Dr. Tetiana Melnychenko | Materials Science | Best Researcher Award

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Dr. Tetiana Melnychenko | Materials Science | Best Researcher Award

Dr. Tetiana Melnychenko is a senior staff scientist at the Department of Vapour-Phase Technologies of Inorganic Materials at the E.O. Paton Electric Welding Institute, National Academy of Sciences of Ukraine. Her work specializes in advanced materials science, particularly the development of multilayer and high-entropy alloys using electron beam physical vapor deposition (EBPVD). With a deep foundation in metallurgy and a long-standing academic presence, Dr. Melnychenko has contributed significantly to structural materials research and diffusion bonding technologies, establishing herself as a leading figure in vapor-phase technologies.

Dr. Tetiana Melnychenko | E.O. Paton Electric Welding Institute NASU | Ukraine

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Education

Dr. Melnychenko earned her foundational degree in the physics of metals from Kiev Polytechnic Institute. She completed her Ph.D. with a focus on phase equilibria and structural formation in complex alloy systems and later attained a Doctor of Science (Dr.Sc.) degree in materials science, where her thesis focused on the structure and properties of condensed metal nanomaterials fabricated by electron beam evaporation. Her academic training is solidly anchored in materials physics and engineering with special emphasis on nanostructured alloys and vacuum deposition methods.

Experience

Dr. Melnychenko has over three decades of professional research experience. She began her scientific career at the Institute for Metal Physics and later advanced through various research roles at the E.O. Paton Electric Welding Institute. She has been instrumental in developing vapor-phase technologies and currently serves as a leading researcher. Her collaborative roles have also extended to international electron beam technology centers, indicating a strong presence in both national and international materials science communities.

Contribution

Dr. Tetiana Melnychenko has co-invented a method for producing encapsulated nanopowders along with the design of an installation to implement this process. The invention addresses the challenges of nanoparticle stability, reactivity, and safe handling by enclosing them in protective shells. This technique enhances the functional properties of nanomaterials and ensures better control during their integration into composite systems. The encapsulation method allows for improved performance in various industrial applications, including electronics, coatings, and energy storage materials. Her contribution to this patent highlights her innovative role in advancing nanotechnology and materials engineering through practical, scalable solutions.

Research Focus 

Dr. Melnychenko’s research is centered on vapor-phase deposition technologies, particularly the use of electron beam evaporation for producing nanostructured films and multilayered materials. She investigates diffusion bonding mechanisms, the formation and behavior of high-entropy alloys, and the mechanical behavior of multilayer foils under heat and load. Her studies provide valuable insights into material interfaces, joining techniques, and the enhancement of mechanical properties through tailored microstructures. She also holds a U.S. patent related to nanopowder encapsulation technologies.

Publications

Effect of Plastic Deformation of Ti/Ni Multilayer Foil with Eutectic Composition on the Formation of Ti6Al4V Alloy Vacuum Diffusion Bonded Joints
Authors: T. Melnychenko, A. Ustinov, S. Demchenkov, O. Samofalov
Journal: Vacuum, Article 114603, 2025

Diffusion Bonding of Ti6-4 Alloy Through Multilayer Interlayers of an Eutectic Composition Based on Ti–Cu System
Authors: T.V. Melnychenko, A.I. Ustinov, O.Y. Klepko, O.V. Samofalov
Journal: The Paton Welding Journal, Pages 3–9, 2025

The Paton Welding Journal 2025 № 01
Authors: T.V. Melnychenko, A.I. Ustinov, O.Y. Klepko, O.V. Samofalov
Journal: Paton Welding Journal 1 (01), Pages 3–9, 2025

Origin of the Formation of Isostructural bcc-Fe + bcc-Cu Nanocomposites in Fe–Cu Alloy via Vacuum Co-deposition
Authors: A.I. Ustinov, L.O. Olikhovska, S.O. Demchenkov, V.S. Skorodzievskii, …
Journal: AIP Advances 15 (1), 2025

Phase and Structural Transformations During Heating of Multilayer Ti/Cu Foils of Eutectic Composition Obtained by the EBPVD Method
Authors: S.O. Demchenkov, T.V. Melnychenko, A.I. Ustinov, O.E. Rudenko, …
Journal: The Paton Welding Journal, Pages 12–19, 2024

The Paton Welding Journal 2024 № 09
Authors: S.O. Demchenkov, T.V. Melnychenko, A.I. Ustinov, O.E. Rudenko, …
Journal: Paton Welding Journal, Issue 03, 2024

The Paton Welding Journal 2022 № 11
Authors: A.I. Ustinov, S.O. Demchenkov, T.V. Melnychenko, O.Y. Klepko
Journal: Paton Welding Journal 11 (11), Pages 39–44, 2022

Conclusion

Dr. Tetiana Melnychenko is a well-qualified candidate for the Best Researcher Award, with an extensive and sustained track record in advanced materials processing and nanostructured systems. Her scientific rigor, innovation in vapor-phase technologies, and contribution to high-entropy alloy research establish her as a leading expert in her field. With increased international collaboration and commercialization efforts, her already substantial impact could become even more globally recognized.

Dr. Enze Chen | Soft Materials | Best Researcher Award

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Dr. Enze Chen | Soft Materials | Best Researcher Award

Dr. Enze Chen is a postdoctoral researcher in the Franck Lab at the University of Wisconsin–Madison, where he explores high-strain-rate injury mechanisms in biological tissues. He earned his Ph.D. in Civil Engineering from Johns Hopkins University, where he specialized in architected and soft materials, combining digital design, additive manufacturing, and mechanical testing. His interdisciplinary research spans civil engineering, material science, and biomedical applications. His scholarly work has been published in high-impact journals such as Science Advances, IJSS, and Mechanics of Materials, establishing him as an emerging expert at the interface of materials mechanics and biology.

Dr. Enze Chen | University of Wisconsin-Madison | United States

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Education

Dr. Chen completed his Ph.D. and M.S. in Civil Engineering at Johns Hopkins University, following a B.S. from Nanjing Forestry University in China. His academic path has been marked by deep engagement in experimental mechanics, digital fabrication, and biomaterials research. During his doctoral studies, he worked under Prof. Stavros Gaitanaros and developed several new insights into the mechanics of brittle lattices, DNA nanostructures, and soft architected materials. He now applies this strong theoretical and experimental background to bioengineering challenges in his postdoctoral work.

Experience

Dr. Chen has extensive experience in the experimental and computational study of advanced materials. As a graduate researcher, he pioneered mechanical studies on brittle lattices and cellular foams using additive manufacturing and tomography. His work also included collaborative research on collagen scaffolds at Cornell University. At the University of Wisconsin–Madison, he now investigates trauma-induced injury mechanics in brain tissue, including responses to blast waves and directed energy. He is a key contributor to the interdisciplinary PANTHER program and actively collaborates across institutions, positioning himself at the forefront of materials-for-health research.

Contributions

Dr. Enze Chen’s research significantly advances the understanding of both architected and biological materials. He developed models to predict buckling behaviors in elastic tubular structures and correlated collagen scaffold microstructures with their mechanical deformation, aiding in biomedical scaffold design. He quantified the fracture toughness of brittle lattices and introduced a crystallography-inspired framework for designing 3D metamaterials with tunable mechanical, thermal, and permeability traits. In the biomedical domain, he identified mechanisms of secondary brain injury (like tauopathy and neuroinflammation) and created microsecond-micrometer platforms to measure tissue responses to blast and directed energy.

Award

Dr. Enze Chen received the prestigious Hickman Fellowship from Johns Hopkins University in recognition of his exceptional academic performance and research excellence during his graduate studies. This competitive fellowship is awarded to outstanding students who demonstrate strong potential for impactful contributions in their field. Dr. Chen’s selection reflects his pioneering work in the mechanics of architected and biological materials, including fracture analysis of brittle lattices and soft tissue deformation under high strain rates. The fellowship supported his continued exploration of interdisciplinary challenges in materials science, further affirming his capabilities as a high-achieving and dedicated researcher.

Research Focus 

Dr. Chen’s research bridges structural mechanics and biomedical engineering. His work focuses on architected materials, particularly brittle lattices, DNA nanostructures, and soft biological scaffolds. He has contributed new knowledge in fracture mechanics, energy absorption, and material instabilities. His postdoctoral research applies these concepts to brain injury modeling under high-strain-rate conditions, including blast exposure and directed energy effects. This work has important implications for defense, neuroscience, and medical innovation.

Publications

A Data-Driven Framework for Structure-Property Correlation in Ordered and Disordered Cellular Metamaterials
Authors: S. Luan, E. Chen, J. John, S. Gaitanaros
Journal: Science Advances, 2023, Vol. 9(41), eadi1453

On the Compressive Strength of Brittle Lattice Metamaterials
Authors: E. Chen, S. Luan, S. Gaitanaros
Journal: International Journal of Solids and Structures, 2022, Vol. 257, 111871

On the Strength of Brittle Foams with Uniform and Gradient Densities
Authors: E. Chen, S. Luan, S. Gaitanaros
Journal: Extreme Mechanics Letters, 2022, Vol. 51, 101598

Stretching DNA Origami: Effect of Nicks and Holliday Junctions on the Axial Stiffness
Authors: W.H. Jung, E. Chen, R. Veneziano, S. Gaitanaros, Y. Chen
Journal: Nucleic Acids Research, 2020, Vol. 48(21), 12407–12414

Stability of an Elastic Honeycomb Under Out-of-Plane Compression
Authors: Y. Tang, E. Chen, S. Gaitanaros
Journal: International Journal of Solids and Structures, 2025

Conclusion

Dr. Enze Chen is a highly qualified and deserving candidate for the Best Researcher Award. His interdisciplinary research, scientific rigor, and active collaborations reflect a mature and innovative approach to solving complex problems in material and biomedical sciences. With further expansion into innovation ecosystems and research leadership, Dr. Chen is on a clear path to becoming a leading figure in his field.

Mr. Dae Hyeob Yoon | Materials Science | Best Researcher Award

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Mr. Dae Hyeob Yoon | Materials Science | Best Researcher Award

Mr. Dae Hyeob Yoon is currently an undergraduate researcher in Mechanical Engineering at Chungbuk National University (CBNU), South Korea. His research interests lie in micro/nanotechnology, sensors, and MEMS. Despite being at an early stage in his academic career, he has already contributed to a peer-reviewed publication in Applied Sciences and participated in nationally recognized research programs. His early engagement in advanced materials research and active academic presentation record demonstrate a deep commitment to scientific inquiry.

Mr. Dae Hyeob Yoon | Chungbuk National University (CBNU) | South Korea

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Mr. Yoon is pursuing a Bachelor of Science in Mechanical Engineering at CBNU. Alongside his coursework, he has been actively involved in undergraduate research initiatives, including the Undergraduate Research Opportunities Program (UROP). His academic training has allowed him to integrate theoretical knowledge with experimental design and fabrication techniques related to flexible electronics and nanomaterials.

Research Experience 

As an undergraduate, Mr. Yoon has contributed to one completed research project involving the development of a flexible and conductive heating membrane. He has presented his work at the Korean Society of Mechanical Engineers (KSME) and will present at the EKC conference in Austria. His publication demonstrates competency in research design, experimental methodology, and technical writing, marking significant early-career achievements.

Contributions

Mr. Dae Hyeob Yoon’s research is focused on developing flexible heating technologies for use in wearable electronics and smart textiles. His current work involves creating a scalable, low-voltage, and mechanically stable heating platform using advanced materials and fabrication techniques. This research addresses major limitations in existing flexible heaters, such as fragility and high energy demands. The technology he is advancing has significant potential for integration into next-generation wearable devices, enabling personalized and adaptive applications in health, fitness, and smart clothing systems. His innovative approach contributes meaningfully to the field of flexible, functional electronics.

Research Focus 

Mr. Yoon’s primary research focus is on the application of micro and nanotechnology to develop scalable and efficient platforms for wearable and flexible electronics. His current work addresses key challenges in mechanical stability and power efficiency, contributing to emerging markets in personalized technology and smart textiles. His interdisciplinary interest bridges mechanical engineering with material science and electronics.

Publication

Development of a Flexible and Conductive Heating Membrane via BSA-Assisted Electroless Plating on Electrospun PVDF-HFP Nanofibers

Author: Dae Hyeob Yoon

Conclusion

Mr. Dae Hyeob Yoon is a motivated and talented early-stage researcher whose contribution to nanofiber-based heating technologies is noteworthy. His research potential is clear, and with continued academic development and broader engagement in scientific activities, he has the capacity to evolve into a strong candidate for high-level research awards. At this time, he would be better suited for young researcher or emerging researcher recognition, while continuing to build toward Best Researcher status in the future.

Prof. Wei Liu | Composite Materials | Best Researcher Award

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Prof. Wei Liu | Composite Materials | Best Researcher Award

Prof. Wei Liu is an associate professor and postdoctoral researcher at the School of Mechanical and Electrical Engineering, Northeast Forestry University. Recognized as a “Yellow Sea Pearl” Talent of Jiangsu Province and an Outstanding Young Scholar at his university, he has established himself as a leader in mechanical and electrical systems research. His academic presence is defined by a balanced combination of research excellence, project leadership, and teaching contributions.

Prof. Wei Liu | Northeast Forestry University | China

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Education

Prof. Wei Liu’s academic foundation includes postdoctoral research and academic appointments at Northeast Forestry University. Although specific degree-level details are limited in the provided file, his elevation to associate professorship and recognition as a high-potential academic in Jiangsu and Heilongjiang Provinces confirm a consistent and credible academic path. His research and teaching span core mechanical and electrical engineering disciplines.

Experience

Prof. Liu has led a wide range of research and development projects, including major science and technology initiatives funded by Heilongjiang Province, central university grants, and strategic national university programs. He has also managed multiple horizontal research projects, showing his capability in both fundamental and application-driven research domains. In addition to academic research, his role as an educator highlights his commitment to developing future scholars and engineers.

Project Leadership

Prof. Liu has served as principal investigator on several major funded research initiatives. These include leading roles in major science and technology projects in Heilongjiang Province, central university fundamental research grants, and the “Double First-Class” university development fund. He has also overseen multiple horizontal research collaborations, indicating strong engagement with industry and applied research challenges. His leadership in diverse funding streams highlights his adaptability and impact in multiple engineering domains.

Contributions

Prof. Liu has published nearly 20 SCI-indexed journal papers, reflecting solid engagement in internationally peer-reviewed research. In addition to journal articles, he has authored or contributed to multiple textbooks, reinforcing his dual role as both researcher and educator. His publications contribute to knowledge development in mechanical and electrical engineering, and his scholarly output supports both student learning and the advancement of applied technologies.

Research Focus

Prof. Liu’s work is positioned at the intersection of mechanical and electrical engineering, a field critical to industrial innovation and automation. Although the document does not detail his specific areas of research, his leadership in major provincial science and technology projects and his extensive publication record imply a focus on applied engineering solutions with both academic and industrial relevance.

Publications

Prediction of the Radial Natural Characteristic of Sandwich Spherical Shell Based on Wave Propagation
Journal: Journal of Vibration Engineering and Technologies, 2024

Radial Vibration Analysis of Single and Composite Spherical Shells by Wave Approach
Journal: JVC – Journal of Vibration and Control, 2024

Speed Control of Sensorless PMSM Drive Based on EKF Optimized by Variable Scale Chaotic Particle Swarm Optimization
Journal: Measurement and Control (United Kingdom), 2024 – Open Access

Prof. Dr. Turgay Cakmak | Biomaterials | Best Researcher Award

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Prof. Dr. Turgay Cakmak | Biomaterials | Best Researcher Award

Professor Turgay Cakmak is a leading expert in plant molecular biology and microalgal biotechnology. He currently serves at Istanbul Medeniyet University, where he has held faculty roles. His research focuses on cellular redox regulation, alternative oxidase pathways, and the biotechnological potential of stress-adapted microalgae. With international research experience in Sweden and the USA, he has led multiple nationally funded projects and supervised numerous graduate theses. His work bridges fundamental science and applied innovation in sustainable bioenergy, environmental resilience, and molecular plant responses.

Prof. Dr. Turgay Cakmak | Istanbul Medeniyet University | Turkey

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Education 

Professor Turgay Cakmak holds a Doctor of Philosophy in Biology from Atatürk University. His doctoral research included collaborative experimental work carried out at two internationally recognized institutions: Lund University in Sweden and California State University San Marcos in the United States. His thesis, titled niversity, where he investigated the impacts of electrical field application on the cold resistance of selected plant species. His acade Plant Respiratory Chain: Regulation of Cellular Redox by Inorganic Nitrogen Sources and Redox Responses of Alternative Oxidase, was supervised by Professor Rahmi Dumlupinar. He also holds a Master of Science degree in Biology, completed in December at Atatürk Umic journey began with a Bachelor of Science in Biology at the same university.

Experience

Professor Turgay Cakmak has over two decades of academic and research experience in molecular biology and genetics. He currently serves as a professor at Istanbul Medeniyet University, where he has held academic positions including assistant and associate professorships. His postdoctoral research was conducted at Bilkent University’s National Nanotechnology Research Center. He also gained international research experience as a research assistant at Lund University in Sweden and California State University San Marcos in the United States. Earlier in his career, he served as a research assistant at Atatürk University, contributing to numerous national and international projects in plant physiology, redox biology, and microalgal biotechnology.

Awards and Recognitions

Throughout his academic journey, Professor Cakmak has earned multiple honors and competitive research fellowships. These include a postdoctoral research scholarship awarded for work on anatomical and biochemical responses of Arabidopsis thaliana to various nitrogen sources. He was selected for the Erasmus Mobility Grant, which enabled a short research visit to the University of Napoli Federico II in Italy. His poster presentation was awarded the Best Poster Prize at the International VII Molecular Biology and Genetics Winter School. Additionally, he received support from TÜBİTAK for participation in the European Molecular Biology Laboratory PhD Symposium in Heidelberg, Germany. His time at California State University San Marcos was supported by a prestigious NIH-funded research scholarship.

Contributions 

Professor Turgay Cakmak has made impactful contributions to plant molecular biology, microalgal biotechnology, and redox signaling. His work has expanded scientific understanding of how stress conditions influence metabolic pathways in plants and microalgae, particularly focusing on antioxidant mechanisms, alternative oxidase responses, and sustainable bioresource development. He has led and collaborated on numerous national and international research projects, mentored graduate students, and published widely in high-impact journals. His innovative studies on algae-based biofuels, natural pigments, and functional bioproducts highlight his commitment to integrating molecular biology with real-world applications in health, energy, and the environment.

Research Projects

Professor Turgay Cakmak has led and contributed to a wide array of interdisciplinary research projects focused on plant physiology, microalgal biotechnology, and cellular redox regulation. He served as Principal Investigator (PI) and researcher in projects funded by prominent institutions such, the Republic of Türkiye Ministry of Agriculture and Forestry, and Istanbul Medeniyet University Research Fund. His projects include the establishment of a microalgae culture collection, investigations into antioxidant properties and carotenoid biosynthesis in microalgae under stress conditions, and the biotechnological evaluation of algae from volcanic crater lakes. He has also led studies on biodiesel feedstock production from microalgae, cryopreservation techniques, and the role of nitrogen sources in cellular redox responses in plants. These projects highlight his leadership in integrating molecular biology with applied biotechnology and environmental sustainability.

Research Focus 

Professor Cakmak’s research is primarily centered on understanding the molecular mechanisms of redox regulation in plants, with special attention to the role of inorganic nitrogen sources and alternative oxidase activity. His work has extended to exploring the physiological and biochemical adaptations of plants and microalgae under stress conditions. Notably, his research interests have expanded into algal biotechnology and biofuel development, focusing on the biotechnological potential of microalgae under various environmental stresses. He has contributed significantly to knowledge on microalgal biodiesel production, stress biology, and redox signaling pathways, establishing himself as a recognized scholar in both plant molecular biology and environmental biotechnology.

Publications

Mycosporine-like amino acids in microalgae and cyanobacteria: Biosynthesis, diversity, and applications in biotechnology

Authors: Görünmek M., Ballık B., Cakmak Z.E., Cakmak T.
Journal: Algal Research.

Long-term diazotrophic cultivation of Trichormus sp. IMU26: Evaluation of physiological changes related to elevated phycobiliprotein content
Authors: Haddad M.F., Dayioglu T., Yaman M., Nalbantoglu B., Cakmak T.
Journal: Journal of Applied Phycology.

Study of the Ability of Lutein and Neoxanthin as Standards and in the Extract of Chlamydomonas reinhardtii to Prevent Oxidatively Induced DNA Base Damage Using Ultrasensitive GC–MS/MS Analysis
Authors: Şahin S., Aybastıer Ö., Dawbaa S., Karkar B., Cakmak T.
Journal: Chromatographia.

Antioxidant composite films with chitosan and carotenoid extract from Chlorella vulgaris: Optimization of ultrasonic-assisted extraction of carotenoids and surface characterization of chitosan films
Authors: Şahin S., Nasir N.T.B.M., Erken I., Cakmak Z.E., Cakmak T.
Journal: Materials Research Express.

Long-term diazotrophic cultivation induces phycobiliprotein production in Anabaena variabilis IMU8
Authors: Haddad M.F., Dayioglu T., Nalbantoğlu B., Cakmak T.
Journal: Biocell.

Dr. Swami Nath Maurya | Thermodynamics of Materials | Best Researcher Award

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Dr. Swami Nath Maurya | Thermodynamics of Materials | Best Researcher Award

Dr. Swami Nath Maurya is a Postdoctoral Researcher at the National Chin-Yi University of Technology (NCUT) in Taiwan, specializing in thermal management and precision manufacturing. He holds a Ph.D. in Precision Manufacturing, a Master’s in Green Energy Technology, and a B.Tech. in Instrumentation and Control Engineering. With 13 SCIE-indexed journal publications and an h-index of 5, Dr. Maurya merges experimental research with AI modeling to optimize energy and material efficiency. His multidisciplinary expertise spans semiconductors, machine tools, and advanced thermal systems.

Dr. Swami Nath Maurya | National Chin-Yi University of Technology | Taiwan

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Education 

Dr. Maurya’s academic journey is marked by a solid foundation in engineering and sustainability. He earned his B.Tech. in Instrumentation and Control Engineering, followed by a Master’s in Green Energy Technology, which underpins his commitment to sustainable development. He then pursued a Ph.D. in Precision Manufacturing, focusing on intelligent process optimization. This academic progression reflects his strong theoretical understanding and applied engineering acumen in the areas of energy efficiency, thermal modeling, and manufacturing systems.

Experience

Dr. Maurya has worked extensively as a postdoctoral researcher, contributing to thermal management in machine tool systems, semiconductor crystal growth (Czochralski process), and graphene-enhanced membranes. He has authored studies on AI-driven optimization, multiobjective cooling, and microfluidic heat sink design. His work is known for solving practical engineering problems with academic rigor, and he collaborates across Taiwan and India. Despite having no current patents or editorial roles, his contributions stand out for their technical depth and industrial relevance.

Contributions 

Dr. Swami Nath Maurya has made significant contributions to thermal management, semiconductor process optimization, and sustainable material engineering. His research includes the Czochralski crystal growth process, graphene-based membranes, and hybrid cooling systems for enhanced energy efficiency and system reliability. His 13 SCIE-indexed publications (h-index: 5) reflect innovation at the intersection of AI, thermal modeling, and advanced manufacturing. From machine tool spindle cooling to microfluidic heat sinks, his work promotes intelligent, eco-conscious engineering practices for future-ready industries.

Research Focus 

Dr. Maurya’s research centers on thermal deformation modeling, energy-efficient systems, and AI-enhanced process optimization. His work targets complex engineering challenges in machine tools, semiconductor manufacturing, and sustainable material processing. He employs finite element methods, Monte Carlo simulations, and neuro-fuzzy inference systems to optimize system efficiency. By bridging artificial intelligence, green energy, and manufacturing, he is contributing to next-generation, eco-conscious industrial solutions.

Publications

Performance and Economic Enhancement of a Dewaxing Casting Process Using a Heat Pump Drying System
Authors: Win-Jet Luo, Amir Reza Ansari Dezfoli, Swami Nath Maurya, Bivas Panigrahi, Pei-Tang Wang
Journal: Case Studies in Thermal Engineering (2025)

Performance Analysis of Energy Recovery Membrane Coated with Graphene Oxide
Authors: Win Jet Luo, Prateek Negi, Swami Nath Maurya, Bivas Panigrahi, Janet Syah Putra Telaumbanua
Journal: Materials Research Express (2025)

Efficient Heat Dissipation with Hybrid Composite-Based Microfluidic Heat Sinks in Flexible Electronics
Authors: Pramod Vishwakarma, Swami Nath Maurya, Win Jet Luo, Bivas Panigrahi
Journal: Journal of Micromechanics and Microengineering (2025)

Optimization of Machine Tool Spindle Cooling for Enhancement of Thermal Prediction Accuracy and Energy Efficiency
Authors: Cheng-Kai Huang, Tsung-Chia Chen, Kun-Ying Li, Yuan-Hong Tsai, Swami Nath Maurya
Journal: International Journal of Precision Engineering and Manufacturing-Green Technology (2025)

Data-Driven Approach for Optimizing the Czochralski Process and Predictive Modeling: A Finite Element and Machine Learning Analysis
Authors: Swami Nath Maurya, Amir Reza Ansari Dezfoli, Li-Shang Lin
Journal: The International Journal of Advanced Manufacturing Technology (2025)

Process Parameter Optimization in Czochralski Growth of Silicon Ingots: A Monte Carlo-Finite Element Coupled Model
Authors: Amir Reza Ansari Dezfoli, Swami Nath Maurya, Zary Adabavazeh, Yi-Jen Huang
Journal: The International Journal of Advanced Manufacturing Technology (2025)

Impact of Top Cooling on Defect Suppression in Large-Scale Silicon Ingot Manufacturing
Authors: Yi-Jen Huang, Swami Nath Maurya, Amir Reza Ansari Dezfoli
Journal: The International Journal of Advanced Manufacturing Technology (2025)

Dr Junyong Hu | Materials Characterization Techniques | Best Researcher Award

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Dr Junyong Hu | Materials Characterization Techniques | Best Researcher Award

Dr. Junyong Hu is a researcher and lecturer at Taiyuan University of Technology, specializing in refrigeration and cryogenic engineering, reverse electrodialysis, and waste heat utilization technologies. He brings together theoretical modeling and experimental systems to create novel solutions in desalination, pollutant removal, and low-grade heat recovery. Through extensive postdoctoral work in collaboration with Taiyuan Boiler Group Co., Ltd., he has driven forward applied research in clean energy systems and environmental remediation.

Dr Junyong Hu | Taiyuan University of Technology | China

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Education

Dr. Hu earned his B.Sc. in Thermal Energy and Power Engineering from Henan University of Science and Technology, followed by M.Sc. and Ph.D. degrees in Refrigeration and Cryogenic Engineering from Dalian University of Technology. His academic path showcases deep engagement with thermodynamic systems and renewable energy applications. His doctoral research laid the foundation for his advanced work in hybrid desalination and power generation systems, emphasizing energy efficiency and sustainability.

Experience

Dr. Hu is currently a lecturer at Taiyuan University of Technology and completed a postdoctoral fellowship at Taiyuan Boiler Group Co., Ltd. His work spans experimental design, industrial R&D, and funded scientific projects focused on reverse electrodialysis, air-gap diffusion distillation, and multi-effect desalination systems. As principal investigator for several national and provincial grants, he has led projects targeting denitrification and advanced thermal systems. His hands-on contributions bridge laboratory innovation and field application.

Contributions

Dr. Junyong Hu has led and participated in multiple high-impact research projects focused on thermal energy recovery and clean energy systems. As Principal Investigator, he directed projects funded by the China Postdoctoral Science Foundation and the Shanxi Basic Research Program for Youth, exploring reverse electrodialysis heat engines and denitrification via flue gas waste heat. He also led an industrial R&D project optimizing air-gap diffusion distillation devices. Additionally, he contributed to a National Key R&D Program targeting clean combustion and flexible power generation from low-calorific-value coal. These projects reflect his leadership in applied energy and environmental technologies.

Research Focus 

Dr. Hu’s research centers on reverse electrodialysis, waste heat-driven power systems, and hybrid desalination. He aims to optimize energy conversion processes and deepen understanding of membrane-based power generation under low-grade thermal conditions. His focus areas such as pollutant removal, mixed working fluids, and energy recovery serve both environmental and industrial goals. This interdisciplinary approach fosters innovation in sustainable energy and clean water technologies.

Conclusion

Dr. Junyong Hu is a technically accomplished and innovative researcher with clear contributions to sustainable energy systems and thermal energy recovery technologies. His record of high-quality publications, funded projects, and patented inventions positions him as  a strong contender for the Best Researcher Award. With increased international collaboration
and research leadership, he is well poised to become a leading figure in energy and environmental engineering.

Publications

Experimental Performance Comparison of Helium-Gap Diffusion Distillation and Air–Gap Diffusion Distillation
Authors: Junyong Hu, Yukun Sun, Jiajie Zhang, Suxia Ma, Xuemao Guo, Jianfei Wang
Journal: Energy Conversion and Management (2022)

Influence of Output Current on Decolorization Efficiency of Azo Dye Wastewater by a Series System with Multi-Stage Reverse Electrodialysis Reactors
Authors: Xu S., Leng Q., Wu X., Xu Z., Hu J., et al.
Journal: Energy Conversion and Management (2021)

Experimental Study on Hydrogen Production with RED Reactor Powered by Concentration Gradient Energy
Authors: Xu S., Liu Z., Wu X., Zhang Y., Hu J., et al.
Journal: CIESC Journal (2020)

Heat and Mass Transfer Evaluation of Air-Gap Diffusion Distillation by ε-NTU Method
Authors: Xu L., Xu S., Wu X., Wang P., Hu J., et al.
Journal: Desalination (2020)

Experimental Investigation on the Performance of Series Control Multi-Stage Reverse Electrodialysis
Authors: Junyong Hu, Shiming Xu, Xi Wu, et al.
Journal: Energy Conversion and Management (2020)

Air-Gap Diffusion Distillation: Theory and Experiment
Authors: Xu S., Xu L., Wu X., Hu J., et al.
Journal: Desalination (2019)

Exergy Analysis for the Multi-Effect Distillation – Reverse Electrodialysis Heat Engine
Authors: Junyong Hu, Shiming Xu, et al.
Journal: Desalination (2019)

Prof. Dr Yue Cao | Nanomaterials | Best Researcher Award

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Prof. Dr Yue Cao | Nanomaterials | Best Researcher Award

Prof. Dr. Yue Cao is an innovative researcher in the field of metasurfaces, metamaterials, and nanophotonics, with active academic roles at Lanzhou Jiaotong University. A Chinese national, she completed her Ph.D. at Southeast University, including a visiting research stint at the National University of Singapore. Her work focuses on encoded metasurfaces, optical imaging, and information encryption, with impressive contributions to high-impact journals. With awards including the Chien-Shiung Wu Memorial Fund for Women Scholars, she represents the next generation of pioneers in photonic material design.

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Education

Prof. Yue Cao holds a Ph.D. from Southeast University and completed an international research exchange as a Ph.D. student at the National University of Singapore. Her academic foundation blends strong theoretical knowledge with cutting-edge experimental techniques. she has been serving as a lecturer at Lanzhou Jiaotong University, where she continues to mentor students and lead research in optical metasurfaces.

Experience

Currently a lecturer at Lanzhou Jiaotong University, Prof. Cao has contributed to the fields of metamaterials and photonic engineering through academic teaching and high-level research. Her cross-disciplinary expertise in nanophotonics, metasurface imaging, and rail transport systems highlights her versatility. She has co-authored multiple impactful papers with international collaborators, including from Singapore, showcasing her experience in global academic partnerships.

Awards

Prof. Dr. Yue Cao has been recognized with several prestigious honors that highlight her excellence in both research and education. She received an Outstanding Teacher Qualification Certification, affirming her dedication to academic leadership and instructional quality. As a standout figure in science, she was also selected for the esteemed Women Scholars Program of the Chien-Shiung Wu Memorial Fund, celebrating her contributions as a woman in advanced research. Additionally, her early promise was acknowledged through an Outstanding Graduate Student Award, marking her academic brilliance and research potential from the outset.

Research Focus

Prof. Cao’s research focuses on optical and acoustic metasurfaces, particularly for imaging, steganography, and information encryption. Her work integrates nanophotonic design, encoded metasurfaces, and programmable light control, contributing to high-resolution, secure data visualization. Beyond fundamental science, she also explores practical uses in railway transportation equipment and nanodevice design, showing a commitment to application-driven research.

Publications

Chiral Grayscale Imaging Based on a Versatile Metasurface of Spin-Selective Manipulation
Authors: Yue Cao, Yi-Fei Sun, Zi-Yang Zhu, Qian-Wen Luo, Bo-Xiong Zhang, Xiao-Wei Sun, Ting Song
Journal: Materials (2025-07-05)

Multiplexing Optical Images for Steganography by Single Metasurfaces
Authors: Yue Cao, Lili Tang, Jiaqi Li, Chengkuo Lee, Zheng‐Gao Dong
Journal: Small (May 2023)

Decoupled Phase Modulation for Circularly Polarized Light via Chiral Metasurfaces
Authors: Renchao Jin, Lin Deng, Lili Tang, Yue Cao, Yongmin Liu, Zheng-Gao Dong
Journal: ACS Photonics (2023-01-18)

Spin-Selected Bifunctional Metasurface for Grayscale Image and Metalens
Authors: Lili Tang, Yue Cao, Weijie Shi, Jin Wang, Jiaqi Li, Zheng-Gao Dong
Journal: Optics Letters (2023-01-15)

Four-Channel Display and Encryption by Near-Field Reflection on Nanoprinting Metasurface
Authors: Yue Cao, Lili Tang, Jiaqi Li, Chengkuo Lee, Zheng-Gao Dong
Journal: Nanophotonics (2022-06-27)

Spin-Decoupled Omnidirectional Anomalous Refraction Based on a Single Metasurface
Authors: Lili Tang, Yue Cao, Renchao Jin, Ying-Hua Wang, Jiaqi Li, Jin Wang, Zheng-Gao Dong
Journal: Applied Physics Letters (2022-04-25)

Grayscale Image for Broadband Linear Polarization Measurement by an Ultracompact Metasurface
Authors: Yue Cao, Lili Tang, Renchao Jin, Jiaqi Li, Jin Wang, Zheng-Gao Dong
Journal: Optics Letters (2021-03-01)

Dr Agustín Romero Vargas | Recycling and Circular Economy in Materials | Best Researcher Award

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Dr Agustín Romero Vargas | Recycling and Circular Economy in Materials | Best Researcher Award

Dr. Agustín Romero Vargas is a Spanish postdoctoral researcher specializing in bioprocess engineering and bioresource valorization. With academic roots at the University of Cádiz, his career spans undergraduate to postdoctoral research in the same institution, driven by prestigious national fellowships. His expertise lies in converting invasive macroalgae into high-value biochemicals like polyhydroxyalkanoates (PHAs) and caproic acid using microbial fermentation techniques. His work is defined by environmental impact mitigation, innovation in sustainable processes, and academic excellence.

Dr Agustín Romero Vargas, Universidad de Cádiz, Spain

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Education

Dr. Romero Vargas completed his B.Sc. and M.Sc. in Biotechnology and later earned a Ph.D. in Agri-Food Resources from the University of Cádiz. His doctoral thesis graded cum laude with international mention focused on PHA production from macroalgae, showcasing his deep understanding of microbial fermentation, enzyme interactions, and advanced analytical techniques. Each academic phase was supported by competitive fellowships, and he consistently maintained high academic performance.

Experience

Professionally, Dr. Romero Vargas has held research roles throughout his academic progression from student collaborator to predoctoral and postdoctoral researcher. He contributed to Spain’s leading national research projects in PHA biosynthesis and chain elongation fermentation using model organisms like Cupriavidus necator and Clostridium kluyveri. His work includes lab-scale bioreactor operations, enzyme hydrolysis modeling, fermentation optimization, and analytics (HPLC, GC, TOC). He also completed international research stays in Greece and Spain to broaden his biotechnological impact.

Contributions

Dr. Agustín Romero Vargas has authored 10 peer-reviewed JCR-indexed articles, with 9 in Q1 journals and 4 in the top decile, alongside 9 conference presentations (national and international). His core focus lies in the valorization of macroalgae biomass notably Rugulopteryx okamurae for producing fermentable sugars and polyhydroxyalkanoates (PHAs). 🚢🧫 His optimized hydrolysate extraction and high-yield microbial fermentation with Cupriavidus necator have achieved performance levels comparable to the best in literature. These outcomes support sustainable biotechnology while addressing the ecological threat posed by invasive marine species.

Research Focus

Dr. Romero’s research explores sustainable biotechnology, particularly microbial valorization of invasive macroalgae into PHAs and short-chain fatty acids like caproic acid via dark fermentation. He employs reverse β-oxidation, enzymatic hydrolysis, and metabolic modeling to optimize yield and minimize environmental footprint. His interdisciplinary work aligns with global green technology priorities and contributes solutions to marine invasive species control. His collaborations span institutions in Spain and Greece, reinforcing the international value of his innovations.

Publications

Polyhydroxyalkanoates Production by Cupriavidus necator Using Dark Fermentation Effluents
Authors: Caro, I.; Romero-Vargas, A.; Huertas, J.
Journal: SSRN (2025)

Innovative Pretreatments for the Valorisation of the Invasive Macroalga Rugulopteryx okamurae
Authors: Romero-Vargas, A.; Georgiadou, E.; Cabrera, G.; Fdez-Güelfo, L.A.; Blandino, A.; Koutinas, A.; Díaz Sánchez, A.B.
Journal: Industrial Crops and Products (2025)

Rugulopteryx okamurae: Effect of Microwave Pretreatment on PHB Fermentation
Authors: Romero-Vargas, A.; Fernández-Medina, P.; Blandino, A.; Álvarez-Gallego, C.J.; Díaz, M.J.
Journal: Industrial Crops and Products (2025)

Bioconversion of the Invasive Seaweed Rugulopteryx okamurae into Enzymes and Polyhydroxyalkanoates
Authors: Romero-Vargas, A.; Cala, K.; Blandino, A.; Díaz, A.B.
Journal: Algal Research (2024)

Ultrasound Pretreatment of Third-Generation Biomass (Invasive Macroalga Rugulopteryx okamurae) to Obtain Platform Biocommodities
Authors: León-Marcos, L.; Fuente-Zapico, E.; Romero-Vargas, A.; Blandino, A.; Romero-García, L.I.
Journal: Journal of Applied Phycology (2024)

Polyhydroxybutyrate Production from the Macroalga Rugulopteryx okamurae: Effect of Hydrothermal Acid Pretreatment
Authors: Romero-Vargas, A.; Fdez-Güelfo, L.A.; Blandino, A.; Díaz, A.B.
Journal: Journal of Marine Science and Engineering (2024)

Ultrasound Pretreatment to Enhance the Enzymatic Hydrolysis of Dictyota dichotoma for Sugars Production
Authors: Romero-Vargas, A.; Muñoz, I.; Marzo, C.; Díaz, A.B.; Romero-García, L.I.; Blandino, A.
Journal: Algal Research (2023)

Mehrdad Esmaeilipour | Sustainability in Material Science | Electronics Advancements Award

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Mr. Mehrdad Esmaeilipour | Sustainability in Material Science | Electronics Advancements Award

Mr. Mehrdad Esmaeilipour is a senior electronics engineer and technology innovator with extensive expertise in green technologies, intelligent systems, and sustainable engineering solutions. He currently serves as the Senior Electronics Engineer at Arya Plasma Gostar Pars Company (Plasma Systems) and CEO of Parsa Pardazesh Bushehr Sanat Company (PPBS Co.). Known for his entrepreneurial spirit and commitment to social impact, Mr. Esmaeilipour has made significant contributions to air and water purification technologies, AI-powered wearable devices, and education in electronics and robotics. His inventions and leadership in both academia and industry have garnered national and international recognition.

Mr. Mehrdad Esmaeilipour, Arya Plasma Gostar Pars, Iran

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Education

Mr. Esmaeilipour holds a degree in Electronics Engineering and has continually advanced his technical expertise through hands-on engineering, innovation, and international collaboration. He has authored multiple technical books and contributed significantly to journals and conferences, demonstrating mastery in control systems, AI integration, and photovoltaic systems.

Experience

Mr. Esmaeilipour has over a decade of professional experience leading complex electronics projects. At Arya Plasma Gostar Pars Company, he has led the development and implementation of cutting-edge air purification and water filtration systems utilizing cold plasma technology. He has also managed smart control systems and sensor-based applications for the environmental and public health sectors. As the founder and CEO of PPBS Co., he has mentored young engineers, provided employment for students, and executed numerous tech infrastructure projects including cybersecurity systems and robotics development. Additionally, he plays a key voluntary role in the Robotics Team at Islamic Azad University, guiding students in sensor integration, PID control, and robotic prototyping.

Achievements

Mr. Mehrdad Esmaeilipour has achieved notable success in developing innovative technologies at the intersection of electronics, artificial intelligence, and environmental engineering. He invented a smart bracelet for the visually impaired, earning national recognition for enhancing assistive mobility using AI and sensor fusion. As the lead developer of cold plasma-based air and water purification systems, he introduced chemical-free sterilization solutions now applied in industrial and public health sectors. He has authored four technical books and published impactful research in control systems, AI-driven motors, and green energy. His work has been recognized by international organizations such as the World Technology Group (Germany) and INT UNIONS, and he has received multiple certifications in cybersecurity, HSE, and solar technologies. As CEO of PPBS Co., he has mentored over 100 students, led over 10 infrastructure projects, and continues to bridge academic innovation with real-world applications, solidifying his reputation as a leading force in sustainable and intelligent engineering.

Contributions 

Mr. Mehrdad Esmaeilipour has made remarkable contributions to the field of electronics and sustainable engineering through his visionary integration of intelligent systems, cold plasma technology, and green innovation. His development of advanced air and water purification systems using cold plasma has provided chemical-free solutions for environmental hygiene, while his AI-powered smart bracelet has improved mobility and safety for visually impaired individuals. Through his leadership at Arya Plasma Gostar Pars and PPBS Co., he has not only pioneered multiple patented technologies but also fostered a culture of innovation and mentorship, training young engineers in robotics, control systems, and applied electronics. His work bridges the gap between theoretical research and real-world application, addressing critical global challenges in health, energy, and accessibility. By blending technical expertise with a deep commitment to social impact, Mr. Esmaeilipour continues to drive forward transformative solutions that contribute to a more sustainable and inclusive technological future.

Research Projects

Mr. Mehrdad Esmaeilipour’s flagship research projects involves the design and development of a smart cold plasma system for wastewater treatment and environmental sterilization. This project combines advanced electronics, embedded AI algorithms, and sustainable energy techniques to offer a chemical-free, energy-efficient solution for industrial and municipal water purification. By integrating intelligent control systems with cold plasma discharge technology, the project achieved significant results in reducing microbial contamination and improving treatment speed, while maintaining low operational costs. The system has been successfully prototyped and tested in collaboration with Arya Plasma Gostar Pars, demonstrating scalable applications in public health, environmental safety, and electronic sterilization. Mr. Esmaeilipour’s leadership in this project reflects his broader mission to fuse innovation with environmental responsibility and real-world impact.

Research Focus

Mr. Mehrdad Esmaeilipour’s research is centered on the development of intelligent, sustainable, and socially impactful engineering systems. His work integrates artificial intelligence, control systems, and embedded electronics to design innovative solutions for pressing global challenges. Key focus areas include cold plasma technology for water and air purification, AI-assisted smart wearables for health and accessibility, and photovoltaic energy systems for sustainable power generation. He is also deeply engaged in robotics engineering, specializing in PID and fuzzy logic control for autonomous systems. His interdisciplinary approach blends hardware and software innovation, with applications in public health, environmental protection, and smart infrastructure. Mr. Esmaeilipour’s research bridges theory and practice, aiming to create technologies that are not only efficient and scalable but also affordable and inclusive for broader societal benefit.

Publications

Design, Construction and Performance Comparison of Fuzzy Logic Controller and PID Controller for Two-Wheel Balance Robot
Authors: M. Esmaeilipour, M.H. Zalzar

The Utilization of Artificial Intelligence Technologies in the Domain of Electronic Data Engineering
Author: M.H.Z. Mehrdad Esmaeilipour

Advances and Challenges in Lithium-Ion Battery Technology
Author: M. Esmaeilipour

Design of an Optimal Proportional-Integral-Derivative Controller Utilizing AI Techniques for Brushless Direct Current Motor with Phase Shift
Author: M. Esmaeilipour

Advancements in Cold Plasma Technology for Electronic and Surface Sterilization Applications
Author: M. Esmaeilipour