Prachi Jain | Nanocomposites | Best Researcher Award

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Dr. Prachi Jain | Nanocomposites | Best Researcher Award

Senior Researcher at Netaji Subhas University of Technology, India

Dr. Prachi Jain is a Ph.D. candidate in Physics with a specialization in Materials Science at Netaji Subhas University of Technology (NSUT), Delhi, India,  Her doctoral research focuses on the development of rare-earth and transition metal co-substituted spinel ferrites for hydroelectric cell applications, emphasizing green energy generation and enhanced oxygen evolution reactions. Dr. Jain holds an M.Sc. in Physics from the Central University of Punjab and a B.Sc. (Hons.) in Physics from the University of Delhi. She has presented her work at multiple international conferences, including ICMDA-Japan and RAFM-India, and is skilled in nanomaterials synthesis, thin film fabrication, and advanced material characterization techniques. Her interdisciplinary expertise spans dielectric studies, magnetic properties, and electrochemical energy storage systems.

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Summary of Suitability for Best Researcher Award

Dr. Prachi Jain is a promising materials physicist with a strong focus on energy harvesting, multiferroics, and hydroelectric cell technologies, demonstrating a rare combination of experimental expertise, device-level application, and deep material characterization skills. Her Ph.D. research investigates rare-earth and transition metal co-substituted spinel ferrites, pioneering their use in cost-effective green energy generation via hydroelectric cells.

🎓 Education

📚 Ph.D. in Physics (Materials Science) 
Netaji Subhas University of Technology, Delhi
🔬 Thesis: Rare-Earth and Transitional Metal Co-Substituted Spinel Ferrites for Hydroelectric Cell Device Applications

📘 M.Sc. in Physics 
Central University of Punjab, India
🧪 Thesis: Synthesis and Characterization of Fluorescent Carbon Dots
📊 CGPA: 7.76

🎓 B.Sc. (Hons.) in Physics 
Shivaji College, University of Delhi
📊 CGPA: 8.3

🧪 Research Interests & Expertise

💧 Hydroelectric Cell Development

⚛️ Multiferroics, Spinel Ferrites, and Co-Doped Metal Oxides

🔬 Wet-Chemical Synthesis: Sol-Gel, Hydrothermal, Co-Precipitation

🧫 Thin Film Preparation: PVD, CVD

🧠 Advanced Characterization: XRD, FESEM, TEM, FTIR, VSM, UV-DRS, CV

📈 Simulation Tools: FULLPROF, VESTA, ZSimpWin, EISSA, Origin, ImageJ

🧠 Ongoing Research Work

⚡ LaCoO₃: Temperature-dependent structural & magnetic studies for energy storage

🧲 Cu-doped YCrO₃: Dielectric & impedance investigation

💧 Mn-substituted oxides: Green energy via hydroelectric cells

🌿 SrFe₂O₄: Eco-friendly nanoparticles for supercapacitor applications

🏆 Achievements & Presentations

🎤 International/ National Conference Presentations:

🇯🇵 ICMDA-2023, Chiba University, Japan

🇮🇳 RAFM-2022 & RAFM-2024, University of Delhi

🇮🇳 ICAMET-2023, NSUT

🇮🇳 AFMD-2025, University of Delhi

🇮🇳 IC-STAR, VIT Bhopal

🌍 28th Intl. Conf. on Nuclear Tracks and Radiation Measurements

📚Publication Top Notes

Unveiling the impact of Ni 2+/Y 3+ co-substitution on the structural, dielectric, and impedance properties of multiferroic spinel ferrite for hydroelectric cell application

Cited : 26

Exploring the multiferroic and water sensing behavior of Cu/Er co-substituted ferrites as key enablers for next-gen hydroelectric cells

Cited : 9

Advancements in multiferroic, dielectric, and impedance properties of copper–yttrium co-doped cobalt ferrite for hydroelectric cell applications

Cited : 7

Al³⁺-substituted magnesium ferrites (MgAlₓFe2-xO4) for advanced hydroelectric cells and pseudocapacitors: Insights into the structural, morphological, and electrical studies

Cited : 6

Investigation of Mg2+ Ion Substitution on the Structural, Electric, and Magnetic Properties of Soft Spinel Ferrites (NiFe2O4) for High-Frequency Applications

Cited : 5

Dr. Chunjian Duan | Composites | Best Researcher Award

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Dr. Chunjian Duan | Composites | Best Researcher Award

Dr. Chunjian Duan, Henan University, China

👨‍🔬 Dr. Chunjian Duan is a researcher specializing in polymer self-lubricating composites and tribological materials. He earned his Ph.D. in Physical Chemistry from the University of Chinese Academy of Sciences (UCAS) in 2020, focusing on the friction and wear mechanisms of polyimide composites under special conditions. 🏆 Currently, he is a Senior Lecturer and Associate Professor at Henan University, where he explores the performance of polyimide composites with lubricating oils and solid-liquid synergetic systems. 🧪 His innovative research integrates nanomaterials and molecular dynamics simulations to enhance the durability and performance of polymer-based materials. 🌟

Professional Profile:

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Suitability for Best Researcher Award

Dr. Chunjian Duan is a highly suitable candidate for a Best Researcher Award due to his outstanding contributions to polymer self-lubricating composites and tribological materials. His research addresses critical challenges in improving the durability, friction resistance, and wear performance of polymer-based materials, especially under extreme environmental conditions. His innovative approach, which combines nanomaterials and molecular dynamics simulations, places him at the forefront of material science and tribology.

🎓 Education and Experience:

  • Doctoral Degree in Physical Chemistry (2015–2020) – University of Chinese Academy of Sciences (UCAS), Lanzhou. 🏅
    • Thesis: “Design and friction and wear mechanism of polyimides self-lubricating composites under special conditions.”
    • Advisors: Prof. Tingmei Wang and Prof. Qihua Wang
  • Bachelor’s Degree in Material Chemistry (2011–2015) – Harbin Normal University. 🏆
    • Thesis: “Preparation and research of nano-TiO2@ZnO with mechanism of photocatalytic hydrolysis.”
    • Advisors: Prof. Gang Li and Prof. Xu Zhang
  • Senior Lecturer and Associate Professor – Henan University (2020–Present). 🏫
    • Project: “Performance of adsorption on polyimide with lubricating oil and mechanism of solid-liquid synergetic system.”
    • Advisors: Prof. Pingyu Zhang and Prof. Shengmao Zhang

📈 Professional Development:

Dr. Duan has made notable contributions to polymer science, particularly in self-lubricating composites. 🧪 His research focuses on designing and modifying oil-soluble nanomaterials to improve the friction and wear resistance of polyimide composites. 🏗️ He explores the interaction between polymers and lubricating oils, investigating the underlying mechanisms using molecular dynamics simulations. 🌟 His work advances the development of high-performance, wear-resistant materials for extreme environments, combining material science and tribology to enhance industrial applications. 🚀

🔬 Research Focus:

Dr. Duan’s research centers on polymer self-lubricating composites and advanced tribological materials. 🏆 He investigates the design and synthesis of polyimide composites with enhanced friction and wear resistance, especially under high temperatures and harsh conditions. 🏗️ His studies include oil-soluble nanomaterials, super-lubricity systems, and the synergy between solid and liquid lubricants. 🌍 Through molecular dynamics simulations, Dr. Duan aims to uncover the fundamental mechanisms behind lubrication and wear, creating innovative solutions for industrial and aerospace applications. 🚀

🏅 Awards and Honors:

  • 🏆 National Scholarship for Graduate Student – Top 10% of students at UCAS.
  • 🎖️ Zhu Li Yuehua Scholarship – Top 5% of students at the Chinese Academy of Sciences.
  • 🥇 4x Harbin Normal University Scholarship – Top 20% of students in the Chemical Institute.

Publication Top Notes:

  • High wear-resistant performance of thermosetting polyimide reinforced by graphitic carbon nitride (g-C₃N₄) under high temperature🏅 Cited by: 89 | 📅 2018

  • The effect of different layered materials on the tribological properties of PTFE composites🏅 Cited by: 73 | 📅 2020

  • Cobweb-like structural stimuli-responsive composite with oil warehouse and transportation system for oil storage and recyclable smart-lubrication 🏅 Cited by: 65 | 📅 2018

  • Utilizing polyhexahydrotriazine (PHT) to cross-link polyimide oligomers for high-temperature shape memory polymer | 🏅 Cited by: 24 | 📅 2019

  • Synthesis of reduced graphene oxide/zinc ferrite/nickel nanohybrids: as a lightweight and high-performance microwave absorber in the low frequency  🏅 Cited by: 22 | 📅 2019