Weina Zhang | Environmental | Best Researcher Award

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Assoc. Prof. Dr. Weina Zhang | Environmental | Best Researcher Award

Associate Professor at Guangdong University of Technology | China

Assoc. Prof. Dr. Weina Zhang is a distinguished environmental scientist specializing in the transformation mechanisms of atmospheric pollutants, formation and growth of fine particulate matter, and the climate effects of aerosols. She serves as an Associate Professor at the School of Environmental Science and Engineering, Guangdong University of Technology, under the prestigious “Hundred Talents Program A”. A core member of the Institute of Environmental Health and Pollution Control, she has made impactful contributions through both theoretical modeling and experimental investigations. Dr. Zhang’s research bridges chemistry, environmental science, and climate studies, with publications in leading journals such as Journal of the American Chemical Society, Environmental Science: Nano, Atmospheric Chemistry and Physics, and Science of the Total Environment. She has successfully led multiple national, provincial, and municipal research projects, and contributed to high-profile programs such as the Guangdong “Pearl River Talent Program.” Recognized for her outstanding academic achievements, she has received prestigious group awards including the Guangdong Province May 1st Labor Award and the Guangdong Youth May 4th Medal. Dedicated to nurturing young scientists, she integrates her research expertise into teaching and mentoring, inspiring students from diverse backgrounds to advance the frontiers of environmental science and atmospheric chemistry.

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Education

Dr. Weina Zhang’s academic journey reflects a strong foundation in engineering and environmental sciences, underpinned by rigorous research training. She obtained her Bachelor of Engineering degree from the China University of Geosciences (Beijing), where she specialized in exploration technology and engineering. Her undergraduate studies provided her with a robust understanding of geological processes, environmental monitoring, and engineering methodologies. She then pursued advanced research at the University of Chinese Academy of Sciences, conducting her doctoral work at the Wuhan Institute of Rock and Soil Mechanics. There, she focused on geotechnical mechanics and engineering safety, gaining expertise in both experimental analysis and computational modeling. Her doctoral research laid the groundwork for her later interdisciplinary work that combines chemistry, physics, and environmental engineering. Through this academic progression, Dr. Zhang developed a rare skill set that bridges multiple disciplines, enabling her to address complex environmental challenges at molecular, local, and global scales. Her education not only equipped her with advanced technical skills but also fostered her capacity to lead multidisciplinary research, integrating theoretical simulations with real-world environmental problem-solving approaches in atmospheric pollution and climate effect studies.

Professional Experience

Dr. Weina Zhang has established herself as a leading researcher and educator in atmospheric environmental science. She currently holds the position of Associate Professor at the School of Environmental Science and Engineering, Guangdong University of Technology, where she plays a central role in advancing both research and teaching in the field. She is affiliated with the Institute of Environmental Health and Pollution Control, contributing as a core member to pioneering studies on emerging pollutants and their environmental health implications. Prior to her current role, she undertook postdoctoral research at the same institution, working on projects that integrated computational chemistry with environmental monitoring to understand the transformation and health impacts of atmospheric pollutants. Her professional portfolio includes leadership in multiple national, provincial, and municipal research projects, as well as key participation in large-scale programs such as the National Key R&D Program of China. She collaborates extensively with interdisciplinary teams, applying theoretical simulations to practical environmental challenges. Her professional contributions extend to mentoring graduate students, designing specialized courses, and engaging in international research collaborations, reflecting her commitment to advancing environmental science while nurturing the next generation of scientists and engineers.

Research Interest

Dr. Zhang’s research is driven by the goal of understanding and mitigating atmospheric pollution through a combination of theoretical, computational, and experimental approaches. Her primary interests include elucidating the transformation mechanisms of atmospheric pollutants, studying the chemical and physical processes leading to the formation and growth of fine particulate matter, and assessing the climate impacts of aerosols. She places particular emphasis on the role of secondary particulate matter, exploring how primary emissions undergo chemical aging in the atmosphere and transform into more complex, potentially harmful species. Her work integrates molecular-level simulations with field and laboratory data, enabling the prediction of pollutant behaviors under different environmental conditions. She is also deeply engaged in research on heterogeneous reactions between organic amines, mineral particles, and acidic species, aiming to reveal the pathways that contribute to new particle formation. Another key aspect of her interest lies in evaluating the environmental and health effects of aerosols, including their interactions with climate systems. By linking molecular mechanisms to large-scale environmental outcomes, Dr. Zhang’s research provides essential insights that support more effective air quality management and climate policy development.

Research Skills

Dr. Weina Zhang possesses a diverse set of research skills that enable her to address complex atmospheric and environmental challenges with precision and depth. She is proficient in theoretical simulations and computational chemistry techniques, which she applies to model reaction mechanisms at the molecular level. Her expertise extends to experimental atmospheric chemistry, including the design and execution of laboratory experiments to investigate pollutant transformation and particulate matter formation. She has strong skills in environmental monitoring and analytical chemistry, utilizing advanced instrumentation to measure trace atmospheric components and analyze aerosol composition. Dr. Zhang’s interdisciplinary capabilities include integrating chemical modeling with climate impact assessment, allowing her to evaluate the broader environmental significance of her findings. She is adept at leading multi-institutional research collaborations, coordinating projects that involve scientists from fields such as chemistry, materials science, environmental engineering, and artificial intelligence applications. Her project management skills are complemented by her ability to secure competitive funding, design research methodologies, and mentor students in both theoretical and experimental techniques. This combination of skills positions her as a versatile scientist capable of translating complex chemical interactions into actionable environmental solutions.

Awards and Honors

Dr. Zhang’s academic and research excellence has been recognized through multiple awards and honors at the provincial and institutional levels. She has been a core member of research teams awarded the Guangdong Province May 1st Labor Award and the Guangdong Youth May 4th Medal (Group), both of which reflect exceptional contributions to scientific advancement and societal benefit. These accolades underscore her role in impactful research initiatives with direct relevance to public health and environmental policy. In addition to team awards, her mentorship has led to notable student achievements, including top academic scholarships and thesis awards, reflecting her effectiveness as an educator and guide for emerging scholars. Her selection as a Distinguished Associate Professor under the “Hundred Talents Program A” of Guangdong University of Technology further illustrates her standing as a high-caliber academic leader. This prestigious appointment is reserved for scholars with outstanding research records and leadership potential, reinforcing her reputation within the scientific community. Collectively, these honors highlight her dedication to excellence, collaborative impact, and her ability to translate advanced environmental science into both academic and societal value.

Author Metrics

  • Total Citations: 1,086+

  • h-index: 21

  • i10-index: 38

Publications Top Notes

1. A novel phase transition behavior during dynamic partitioning and analysis of retained austenite in quenched and partitioned steels
Citations: 64
Year: 2018

2. Direct observations on the crystal structure evolution of nano Cu-precipitates in an extremely low carbon steel
Citations: 59
Year: 2017

3. Development of TRIP-aided lean duplex stainless steel by twin-roll strip casting and its deformation mechanism
Citations: 50
Year: 2016

4. The aging precipitation behavior of 20Cr-24Ni-6Mo super-austenitic stainless steel processed by conventional casting and twin-roll strip casting
Citations: 43
Year: 2019

5. The blocking effects of interphase precipitation on dislocations’ movement in Ti-bearing micro-alloyed steels
Citations: 38
Year: 2015

6. Thin-gauge non-oriented silicon steel with balanced magnetic and mechanical properties processed by strip casting
Citations: 37
Year: 2022

7. The role of retained austenite on the mechanical properties of a low carbon 3Mn-1.5 Ni steel
Citations: 36
Year: 2017

8. Improvement on room-temperature ductility of 6.5 wt.% Si steel by stress-relief annealing treatments after warm rolling
Citations: 34
Year: 2016

9. Microstructural bandings evolution behavior and their effects on microstructure and mechanical property of super-austenitic stainless steel
Citations: 33
Year: 2018

10. Development of an easy-deformable Cr21 lean duplex stainless steel and the effect of heat treatment on its deformation mechanism
Citations: 32
Year: 2017

Conclusion

Assoc. Prof. Dr. Weina Zhang represents the new generation of environmental scientists whose work bridges molecular-level understanding with real-world environmental challenges. Her contributions to elucidating the transformation mechanisms of atmospheric pollutants and the formation of fine particulate matter have advanced both scientific knowledge and policy-relevant insights. Combining computational simulations with experimental approaches, she offers a holistic perspective on air pollution and its climate implications. Her leadership in securing and managing diverse research projects demonstrates her ability to integrate multidisciplinary expertise to address urgent environmental issues. Beyond her research, Dr. Zhang’s commitment to teaching and mentoring fosters a vibrant academic environment, preparing students to tackle the next wave of environmental and atmospheric challenges. Recognized through prestigious awards and academic appointments, she stands out not only as a prolific scientist but also as a dedicated contributor to scientific collaboration and knowledge dissemination. Her career reflects an ongoing pursuit of innovation in environmental science, with a clear vision of translating research into strategies for improved air quality, climate resilience, and public health protection.

Peiyuan Li | Renewable Energy | Best Researcher Award

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Mr. Peiyuan Li | Renewable Energy | Best Researcher Award

Doctor of Philosophy (Ph.D.) at East China University of Science and Technology | China

Mr. Peiyuan Li is a dedicated and innovative Ph.D. candidate in Polymer Chemistry and Physics at the East China University of Science and Technology, Shanghai, China. His research expertise lies in the development of advanced phase change materials (PCMs) with applications in battery thermal management. With a strong background in materials science and engineering, Mr. Li has made significant strides in integrating nanomaterials and polymers to enhance thermal regulation performance. His most recent publication, titled “Reduced graphene oxide/calcium alginate/polyethylene glycol composite phase change material with double-network structure for enhanced photothermal conversion”, published in the Journal of Energy Storage, demonstrates his ability to engineer composite PCMs with superior energy storage and heat dissipation properties. Mr. Li’s work not only addresses a critical challenge in sustainable energy storage but also offers scalable solutions for real-world thermal management systems. In addition to his research achievements, he is actively contributing to interdisciplinary collaborations and has a growing citation record. Mr. Li continues to strive for academic excellence and technological innovation with a vision to contribute to the development of safer, more efficient energy storage systems. His academic rigor and commitment to impactful research establish him as a promising emerging scholar in the field of energy materials.

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Education

Mr. Peiyuan Li is currently pursuing his Doctor of Philosophy (Ph.D.) in Polymer Chemistry and Physics at the prestigious East China University of Science and Technology (ECUST), located in Shanghai, China. This institution is known for its academic rigor and cutting-edge research in chemical and materials sciences. Mr. Li’s doctoral research focuses on the synthesis and application of advanced composite phase change materials (PCMs), emphasizing their use in battery thermal management systems. His academic training at ECUST combines fundamental knowledge of polymer chemistry with applied research in nanocomposites and energy storage materials. Throughout his doctoral studies, he has engaged in multidisciplinary coursework and laboratory-based research, strengthening his expertise in organic/inorganic hybrid materials, thermal conductivity, and energy system design. Mr. Li has demonstrated strong academic performance and has been involved in scholarly communication through publications and academic conferences. Prior to his Ph.D., he received foundational education in chemistry and materials science, laying the groundwork for his current specialization. His academic path reflects a clear focus on addressing real-world energy challenges through scientific research, and his educational background has equipped him with both theoretical and practical skills to innovate in the field of energy materials and thermal regulation technologies.

Professional Experience

As a Ph.D. candidate at the East China University of Science and Technology, Mr. Peiyuan Li has been actively engaged in cutting-edge research projects in the field of polymer-based energy materials since the beginning of his doctoral studies. His professional experience primarily revolves around laboratory research, scientific writing, and academic collaboration. He has participated in both independent and team-based projects focused on the development and characterization of advanced phase change materials (PCMs) for thermal management in lithium-ion batteries. His hands-on experience includes material synthesis, nanocomposite fabrication, thermal analysis (e.g., DSC, TGA), and photothermal performance evaluation. Mr. Li also contributes to the preparation of technical reports and scientific manuscripts, exemplified by his recent publication in the Journal of Energy Storage. He regularly collaborates with interdisciplinary teams of chemists, materials scientists, and engineers, enhancing the practical application of research findings. Furthermore, he has presented findings at departmental seminars and is working toward participation in international conferences. Through these experiences, Mr. Li has developed strong skills in experimental design, data analysis, and academic communication. His current role continues to evolve as he progresses in his research and seeks collaborative opportunities to translate academic insights into real-world innovations.

Research Interest

Mr. Peiyuan Li’s research interests lie at the intersection of polymer chemistry, nanomaterials, and energy systems, with a particular focus on the development of phase change materials (PCMs) for battery thermal management. His work is driven by the urgent need for improved energy efficiency and safety in energy storage technologies, especially in the context of electric vehicles and portable electronics. Mr. Li is deeply interested in the design and optimization of composite materials that exhibit enhanced thermal conductivity, stability, and energy storage capacity. He explores the integration of nanostructured materials such as reduced graphene oxide and bio-derived polymers to engineer multifunctional PCMs with superior photothermal and thermal regulatory properties. Additionally, his interest extends to the study of polymer networks, hydrogel composites, and sustainable material systems that contribute to green energy solutions. Mr. Li is also keen on investigating heat transfer mechanisms in confined structures and the scalability of lab-developed PCMs for industrial applications. His research aims not only to solve technical limitations in battery safety and performance but also to contribute to broader innovations in thermal management systems and energy-saving materials for smart devices and next-generation storage technologies.

Research Skills

Mr. Peiyuan Li possesses a comprehensive set of research skills essential for the design, development, and evaluation of advanced energy materials. His core competencies include synthesis of composite phase change materials (PCMs), polymer crosslinking, and nanomaterial integration, specifically using reduced graphene oxide and bio-polymers like calcium alginate. He is proficient in thermal and structural characterization techniques such as Differential Scanning Calorimetry (DSC), Thermogravimetric Analysis (TGA), Scanning Electron Microscopy (SEM), and X-ray Diffraction (XRD). In addition to material synthesis, he is skilled in photothermal conversion measurement and performance testing of thermal management systems. Mr. Li also demonstrates expertise in data interpretation and scientific communication, having authored peer-reviewed publications. He is adept in using research software and analytical tools, including Origin, ChemDraw, and MATLAB for data plotting and simulation purposes. Collaborative research and project planning are also part of his skill set, allowing him to contribute effectively to multidisciplinary teams. With a solid foundation in polymer chemistry and physics, he continuously hones his experimental techniques and research methodologies to innovate in the field of energy storage and thermal regulation. His methodological rigor and experimental precision distinguish him as a skilled researcher capable of addressing complex material challenges.

Awards and Honors

While Mr. Peiyuan Li is still in the early stage of his research career as a doctoral candidate, his contributions to energy materials research have already earned recognition within academic circles. His co-authored paper titled “Reduced graphene oxide/calcium alginate/polyethylene glycol composite phase change material with double-network structure for enhanced photothermal conversion” has been published in the prestigious Journal of Energy Storage (Elsevier), marking a significant academic milestone. Although specific awards or formal honors are not yet listed, the quality and impact of his research reflect high academic merit. His work demonstrates innovation in material design and application, aligning well with the goals of various academic award categories such as the Young Scientist Award or Best Research Scholar Award. Mr. Li’s proactive involvement in research and publication activities highlights his dedication to academic excellence. He continues to engage in institutional research initiatives and aims to compete for national and international research fellowships and innovation challenges. As he progresses through his doctoral program, further recognitions, travel grants, and academic awards are anticipated, reflecting his strong potential and commitment to scientific advancement in energy materials and sustainability.

Author Metrics

  • Total Citations: 71+

  • Cited By: 70 documents

  • Total Publications (Indexed): 4

  • h-index: 2

An h-index of 2 means Mr. Peiyuan Li has at least 2 papers that have been cited at least 2 times each.

Publications Top Notes

1. Reduced graphene oxide/calcium alginate/polyethylene glycol composite phase change material with double‑network structure for enhanced photothermal conversion
Year: 2025

2. Crosslinking polyethylene glycol and silica microcapsules composite phase change material with wide heat storage temperature range and shape memory function
Year: 2025

3. Calcium alginate / Polyaniline double network aerogel electrode for compressible and high electrochemical performance integrated supercapacitors
Year: 2024

4. Optimization of electrochemical performance for double network electrically conductive aerogel‑based supercapacitor electrode
Citations: 6
Year: 2023

5. Construction and characterization of highly stretchable ionic conductive hydrogels for flexible sensors with good anti‑freezing performance
Citations: 70
Year: 2023

Conclusion

Mr. Peiyuan Li exemplifies the qualities of a forward-thinking researcher committed to solving critical problems in energy storage and thermal management through advanced materials design. His academic journey at the East China University of Science and Technology has equipped him with strong theoretical knowledge and practical expertise in polymer chemistry and nanocomposite synthesis. His focus on phase change materials tailored for battery thermal management addresses a vital area in the global push for energy-efficient and safe storage systems. Through published research, hands-on experimentation, and multidisciplinary collaboration, Mr. Li has demonstrated his capability to contribute meaningfully to both academic and industrial advancements. His skills in experimental design, thermal analysis, and scientific writing are well-aligned with the demands of cutting-edge materials science research. As he continues his Ph.D. journey, Mr. Li is poised to make further contributions to sustainable energy solutions and novel materials development. His research trajectory suggests a promising future as a scholar and innovator, making him a strong candidate for research awards and recognitions that celebrate scientific excellence, innovation, and real-world impact. He aspires to continue bridging scientific discovery and technological application in the field of energy materials.

 

Mohammad Sadegh Shakeri | Green Technologies | Green Technology Award

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Dr. Mohammad Sadegh Shakeri | Green Technologies | Green Technology Award

Associated Professor at Department of Magnetic Materials and Nanostructures, NZ34, Division of Condensed Matter Physics, NO3, Institute of Nuclear Physics Polish Academy of Sciences, Krakow, Poland, 2023-now, Poland.

Dr. Mohammad Sadegh Shakeri is an Assistant Professor at the Institute of Nuclear Physics, Polish Academy of Sciences, specializing in magnetic materials, nanostructures, and condensed matter physics. His work spans materials synthesis, computational modeling, and experimental characterization, contributing to advanced ceramics, biomaterials, and photocatalysts. A recipient of multiple international awards and research grants, he actively collaborates with leading global institutions.

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Educational Details

Dr. Mohammad Sadegh Shakeri holds a Ph.D. in Materials Science and Engineering from the Materials & Energy Research Centre in Iran (2012–2017). He earned his M.Sc. from the University of Tabriz (2009–2012) and a B.Sc. from Sahand University of Technology (2004–2009), both in Materials Science and Engineering. His early academic foundation was built at Emam Khomeini High School and Rasoul-e-Akram Pre-University in Songhor, Kermanshah, Iran.

Professional Experience

Dr. Shakeri is an Assistant Professor at the Department of Magnetic Materials and Nanostructures, Institute of Nuclear Physics, Polish Academy of Sciences, Krakow, Poland. He has previously served as a postdoctoral researcher at the same institution (2021–2023) and held visiting researcher positions at the University of Duisburg-Essen, Germany (2023), and the University of Jean Monnet, France (2022). His industry experience includes working as a Research & Development Specialist at Fartak Sanat Rayan Mihan Co. (2017–2020). Additionally, he has contributed to academia as a lecturer at Faradars Virtual University, Tehran, Iran (2020–2021) and has served as a reviewer for reputable scientific journals, including Journal of Alloys and Compounds and Scientific Reports (Nature).

Research Interest

Dr. Shakeri’s research focuses on magnetic materials, nanostructures, and condensed matter physics, with expertise in ultra-high temperature ceramics (UHTCs), photocatalyst materials, biomaterials, and laser-matter interactions. His work integrates density functional theory (DFT), molecular dynamics (MD) simulations, and experimental materials characterization to develop advanced materials for energy, biomedical, and industrial applications.

Author Metrics & Contributions

Dr. Shakeri has authored numerous peer-reviewed publications and has been awarded multiple prestigious research grants, including funding from the Polish National Science Center (NCN), the European Funds for Regional Development, and the Central European Research Infrastructure Consortium (CERIC-ERIC). He is an active member of the European Ceramics Society, CECAM, and FIT4NANO. His scientific contributions have been widely recognized, earning him accolades such as the Polish Ministry of Science and Education Scholarship for Outstanding Young Scientists (2023) and the PSRS Award from the Polish Synchrotron Radiation Society (2024).

Top Noted Publication

  1. Optical Band Gap and Spectroscopic Study of Lithium Alumino Silicate Glass Containing Y³⁺ Ions

    • Journal: Spectrochimica Acta Part A: Molecular and Biomolecular Spectroscopy

    • Citations: 96 (2011)

    • Summary: This study investigates the optical band gap and spectroscopic properties of lithium alumino silicate glass doped with Y³⁺ ions, revealing its potential applications in optoelectronics and photonic devices.

  2. Electrochemical and Cellular Behavior of Ultrafine-Grained Titanium In Vitro

    • Journal: Materials Science and Engineering: C

    • Citations: 88 (2014)

    • Summary: Examines the electrochemical and biocompatibility properties of ultrafine-grained titanium, highlighting its suitability for biomedical implants.

  3. Nano-Structured Yttria-Stabilized Zirconia Coating by Electrophoretic Deposition

    • Journal: Applied Surface Science

    • Citations: 50 (2013)

    • Summary: Demonstrates an advanced method for depositing yttria-stabilized zirconia coatings, improving the material’s thermal and mechanical stability.

  4. Effect of Hydroxyapatite Coating on Corrosion Behavior and Nickel Release of NiTi Shape Memory Alloy

    • Journal: Materials and Corrosion

    • Citations: 42 (2014)

    • Summary: Investigates how hydroxyapatite coatings enhance the corrosion resistance and biocompatibility of NiTi shape memory alloys, making them more suitable for medical applications.

  5. Effect of Surface Modification by Nitrogen Ion Implantation on Electrochemical and Cellular Behavior of Super-Elastic NiTi Shape Memory Alloy

    • Journal: Journal of Materials Science: Materials in Medicine

    • Citations: 37 (2014)

    • Summary: Highlights the impact of nitrogen ion implantation on the electrochemical and biological performance of NiTi alloys.

  6. The Influence of Ni₄Ti₃ Precipitates Orientation on Two-Way Shape Memory Effect in a Ni-Rich NiTi Alloy

    • Journal: Journal of Alloys and Compounds

    • Citations: 37 (2009)

    • Summary: Explores how the orientation of Ni₄Ti₃ precipitates affects the shape memory behavior of NiTi alloys.

  7. Optical Properties of Transparent Glass–Ceramics Containing Lithium–Mica Nanocrystals: Crystallization Effect

    • Journal: Materials Research Bulletin

    • Citations: 35 (2013)

    • Summary: Studies the crystallization behavior and optical properties of lithium–mica-based glass-ceramics for photonic applications.

  8. High Microwave Absorption of Nano-Fe₃O₄ Deposited Electrophoretically on Carbon Fiber

    • Journal: Materials and Manufacturing Processes

    • Citations: 33 (2016)

    • Summary: Investigates Fe₃O₄-coated carbon fibers for high-performance microwave absorption applications.

  9. Influence of Fe₃O₄ Nanoparticles in Hydroxyapatite Scaffolds on Primary Human Fibroblast Cell Proliferation

    • Journal: Journal of Materials Engineering and Performance

    • Citations: 33 (2016)

    • Summary: Evaluates the biocompatibility of Fe₃O₄-enhanced hydroxyapatite scaffolds for biomedical applications.

  10. Characterization and Optical Properties of Mechanochemically Synthesized Molybdenum-Doped Rutile Nanoparticles and Their Electronic Structure Studies by Density Functional Theory

  • Journal: Materials Today Chemistry

  • Citations: – (Recent)

  • Summary: Integrates experimental and computational methods to analyze molybdenum-doped rutile nanoparticles for optoelectronic applications.

Conclusion

Dr. Mohammad Sadegh Shakeri is a strong candidate for the Research for Green Technology Award due to his pioneering work in advanced materials, photocatalysis, and sustainable energy applications. His research aligns with green technology advancements, making significant contributions to eco-friendly materials and clean energy solutions. Strengthening his focus on real-world green technology applications and industry collaborations will further solidify his position as a leading researcher in this field.