properties and damage tolerance of CFRP T-joints,” Composites Part B: Engineering, 2022, 237, 109875 — cited in structural health monitoring research.

Zhou J., Liao B., Shi Y.*, Ning L., Zuo Y., Jia L., “Experimental investigation of the double impact position effect on the mechanical behavior of low-velocity impact in CFRP laminates,” Composites Part B: Engineering, 2020, 193, 108020 — widely cited for multi-impact damage behavior.

Zhou J., Liao B., Shi Y.*, Zuo Y., Tuo H., Jia L., “Low-velocity impact behavior and residual tensile strength of CFRP laminates,” Composites Part B: Engineering, 2019, 161, 300–313 — frequently referenced for baseline CFRP performance testing.

Conclusion

Dr. Jianwu Zhou’s dedication, innovative thinking, and impressive publication record make him a highly deserving candidate for the Best Researcher Award. His work not only deepens scientific understanding but also offers practical solutions to industry challenges, embodying the true spirit of impactful and forward-looking research. His continued contributions promise to shape the future of material science and engineering, making him an outstanding role model in the academic and research community.

Eleeyah Saniso | Sustainable Development | Innovative Research Award

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Assist. Prof. Dr. Eleeyah Saniso | Sustainable Development | Innovative Research Award

Lecturer/Researcher at Yala Rajabhat University, Thailand

Assistant Professor Dr. Eleeyah Saniso is a dedicated academic and researcher specializing in renewable energy and drying technology at Yala Rajabhat University, Thailand. With an academic foundation rooted in physics and energy technology, Dr. Saniso has steadily established himself as an authority in agricultural product drying systems, renewable energy solutions for rural applications, and sustainable engineering design. His commitment to advancing local energy autonomy and community-based technological development reflects both scientific expertise and deep-rooted social responsibility. Through his career, Dr. Saniso has bridged theoretical research with hands-on applications, especially in renewable energy projects that serve underprivileged communities, showcasing an exceptional blend of innovation and empathy in his professional contributions.

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Education

Dr. Eleeyah Saniso embarked on his academic journey by earning a Bachelor of Education in Science, majoring in Physics, from Thaksin University in 2004. His growing interest in experimental and applied physics led him to complete a Master of Science in Physics from Prince of Songkla University in 2006. He further advanced his research skills and specialized knowledge by pursuing a doctoral degree at King Mongkut’s University of Technology Thonburi (KMUTT), where he was awarded a Ph.D. in Energy Technology in 2019. This strong academic pathway has equipped Dr. Saniso with a broad yet deep understanding of both the theoretical and practical aspects of energy science, especially in the context of renewable energy and agricultural innovations.

Experience

Dr. Saniso began his professional career as a scientist in physics at the Faculty of Science Technology and Agriculture, Yala Rajabhat University in 2007. A year later, he transitioned into an academic role as a lecturer in the Physics Program, a position he has held since 2008. His commitment to renewable energy solutions prompted his appointment as a lecturer in the Renewable Energy Technology Program in 2018, a role that aligns perfectly with his research endeavors. Throughout his career, Dr. Saniso has played an essential role in curriculum development, research mentorship, and the implementation of community-focused renewable energy projects, all while fostering practical collaboration between students and real-world industry challenges.

Research Interests

Dr. Saniso’s research is highly interdisciplinary, with strong roots in engineering and applied science. His primary focus lies in drying technology and the study of physical properties of agricultural products to optimize drying processes. His interests extend into the exploration of pico-hydropower and pico-wind energy systems, especially for rural and off-grid communities. Moreover, Dr. Saniso is devoted to developing sustainable energy solutions using biomass, agricultural residues, and municipal solid waste, aligning his work with the global call for renewable and circular economy practices.

Awards

Dr. Saniso’s commitment and ingenuity have earned him various research grants from institutions like the Thailand Science Research and Innovation (TSRI) and Yala Rajabhat University. Notably, his project on the development of efficient drying systems for local farmers and renewable energy solutions for rural communities has been recognized as model work for local technology transfer. His nomination for this award underscores not only his academic contributions but also his impactful community engagement, demonstrating how scientific research can directly benefit society.

Selected Publications

Dr. Saniso’s work has appeared in reputable international journals and conference proceedings. His research has been well-cited by peers in both the renewable energy and agricultural engineering communities. Some of his selected publications include:

Saniso, E., et al. (2025). “Enhancement of Dried Salted Four-Finger Threadfin Using Indirect Solar Dryer.” Results in Engineering. (In press).

Saniso, E., et al. (2025). “Garcinia Drying Using Mixed-Mode Solar Dryer Technique.” Case Studies in Thermal Engineering, 66, 105711.

Saniso, E., Seni, L., Handayanto, S.K. (2024). “Experimental Investigation of Paddy Drying by Combined Infrared-Hot Air Fluidised Bed.” American Journal of Engineering Research, 13(9), 17-23.

Suwasono, P., Munthe, H., Saniso, E. (2024). “Minimize Student Misconceptions About Newton’s Third Law.” AIP Conf. Proc., 3106, 060006.

Techo, J., et al., Saniso, E. (2024). “Enhanced Solar Photovoltaic Power Production for EV Charging.” Nature Environment and Pollution Technology, 23(1), 215-223.

Saniso, E., Hayibaka, M. (2022). “Computational Fluid Dynamics Simulation of a Solar Agricultural Dryer.” International Journal of Mechanical Engineering, 7(2): 1230-1237.

Saniso, E., et al. (2019). “Parboiled Rice Production Without Steaming Using Microwave-assisted Hot Air Fluidized Bed.” Food and Bioproducts Processing, 120: 8-20.

Each publication has contributed to the growing body of knowledge on sustainable drying techniques and energy-efficient processing, with multiple works cited in global journals and conferences, attesting to the relevance and impact of his studies.

Conclusion

Assistant Professor Dr. Eleeyah Saniso exemplifies the qualities that the Research for Innovative Research Award seeks to honor. His remarkable track record of pioneering research, commitment to real-world applications, and dedication to the academic and local communities reflect his profound impact on the field of renewable energy and sustainable development. Dr. Saniso’s innovative mindset and enduring scientific contributions make him a truly deserving candidate for this prestigious recognition.