Neetu Yadav | Materials Science | Best Researcher Award

Ms. Neetu Yadav | Materials Science | Best Researcher Award

Department of Physics, University of Lucknow | India

Neetu Yadav is a passionate and dedicated researcher specializing in Material Science, with a keen interest in humidity and gas sensors. Born on April 18, 1996, in India, she currently resides in Pantnagar, Uttarakhand. Her academic journey, combined with a growing list of publications, reflects her commitment to advancing sensor technology through nanomaterials and transition metal oxides. With excellent research, communication, and analytical skills, Neetu brings a multidisciplinary approach to scientific inquiry, bridging physics, chemistry, and materials engineering.

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Strengths for the Awards✨

Ms. Neetu Yadav exemplifies the profile of an emerging researcher in the domain of material science and sensor technology. Her ongoing Ph.D. research at the University of Lucknow focuses on transition metal oxides for gas and humidity sensing applications, a field of significant relevance to environmental monitoring and industrial safety. Despite being at an early stage of her career, she has already co-authored 10+ peer-reviewed publications in reputable journals such as Applied Surface Science, International Journal of Hydrogen Energy, and Physica E, with multiple articles indexed in Scopus and cited internationally.

Her collaborative projects and contributions to interdisciplinary studies involving nanostructures, thin films, irradiation effects, and sensor fabrication underscore her technical competence. She has also co-authored book chapters published by Springer and other academic platforms, indicating her global academic reach. Moreover, her participation in national and international conferences, workshops, and symposiums, as well as involvement in outreach activities like essay competitions and inter-university sports, highlights her holistic development.

🎓 Education

Neetu Yadav is presently pursuing her Ph.D. in Material Science from the Department of Physics, University of Lucknow, focusing on the synthesis and characterization of transition metal oxides for sensor applications. She completed her Master’s in Physics (2019) from the same university with a second division. Prior to that, she earned her B.Sc. in Physics, Chemistry, and Mathematics (2017) from Kumaun University, securing a first division. She also completed her Intermediate and High School from Rajeev Gandhi Navodaya Vidhyalaya, both with top ranks.

🧪 Experience

Neetu has developed hands-on experience through intensive lab work, workshops, and conferences. Her current research explores optical and structural properties of advanced materials, focusing on their applications in gas and humidity sensing. She has actively participated in experimental setups involving thin-film deposition, surface modification via ion irradiation, and nanomaterial synthesis — enriching her technical proficiency and collaborative skills.

🔍 Research Interests On Materials Science

Her research interests center around the synthesis and structural characterization of transition metal oxides, sensor device fabrication, thin films, and ion beam irradiation effects. She aims to enhance sensor performance for environmental monitoring by manipulating nano-scale properties of oxides like MoO₃, WO₃, SnO₂, and CuO. Her interdisciplinary curiosity also extends into nanotechnology’s societal and ethical dimensions. 📊

🏆 Awards & Recognition

Neetu received an Honorable Mention in the All India Essay Writing Event (2016), organized by Shri Ram Chandra Mission & the UN Information Centre. She has also earned accolades in district-level and inter-parliamentary volleyball tournaments. Her involvement in academic events and diverse interests from chess to painting reflect a well-rounded personality.

📚 Publications

Below are selected publications showcasing Neetu Yadav’s contributions to materials science and sensor technology:

  1. Gamma irradiation induced surface modification of V₂O₅ thin films, Applied Surface Science, 2025 — cited by researchers for its relevance to sensor enhancement mechanisms.

  2. Analysis of nanostructured Bi₂O₃-doped MoO₃, Materials Today: Proceedings, 2024 — contributed to optical and humidity sensor evaluation.

  3. Room temperature LPG sensing of Ag-doped CuO:SnO₂, Physica E, 2024 — investigated gas sensing efficiency.

  4. Effects of 100 MeV Ni⁷⁺ ion irradiation on MoO₃ thin films, Nuclear Instruments and Methods B, Oct 2024.

  5. Enhanced hydrogen gas sensing with Ag-doped WO₃, International Journal of Hydrogen Energy, 2023.

  6. SnO₂@ZnO based chemiresistor for Ammonia sensing, Materials Chemistry and Physics, Dec 2023.

  7. Yttrium-Cerium oxide sensor for H₂ detection, Engineering Proceedings, 2023.

  8. NiO and SnO₂ nanoparticles for humidity sensing, Interactions, 2022.

  9. XRD studies of sol-gel derived SnO₂, Int. Conf. on Materials Processing & Applications, 2023.

  10. 120MeV Ni⁷⁺ irradiation effects on WO₃, Journal of Alloys and Compounds, 2025.

📘 Book Chapters:

  • Influence of Temperature on Humidity Sensor (2023), in IIP Series Vol. 3.

  • Nanotechnology: Social Acceptance & Privacy (2024), Springer.

  • Role of Nanotechnology in Sensor Fabrication (2023), IIP Series Vol. 3.

🧠 Conclusion

Neetu Yadav stands out as a promising researcher whose work embodies academic rigor, technical innovation, and societal relevance. Her deep focus on material-based sensors and her contributions through high-impact publications and active participation in global scientific discussions make her an outstanding candidate for the “Best Researcher Award” in Forensic Scientist Awards. 🌟 Her fusion of scientific creativity, hands-on experimentation, and cross-disciplinary collaboration demonstrates not only academic excellence but a steadfast commitment to real-world impact.

Thi Dinh Ta | Materials Engineering | Best Researcher Award

Dr. Thi Dinh Ta | Materials Engineering | Best Researcher Award

University of Wollongong | Australia

Dr. Thi Dinh Ta is a Part-time Lecturer and Research Scientist specializing in Tribology, Lubrication Engineering, and Computational Mechanics at the University of Wollongong (UOW), Australia. With over 12 years of combined industry and academic experience, he has made significant contributions to advanced lubricant development, sustainable manufacturing, and nanotechnology applications in mechanical systems. His interdisciplinary research bridges molecular dynamics simulations, experimental tribology, and industrial problem-solving, earning recognition through ARC grants, international collaborations, and high-impact publications.

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Strengths for the Awards✨

  1. Outstanding Research Contributions

    • High-Impact Publications: 30+ peer-reviewed papers in Q1/Q2 journals (e.g., Tribology International, ACS Applied Materials & Interfaces), with 500+ citations and an h-index of ~12.

    • Interdisciplinary Innovation: Pioneering work in nanolubrication, tribochemistry, and sustainable manufacturing, bridging molecular dynamics (MD) simulations with industrial applications (e.g., ARC-funded projects on eco-friendly lubricants).

    • Key Findings: Demonstrated the role of iron oxides in tribofilm formation (2022) and designed adaptive lubricants for hot rolling (2020), directly impacting energy-efficient manufacturing.

  2. Leadership in Competitive Grants

    • Secured $760K+ in research funding as CI/PI, including:

      • ARC Discovery Project DP240102945 ($631K, 2024–2026) on green lubricants.

      • NSFC Grant (RMB 580K, 2021–2023) as Principal Investigator.

    • Collaborated globally (Denmark, China) via CAS President’s Fellowship (2021).

  3. Academic & Industrial Impact

    • Teaching & Mentorship: Lectured advanced courses (Finite Element Methods, CFD) and supervised 4 PhD completions.

    • Industry Relevance: Developed solutions for Zn-air batteries (DTU) and offshore gas platforms (PetroVietnam).

  4. Recognition & Outreach

    • Invited talks at Leeds-Lyon Symposium and World Tribology Congress.

    • Awards: 1st Class Honors (2011), PhD Scholarship (2012).

Education 🎓📖

  • PhD in Mechanical Engineering (2012–2017)

    • University of Wollongong (UOW), Australia

    • Thesis: “Tribological Behavior of Thin-Film Lubricants in Metal Forming Processes”

  • Bachelor of Science (Honors) in Aeronautical Engineering (2006–2011)

    • Ho Chi Minh City University of Technology, Vietnam

    • Graduated with 1st Class Honors

Professional Experience 💼🔧

Academic & Research Roles

  • Part-time Lecturer (2024–Present)

    • University of Wollongong (UOW), Australia

    • Courses: Mechanics of Solids (ENGG251), Manufacturing Engineering Principles (MECH382)

  • Research Fellow (2022–2024)

    • Technical University of Denmark (DTU), Copenhagen

    • Focus: Electrolyte design for Zn-air batteries, sustainable energy materials

  • Associate Research Fellow (2016–2022)

    • University of Wollongong (UOW), Australia

    • Key Projects: ARC Discovery & Linkage grants on adaptive lubricants, pipeline coatings

Industry Experience

  • Technical Engineer (2011–2012)

    • PetroVietnam Technical Services (PTSC M&C)

    • Role: Mechanical design for offshore gas platforms (Su Tu Trang Field Project)

Research Interests On Materials Engineering 🔍

  1. Advanced Lubrication Science

    • Nano-tribology, boundary lubrication, high-temperature tribofilms.

  2. Computational Tribochemistry

    • Ab initio and molecular dynamics (MD) simulations of lubricant-surface interactions.

  3. Sustainable Manufacturing

    • Eco-friendly lubricants for cold/hot rolling (e.g., ARC DP240102945).

  4. Energy Materials

    • Electrolytes for batteries (Zn-air), corrosion-resistant coatings.

Awards & Honors 🏆🎖️

  • CAS President’s International Fellowship (2021, China)

  • PhD Scholarship (2012–2016, UOW)

  • 1st Rank in Aeronautical Engineering (2011, Vietnam)

Publications 📚

  • Evolution of microstructure, temperature and stress in a high speed steel work roll during hot rolling: Experiment and modelling
    Authors: GY Deng, Q Zhu, K Tieu, HT Zhu, M Reid, AA Saleh, LH Su, TD Ta, …
    Year: 2017
    Citations: 78

  • Adsorption of Normal-Alkanes on Fe(110), FeO(110), and Fe2O3(0001): Influence of Iron Oxide Surfaces
    Authors: TD Ta, AK Tieu, H Zhu, B Kosasih
    Year: 2015
    Citations: 66

  • A study of abrasive wear on high speed steel surface in hot rolling by Discrete Element Method
    Authors: HT Phan, AK Tieu, H Zhu, B Kosasih, Q Zhu, A Grima, TD Ta
    Year: 2017
    Citations: 60

  • Theoretical and experimental investigation of thermal and oxidation behaviours of a high speed steel work roll during hot rolling
    Authors: GY Deng, HT Zhu, AK Tieu, LH Su, M Reid, L Zhang, PT Wei, X Zhao, …
    Year: 2017
    Citations: 49

  • Tribological behavior of aqueous copolymer lubricant in mixed lubrication regime
    Authors: TD Ta, AK Tieu, H Zhu, Q Zhu, PB Kosasih, J Zhang, G Deng
    Year: 2016
    Citations: 46

  • Chemical origin of sodium phosphate interactions on iron and iron oxide surfaces by first principle calculations
    Authors: HTT Ta, AK Tieu, H Zhu, H Yu, TD Ta, S Wan, NV Tran, HM Le
    Year: 2018
    Citations: 41

  • GPS-based wireless ad hoc network for marine monitoring, search and rescue (MSnR)
    Authors: TD Ta, TD Tran, DD Do, HV Nguyen, YV Vu, NX Tran
    Year: 2011
    Citations: 29

  • First-principles study of the adsorption and depolymerization mechanisms of sodium silicate on iron surfaces at high temperature
    Authors: NV Tran, AK Tieu, H Zhu, HTT Ta, TD Ta, HM Le
    Year: 2018
    Citations: 26

  • Effect of adding soft Bi2O3 on structural modification and tribological regulation of Ni-5 wt% Al composite coating in wide temperatures range
    Authors: H Sun, G Yi, S Wan, P Shi, J Yang, ST Pham, AK Tieu, TD Ta
    Year: 2021
    Citations: 25

  • Computational tribochemistry: A review from classical and quantum mechanics studies
    Authors: HTT Ta, NV Tran, AK Tieu, H Zhu, H Yu, TD Ta
    Year: 2021
    Citations: 24

Conclusion 🌟

Dr. Thi Dinh Ta is a versatile researcher and educator whose work spans fundamental tribology, industrial applications, and sustainable technology development. His expertise in computational modeling, lubricant design, and energy materials positions him as a key contributor to next-generation manufacturing solutions. With a strong record of grants, publications, and mentorship, he continues to drive innovation in mechanical engineering.