Lili Wang | Environmental Conservation | Best Researcher Award

Assoc. Prof. Dr. Lili Wang | Environmental Conservation | Best Researcher Award

Associate Professor | Zhejiang Sci-tech University | China

Assoc. Prof. Dr. Lili Wang is a highly accomplished scholar and researcher specializing in textile chemistry, dyeing, and finishing engineering. Serving as an Associate Professor at Zhejiang Sci-Tech University, she has established herself as a leading figure in the development of sustainable textile technologies. Her primary research focuses on ecological dyeing methods and the functionalization of natural polymers, with an emphasis on reducing environmental impact while enhancing textile performance. Assoc. Prof. Dr. Lili Wang has successfully led and contributed to multiple nationally and provincially funded research projects, particularly in the field of digital spray dyeing technology for polyester fabrics, which is recognized for its potential in energy conservation and carbon reduction. She has further demonstrated her innovative capacity by securing numerous invention patents, reflecting her ability to translate scientific research into practical applications. Her academic training, combined with postdoctoral experience in industry, enables her to integrate theoretical research with real-world textile solutions. Beyond her technical expertise, Assoc. Prof. Dr. Lili Wang is dedicated to advancing the global textile industry toward greener, more efficient practices. Her contributions highlight the importance of bridging academia and industry, making her an influential voice in shaping the future of sustainable textile science and engineering.

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Education

Assoc. Prof. Dr. Lili Wang has built a strong academic foundation through a comprehensive educational journey across some of China’s leading institutions in textiles, chemistry, and materials science. She began her studies in materials science and engineering at the undergraduate level, where she gained fundamental knowledge in textile materials, fiber science, and engineering principles. This early academic training sparked her interest in exploring the chemistry of textiles and their applications in innovative and sustainable processes. Motivated to advance her expertise, she pursued graduate studies in chemistry, chemical engineering and biotechnology, where she deepened her understanding of advanced chemical reactions, polymer science, and their relevance to textile dyeing and finishing. Her doctoral training focused on the intersection of chemistry and textile applications, equipping her with the ability to conduct independent research and develop novel approaches to textile processing. To further strengthen her research profile, Assoc. Prof. Dr. Lili Wang undertook postdoctoral research in collaboration with industry, where she explored practical solutions for ecological dyeing and finishing technologies. This unique combination of academic rigor and industrial research experience has provided her with both theoretical depth and applied skills, enabling her to contribute meaningfully to advancing sustainable textile science and engineering.

Professional Experience

Assoc. Prof. Dr. Lili Wang has cultivated a career that bridges academic research, industrial application, and innovation in textile chemistry and ecological dyeing. At Zhejiang Sci-Tech University, she serves as an Associate Professor in the College of Textiles Science and Engineering, where she is actively engaged in teaching, research, and student mentorship. Her academic role involves guiding research in textile chemistry and dyeing, supervising projects focused on sustainable textile technologies, and fostering interdisciplinary collaboration. In addition to her university work, she has gained valuable industrial experience through postdoctoral research at Saintyear Holding Group Co., Ltd., where she applied her scientific expertise to real-world challenges in ecological dyeing and finishing. This dual experience has allowed her to integrate theoretical knowledge with practical solutions, ensuring that her research directly contributes to industrial innovation. Assoc. Prof. Dr. Lili Wang has successfully led and participated in major research projects funded by national and provincial foundations, focusing on energy-saving and eco-friendly textile processes. Her achievements include an impressive record of granted invention patents, reflecting her ability to transform scientific ideas into applied technologies. Through her professional journey, she has consistently demonstrated leadership, innovation, and a strong commitment to advancing sustainable practices in the textile industry.

Research Interest

Assoc. Prof. Dr. Lili Wang’s research interests are centered on advancing sustainable technologies in textile chemistry, dyeing, and finishing. She is particularly focused on developing new ecological dyeing methods that reduce water consumption, minimize energy use, and lower the carbon footprint of textile processing. One of her major areas of interest lies in digital spray dyeing for polyester fabrics, a cutting-edge approach recognized for its efficiency and environmental benefits. In addition, she explores the functionalization of natural polymers, aiming to create textiles with enhanced properties such as durability, antibacterial performance, and eco-compatibility. By integrating renewable resources with modern textile finishing techniques, her work contributes to the development of high-value and sustainable textile products. Assoc. Prof. Dr. Lili Wang also investigates interdisciplinary applications of polymer science, chemical engineering, and environmental chemistry to address industry challenges. Her research reflects a balance between innovation and responsibility, ensuring that technological advancements align with global sustainability goals. Through her projects, she seeks to create practical solutions that can be widely applied in the textile industry, ultimately promoting greener production models and contributing to the transformation of the global textile sector toward more sustainable and environmentally friendly practices.

Research Skills

Assoc. Prof. Dr. Lili Wang has developed a comprehensive set of research skills that combine advanced chemical knowledge, materials engineering expertise, and applied textile innovation. She is highly skilled in the design and optimization of textile dyeing processes with a focus on energy efficiency, water conservation, and environmental protection. Her technical expertise includes digital spray dyeing, ecological finishing methods, and the modification of polymers to enhance textile functionality. She is proficient in applying advanced analytical methods to evaluate dyeing performance, textile durability, and eco-friendly properties of treated fabrics. Assoc. Prof. Dr. Lili Wang also has strong project management skills, having successfully led and coordinated multiple national and provincial research projects funded by prestigious scientific foundations. Her ability to translate laboratory results into scalable industrial applications is evident in her portfolio of granted patents. In addition, she demonstrates expertise in interdisciplinary collaboration, bringing together principles of chemistry, chemical engineering, and textile science to create innovative solutions. Her research skills extend to experimental design, data analysis, and innovation development, ensuring that her work not only advances theoretical knowledge but also contributes practical technologies for the textile industry. This unique combination positions her as a versatile and impactful researcher in sustainable textile science.

Awards and Honors

Assoc. Prof. Dr. Lili Wang has received recognition for her outstanding contributions to the advancement of sustainable textile technologies. Her research achievements have been supported by major national and provincial funding bodies, reflecting the scientific significance and societal value of her work. She has secured competitive grants from the National Natural Science Foundation of China, the China Postdoctoral Science Foundation, and the Zhejiang Provincial Natural Science Foundation, demonstrating her strong research leadership and innovation capacity. Beyond funding recognition, her creativity and applied research outcomes are further highlighted by her impressive record of granted invention patents. These patents stand as a testament to her ability to translate theoretical knowledge into impactful technologies that address industrial needs. Her recognition is not limited to academic circles but extends to industrial collaborations, where her research outcomes contribute directly to advancing ecological dyeing and functional finishing practices. Assoc. Prof. Dr. Lili Wang’s honors reflect her commitment to developing environmentally responsible textile processes and her vision of promoting green innovation within the industry. These achievements underscore her role as a respected researcher, innovator, and academic leader, dedicated to shaping the future of textile engineering with sustainability and scientific excellence at the forefront.

Author Metrics

  • Total Documents Published: 60+

  • Total Citations: 2,740+

  • h-index: 30

  • i10-index: 60

These metrics reflect the significant academic impact and influence of Assoc. Prof. Dr. Lili Wang’s research in textile chemistry, ecological dyeing technologies, and polymer functionalization. Her work is widely cited in international journals, demonstrating both the quality and relevance of her scientific contributions to the global research community.

Publications Top Notes

1. Urea-free reactive printing of viscose fabric with high color performance for cleaner production
Year: 2021
Citations: 15

2. A novel quaternary ammonium triethanolamine modified polyester polyether for rapid wetting and penetration pretreatment for digital inkjet dyeing of polyester fabric
Year: 2025
Citations: 6

3. Organofluorosilicon modified polyacrylate with the unidirectional migration promotion of disperse dyes toward polyester fabric for wash-Free digital inkjet dyeing
Year: 2024
Citations: 6

4. Ecofriendly and durable flame-retardant cotton fabric based on alkyl/N/B/P modified meglumine with high efficiency
Year: 2023
Citations: 12

5. Ecofriendly dual-function cotton fabric with antibacterial and anti-adhesion properties based on modified natural materials
Year: 2024
Citations: 3

Conclusion

Assoc. Prof. Dr. Lili Wang has established herself as a dynamic academic and researcher whose career reflects the integration of scientific excellence, practical innovation, and environmental responsibility. With her strong foundation in chemistry, biotechnology, and materials science, she has advanced into a leading role in textile chemistry and sustainable dyeing technologies. Her focus on ecological dyeing and functionalization of natural polymers demonstrates her commitment to addressing pressing global challenges in textile production, such as energy consumption, water conservation, and pollution reduction. Through her leadership in nationally and provincially funded projects, she has contributed innovative solutions that align academic research with industrial applications, reinforcing the importance of sustainability in modern textiles. Her impressive portfolio of invention patents further illustrates her ability to translate research outcomes into practical technologies that benefit both the industry and society. Beyond technical contributions, Assoc. Prof. Dr. Lili Wang plays a vital role as an educator and mentor, inspiring the next generation of researchers in textile science. Her career path exemplifies how academic rigor, interdisciplinary collaboration, and a vision for sustainability can converge to shape the future of textile engineering. With her expertise and dedication, Assoc. Prof. Dr. Lili Wang continues to make meaningful contributions toward building a greener and more innovative textile industry.

 

Mohammad Sadegh Shakeri | Green Technologies | Green Technology Award

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.