N Raghavendra | Nanotechnology | Best Researcher Award

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Dr. N Raghavendra | Nanotechnology | Best Researcher Award

Research Associate, East West Institute of Technology, India

Dr. N. Raghavendra is an accomplished Research Associate at the East West Institute of Technology, Bangalore, specializing in polymer nanocomposites and electrochemical sensors. With over 13 years of research experience, he has contributed significantly to the development of high-performance polymer composites for marine and aerospace applications. Dr. Raghavendra earned his Ph.D. in Polymer Nanocomposites from Tumkur University and holds a strong expertise in synthesizing organomodified nanoclays to enhance composite properties. He is adept in material characterization techniques, including XRD, SEM, FTIR, DSC, and AFM. His interdisciplinary research spans polymers, graphene, nanometal oxides, battery recycling, and heavy metal sensors. Dr. Raghavendra has collaborated on several government-funded projects and published numerous articles in reputed journals and conferences. His work actively contributes to sustainable material innovation and real-world industrial applications. Passionate about advancing nanotechnology, he continuously seeks academic and research opportunities that foster impactful scientific contributions.

Professional Profile

šŸŽ“ Education

Dr. N. Raghavendra completed his Ph.D. in Materials Science from Tumkur University in 2017, focusing on polymer nanocomposites for structural applications. His doctoral research involved the synthesis and characterization of organomodified Indian Bentonite nanoclay and its performance in polymer matrices. He holds a Master of Science (M.Sc.) degree in General Chemistry from Kuvempu University (2008-2010), where he developed a deep interest in nanomaterial synthesis through his project on metal oxide nanoparticles via solution combustion methods. He also obtained his Bachelor of Science (B.Sc.) degree with majors in Chemistry, Botany, and Zoology from Kuvempu University (2005-2007). Dr. Raghavendra cleared the Karnataka State Eligibility Test (KSET) for Lectureship in Chemical Sciences in 2015, further solidifying his academic standing. His education has provided him with a robust foundation in materials chemistry, nanotechnology, polymer science, and advanced analytical techniques.

šŸ’¼ Experience

Dr. N. Raghavendra is currently serving as a Research Associate at the East West Institute of Technology, Bangalore, since 2017, where he is part of a DST-sponsored project focused on developing portable devices for heavy metal detection in water. Prior to this, he worked from 2010 to 2017 as a Research Staff at Kuvempu University and at R.V. College Campus on multiple NRB and DRDO-funded projects, contributing extensively to polymer composites for marine and defense applications. His key responsibilities included synthesis of nanomaterials, fire-retardant composites, laser machining studies, and hydrothermal analysis of nanocomposites. Throughout his career, he has gained significant expertise in handling high-end characterization instruments and has been involved in national-level collaborative research. His experience bridges fundamental research and practical solutions for real-world engineering challenges, particularly in the fields of polymer development, nanotechnology, and advanced material design.

šŸ”¬ Research Focus

Dr. N. Raghavendraā€™s research centers on polymer nanocomposites, electrochemical sensors, and nanomaterial-based applications for structural, environmental, and energy sectors. His primary focus lies in synthesizing organomodified nanoclays to enhance the mechanical, fire-resistant, and moisture-barrier properties of fiber-reinforced polymer composites. He has worked extensively on developing materials for marine, aerospace, and defense applications, with a keen interest in corrosion resistance, laser machining, and seawater durability. His research extends to green synthesis of nanomaterials, battery recycling, and sustainable energy solutions using graphene-based electrodes and electrochemical sensors. Dr. Raghavendra is currently involved in projects that aim to create portable devices for heavy metal detection in water, addressing significant environmental concerns. His multi-disciplinary approach encompasses material synthesis, product development, and performance optimization for end-use applications, positioning him at the forefront of applied nanotechnology and polymer engineering research.

šŸ“šPublication Top Notes

  1. Electrochemical Sensor and Photocatalytic Studies of Ferrite Nanoparticle Using Different Fuels via Green Approach
    Sensing Technology (2024)
    DOI: 10.1080/28361466.2024.2336937
    Summary: This study focuses on green synthesis of ferrite nanoparticles using eco-friendly fuels and their dual application in electrochemical sensing and photocatalysis for environmental remediation.

  2. Evaluation of Nbā‚‚Oā‚…/rGO Nanocomposites for Electrochemical Sensor & Photocatalytic Applications
    Sensing Technology (2024)
    DOI: 10.1080/28361466.2023.2299092
    Summary: The paper evaluates Nbā‚‚Oā‚…/reduced graphene oxide nanocomposites as multifunctional materials with excellent electrochemical and photocatalytic efficiencies.

  3. MgAlā‚‚Oā‚„:HoĀ³āŗ Nanophosphors: Electrochemical Sensor, Photoluminescence and Photocatalytic Applications
    Asian Journal of Chemistry (2023)
    DOI: 10.14233/ajchem.2023.28287
    Summary: The research demonstrates the potential of holmium-doped nanophosphors in electrochemical sensing, light emission, and pollutant degradation.

  4. Green-Synthesised Cobalt Oxide Nanoparticles Using Aloe-Vera Latex for Photocatalytic and Electrochemical Sensor Studies
    Sensing Technology (2023)
    DOI: 10.1080/28361466.2023.2286948
    Summary: This work highlights the green synthesis of cobalt oxide nanoparticles using aloe vera extract and their practical sensing and photocatalytic applications.

  5. Cyclic Voltammetry, Impedance and Thermal Properties of CoFeā‚‚Oā‚„ from Waste Li-Ion Batteries
    Materials Today: Proceedings (2018)
    DOI: 10.1016/j.matpr.2018.06.612
    Summary: A novel recycling approach to extract and repurpose cobalt ferrite from discarded lithium-ion batteries for electrochemical energy applications.

Conclusion

Dr. N. Raghavendra is highly suitable for the Best Researcher Award based on his solid research track record, project contributions, publication output, and technical expertise. His interdisciplinary work, especially in polymer nanocomposites and electrochemical sensors with real-world applications, makes him a strong candidate. However, focusing on increasing international collaboration, innovation through patents, and higher citation impact would further solidify his eligibility for future prestigious awards.

Jinxiang Li | Nanotechnology | Best Researcher Award

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Assoc. Prof. Dr. Jinxiang Li | Nanotechnology | Best Researcher Award

Associate Professor, Nanjing University of Science and Technology, China

Dr. Jinxiang Li is an accomplished Associate Professor at the School of Environmental and Biological Engineering, Nanjing University of Science and Technology, China. With a strong foundation in municipal engineering and environmental science, Dr. Li has been advancing cutting-edge research in nanotechnology applications for environmental remediation. His expertise lies in enhancing the performance of zero-valent iron (ZVI) for the selective and reactive removal of metalloids, particularly through magnetic field coupling and reactive species manipulation. He earned his Ph.D. in Municipal Engineering from Tongji University in 2016, following his Masterā€™s and Bachelorā€™s degrees from Shandong Jianzhu University. Dr. Liā€™s postdoctoral work at Tongji University further solidified his innovative approaches in contaminant sequestration. He has published impactful articles in top-tier journals, contributed to interdisciplinary research, and remains at the forefront of sustainable engineering. His research continues to shape modern strategies for groundwater treatment using nanomaterials and reactive interfaces.

Professional Profile

Scopus Profile

šŸŽ“ Education

Dr. Jinxiang Liā€™s academic journey reflects a strong interdisciplinary foundation in engineering and environmental sciences. He earned his Bachelorā€™s degree in Water Supply and Drainage in 2010 from Shandong Jianzhu University, followed by a Masterā€™s degree in Municipal Engineering in 2013 from the same institution. Building upon this, Dr. Li pursued his Ph.D. in Municipal Engineering from Tongji University, graduating in 2016. His doctoral studies focused on the application of engineered materials in municipal and environmental systems. From 2017 to 2019, he conducted postdoctoral research in Environmental Science at Tongji University, where he advanced studies on reactive materials for pollutant removal. In 2019, Dr. Li joined Nanjing University of Science and Technology as an Associate Professor, where he has continued his academic and research contributions. His educational path highlights a seamless integration of civil, environmental, and materials engineering with a specialization in nanotechnology-enhanced remediation techniques.

šŸ’¼ Experience

Dr. Jinxiang Li has built a robust professional trajectory in academia and research since earning his Ph.D. His current role as an Associate Professor at the School of Environmental and Biological Engineering, Nanjing University of Science and Technology (2019ā€“present), places him at the nexus of environmental remediation and nanomaterials development. Prior to this, Dr. Li completed a Postdoctoral Fellowship in Environmental Science at Tongji University (2017ā€“2019), where he conducted high-impact research on zero-valent iron and its enhanced reactivity in environmental applications. His early career was shaped by his doctoral and masterā€™s research in municipal engineering, giving him critical insights into applied environmental systems. Dr. Li has led and participated in several national and institutional research projects, focusing on pollution control, groundwater treatment, and nano-iron modifications. With a strong record of mentoring graduate students and publishing in renowned journals, his experience spans fundamental science and applied engineering.

šŸ† Awards and Honors

Dr. Jinxiang Liā€™s innovative contributions to environmental nanotechnology have been recognized through numerous honors. He has been a recipient of research project funding from provincial and national science foundations in China, including support from environmental remediation-focused programs. His articles published in journals such as the Journal of Hazardous Materials and Environmental Research have received commendable citations, reflecting their impact in academia and environmental engineering practice. As a rising researcher in advanced materials, Dr. Li has also been invited to present at national conferences on zero-valent iron reactivity and metalloid sequestration techniques. Though a detailed list of formal honors is not fully disclosed here, his role as a principal investigator on multiple funded projects, peer-review contributions, and regular scholarly publications position him as a promising awardee for international recognitions such as the Nanotechnology Award.

šŸ” Research Focus

Dr. Jinxiang Liā€™s research centers on nanotechnology for environmental remediation, particularly through the modification and application of zero-valent iron (ZVI). His work explores the coupling of reactive iron species to enhance the efficiency, reactivity, and selectivity of ZVI in removing contaminants like selenium and chromium from groundwater. He investigates innovative strategies such as ball milling with Feā‚ƒOā‚„, application of weak magnetic fields, and green rust coupling with iron nanoparticles. These approaches are designed to boost the electron efficiency and longevity of reactive iron-based materials, making them suitable for scalable water treatment applications. Dr. Liā€™s interdisciplinary research bridges environmental science, chemistry, and nanotechnology, focusing on reducing ecological toxicity and improving remediation sustainability. His findings contribute to the global movement toward advanced pollutant control technologies, and his work continues to influence both theoretical advancements and practical solutions in the field of nano-enabled environmental engineering.

šŸ“š Publication Top Notes

  1. Reaction mechanism for the enhanced removal of selenite in water by ball-milling of zero-valent iron with Feā‚ƒOā‚„
    Authors: Jinxiang Li, et al.
    Journal: Huagong Xuebao (Journal of Chemical Industry and Engineering – China), 2025
    Summary: This article investigates how ball-milling ZVI with Feā‚ƒOā‚„ enhances selenite removal from water. The study reveals improved surface reactivity, enabling faster and more selective contaminant reduction.

  2. Relationships of ternary activities for the enhanced Cr(VI) removal by coupling nanoscale zerovalent iron with sulfidation and carboxymethyl cellulose
    Authors: Jinxiang Li, et al.
    Journal: Environmental Research, 2024
    Summary: This study explores the synergy between sulfidation and polymer stabilization of nZVI, leading to enhanced removal of hexavalent chromium. Ternary interactions were found critical in pollutant binding and electron transfer.

  3. Enhanced Reactivity and Electron Efficiency of Zerovalent Iron with Various Methods (Review Article)
    Authors: Jinxiang Li, et al.
    Summary: A comprehensive review covering advanced modification techniques to improve ZVIā€™s electron utilization efficiency, including doping, surface treatment, and hybrid material formation.

  4. Regulating the interlayer SOā‚„Ā²ā»-induced rebound of SeOā‚„Ā²ā» in green rust coupled with iron nanoparticles for groundwater remediation
    Authors: Jinxiang Li, et al.
    Journal: Journal of Hazardous Materials, 2024
    Summary: The article delves into the unique rebound effect of selenium oxyanions and how SOā‚„Ā²ā» regulation in green rustā€“Fe systems offers new remediation possibilities.

Conclusion

Dr. Jinxiang Li is a strong candidate for the Best Researcher Award, especially for categories focusing on early- to mid-career researchers in environmental remediation and material-based solutions. His recent contributions are timely, scientifically sound, and aligned with pressing environmental challenges. While further outreach and higher citation metrics would strengthen his profile, the originality and technical excellence of his research make him deserving of recognition.