Ms. Navneet Gandhi | Gas Sensor Awards | Best Researcher Award

Ms. Navneet Gandhi | Gas Sensor Awards | Best Researcher AwardΒ 

Ms. Navneet Gandhi, IIITDM jabalpur, India

Navneet Gandhi is an aspiring semiconductor researcher currently pursuing a Ph.D. at IIITDM Jabalpur, India, with a strong focus on advanced nanoelectronic devices and sensor technologies. Her doctoral research centers on the simulation, fabrication, and machine learning-aided optimization of junctionless FET-based sensors, emphasizing negative capacitance and strain silicon approaches. With a Master’s degree in Embedded Systems and VLSI Design from SVITS Indore and a Bachelor’s degree in Electronics and Telecommunication Engineering from LNCT Indore, Navneet has built a solid academic foundation. Her research interests span simulation and modeling of NC-FET-based biosensors and gas sensors, the use of AI techniques in semiconductor device analysis, and the exploration of next-generation device architectures such as nanosheets, forksheets, and FerroFETs. Additionally, she is engaged in the fabrication of nanomaterial-based sensors. Navneet combines strong theoretical expertise with hands-on experience, aiming to contribute significantly to the advancement of sensor technology and nanoelectronics.

Professional Profile:

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ORCID

Summary of Suitability: Navneet Gandhi – Best Researcher Award

Navneet Gandhi is a highly promising researcher in the field of semiconductor devices, nanosensors, and machine learning-assisted modeling. With a solid academic background and deep-rooted research expertise, she is making significant contributions to the advancement of next-generation sensor technologies.

πŸ“š Education Background

  • πŸŽ“ Ph.D. (Pursuing) | 2021 – 2024
    Institute: IIITDM Jabalpur, India
    Thesis: Simulation, Fabrication, and Machine Learning-Aided Optimization of Advanced Junctionless FET-Based Sensors With Negative Capacitance and Strain Silicon Approach

  • πŸŽ“ Master of Engineering (M.E.) | 2011 – 2014
    Specialization: Embedded System and VLSI Design
    Institute: SVITS, Indore, India
    Percentage: 79.6%
    Thesis: Design of Voice Morphing System Using FFT

  • πŸŽ“ Bachelor of Engineering (B.E.) | 2006 – 2010
    Specialization: Electronics and Telecommunication Engineering
    Institute: L.N.C.T, Indore, India
    Percentage: 79.78%

  • 🏫 Intermediate (12th) | 2005 – 2006
    Board: Govt. G. H. S. School, Khirkiya (M.P)
    Percentage: 88%
    Subjects: Physics, Chemistry, Mathematics, English, Hindi

  • 🏫 High School (10th) | 2003 – 2004
    Board: Govt. G. H. S. School, Khirkiya (M.P), India

πŸ† Achievements, Awards & Honors

✨ Academic Excellence:

  • Consistently performed with distinction in both undergraduate and postgraduate studies (Above 79% in B.E. and M.E.) πŸŽ–οΈ

  • 88% in Intermediate with strong fundamentals in science and mathematics πŸ“πŸ”¬

🌟 Research Contributions (Ph.D. Focus):

  • Advanced research in simulation and fabrication of Negative Capacitance FET-based sensors

  • Integration of Machine Learning and Deep Learning in semiconductor device analysis πŸ€–πŸ“Š

  • Exploration of emerging technologies including NC-FETs, Nanosheets, Forksheet, and FerroFETs

πŸ”¬ Interdisciplinary Skills:

  • Simulation βš™οΈ

  • Nanomaterials fabrication πŸ§ͺ

  • Sensor modeling πŸ“‰

  • AI-based device optimization 🧠

PublicationΒ Top Notes:

Self-heating and interface traps assisted noise behavior analysis of JL-FinFET H2 gas sensor

Proof of concept: comparative study of machine learning models for optimization and performance evaluation of DM RSD JLNC-FinFET biosensor

Revealing the Reliability Performance of a Dielectric-Modulated Negative Capacitance Junctionless FinFET Biosensor

Junctionless negative capacitance FinFET-based dielectric modulated biosensor with strain silicon integration at different FE thickness

A proof of concept for reliability aware analysis of junctionless negative capacitance FinFET-based hydrogen sensor

Unveiling the Self-Heating and Process Variation Reliability of a Junctionless FinFET-Based Hydrogen Gas Sensor

Demonstration of a Junctionless Negative Capacitance FinFET-based Hydrogen Gas Sensor: A Reliability Perspective

Self-Heating and Interface Traps Assisted Early Aging Revelation and Reliability Analysis of Negative Capacitance FinFET

Dr. Naila Zubair | Gas Sensor | Best Researcher Award

Dr. Naila Zubair | Gas Sensor | Best Researcher AwardΒ 

Dr. Naila Zubair, Department of Chemistry, Women University Mardan, Pakistan

Dr. Naila Zubair is a distinguished chemist specializing in Nanoscience and Nanotechnology with extensive research experience in Tribology and Functional Nanomaterials. She earned her Ph.D. in Physical Chemistry from the National Centre of Excellence in Physical Chemistry, University of Peshawar, with a perfect CGPA of 4.00. Her research focuses on the morphology-controlled fabrication of colloidal fine particles of zinc compounds, gas sensor development, photocatalysis, and biomedical applications of nanomaterials, including dental cement and antibacterial coatings for medical implants. Dr. Zubair has expertise in advanced characterization techniques such as SEM, TEM, FT-IR, XRD, XPS, and UV-Vis Spectroscopy. She has received numerous merit scholarships, best poster presentation awards, and an International Research Support Fellowship from the Higher Education Commission (HEC) of Pakistan. Additionally, she serves as an HEC-approved Ph.D. supervisor and an active reviewer for the Iranian Journal of Chemistry and Chemical Engineering. As the Principal Organizer of the 6th International Conference on the Scientific Outlook of Sustainable Development Goals (2024), she continues to make impactful contributions to sustainable development and nanotechnology research.

Professional Profile:

SCOPUS

Summary of Suitability for Best Researcher Award

Dr. Naila Zubair is a highly accomplished researcher in Nanoscience, Nanotechnology, and Tribology, specializing in functional nanomaterials, gas sensors, biomedical applications, and photocatalysis. With her strong academic credentials, extensive research experience, and significant contributions to the scientific community, she is a highly suitable candidate for the Best Researcher Award.

πŸŽ“ Education & Work Experience

πŸ”¬ Ph.D. in Physical Chemistry (Nanoscience & Nanotechnology / Tribology) – University of Peshawar (2014–2020)
πŸ“š M.Phil. in Physical Chemistry – University of Peshawar (2012–2014)
πŸ‘©β€πŸ« B.Ed. (Teaching of Science) – University of Peshawar (2010–2011)
βš—οΈ M.Sc. in Chemistry – University of Peshawar (2008–2011)
πŸ§ͺ B.Sc. in Chemistry, Zoology & Botany – WAPDA Degree College, Tarbela Dam (2006–2008)

πŸ‘©β€πŸ”¬ Research Experience (2012–2019) – Nanotechnology & Tribology Research Lab, National Centre of Excellence in Physical Chemistry, UOP

  • Expertise in morphology-controlled fabrication of colloidal fine particles of zinc compounds
  • Hands-on experience with Hi-tech instruments (SEM, FT-IR, UV-Vis, XRD, TEM)
  • Gas sensor development, photo-catalysis, and biomedical applications (antibacterial ointments, dental cement, coatings for medical implants)
  • Antimicrobial studies of nanomaterials

πŸŽ–οΈ Achievements, Awards & Honors

πŸ† Principal Organizer – 6th International Conference β€œScientific Outlook of Sustainable Development Goals-2024”
πŸ“œ HEC Approved PhD Supervisor (2023–2026)
πŸ’° Merit Scholarship (PhD & M.Phil) – National Centre of Excellence, University of Peshawar
πŸ₯‡ Best Poster Presentation Awards – 13th & 12th International Chemistry Conferences (2014, 2013)
🌍 IRSIP Fellowship Award – Higher Education Commission of Pakistan
πŸ“ Reviewer – Iranian Journal of Chemistry & Chemical Engineering
πŸ“… Organizing Committee Member – Multiple International Chemistry Conferences (2012, 2013)

Dr. Naila Zubair is a dedicated researcher and academic with expertise in nanotechnology, tribology, and materials chemistry, contributing significantly to scientific advancements and mentoring future scholars. πŸš€

PublicationΒ Top Notes:

Morphology controlled fabrication of zinc phosphate hierarchical microspheres for room temperature ammonia gas sensor