Owais Amin | Physics | Best Researcher Award

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Best Researcher Award

Owais Amin
Lovely Professional University, India

Owais Amin
Affiliation Lovely Professional University
Country India
Scopus ID 57222524441
Documents 6
Citations 105
h-index 3
Subject Area Physics, Materials Science, Energy Storage
Event Global Sensor Awards
ORCID 0000-0001-8337-0266

Owais Amin is an Indian physicist and materials science researcher whose work focuses on solid-state electrolytes, sodium-ion batteries, nanocomposites, dielectric materials, and advanced energy storage technologies. He earned his Ph.D. in Physics from Lovely Professional University in 2024, where his doctoral research investigated the effect of percolation phenomena in solid electrolyte composites for sodium batteries. His research contributions span ionic conductivity enhancement, thermal stability optimization, nanomaterial synthesis, and sustainable battery technologies.[1]

Abstract

This article presents an academic overview of Dr. Owais Amin’s research career, educational background, scholarly publications, and scientific contributions to solid-state electrolytes and sodium-ion battery technologies. His research integrates experimental materials science, electrochemical characterization, nanocomposite engineering, and energy storage innovation. Through peer-reviewed publications, conference presentations, and interdisciplinary collaborations, he has contributed to the understanding of ionic transport mechanisms, dielectric behavior, and conductivity enhancement in advanced electrolyte systems.[2]

Keywords

Solid-State Electrolytes, Sodium-Ion Batteries, Ionic Conductivity, Energy Storage Systems, Nanocomposites, Materials Science, Electrochemistry, Dielectric Properties, Thermal Stability, Nanotechnology, Physics, Functional Materials, Battery Research, Sustainable Energy.

Introduction

The growing demand for sustainable and efficient energy storage technologies has increased interest in sodium-ion batteries as alternatives to lithium-based systems. Researchers worldwide continue to investigate novel solid electrolyte materials capable of improving safety, conductivity, and long-term performance. Dr. Owais Amin has contributed to this field through research focused on sodium beta-alumina electrolytes, polymer-ceramic hybrid systems, nanocomposites, and electrochemical characterization techniques.[3]

Research Profile

Dr. Amin completed his Bachelor of Science degree from the University of Kashmir before pursuing both his Master’s and Doctoral degrees in Physics at Lovely Professional University. His doctoral thesis, titled Effect of Percolation in Solid Electrolyte Composites in Sodium Battery, examined how microstructural connectivity influences ionic transport and overall electrochemical performance. His expertise encompasses solid-state physics, condensed matter physics, spectroscopy, electrodynamics, mathematical physics, and advanced materials characterization.[1]

  • Ph.D. in Physics, Lovely Professional University (2024).
  • M.Sc. in Physics, Lovely Professional University (2019).
  • B.Sc. in Physics and Mathematics, University of Kashmir (2017).
  • Assistant Professor, Lovely Professional University (2023–2025).

Research Contributions

Dr. Amin’s research contributions are centered on the development and optimization of solid-state electrolyte materials and nanostructured systems for energy storage applications. His studies have explored conductivity enhancement through doping strategies, polymer-ceramic hybridization, and nanocomposite engineering. He has also participated in interdisciplinary research involving photocatalysis, environmental remediation, spinel ferrites, graphene-based nanomaterials, and pseudocapacitor technologies.[4]

  • Optimization of sodium β-alumina solid electrolytes.
  • Investigation of ionic conductivity and dielectric behavior.
  • Development of PVDF–sodium β-alumina hybrid nanocomposites.
  • Research on graphene-based nanocomposite energy storage materials.
  • Application of nanotechnology in photocatalytic degradation systems.

Publications

  • Amin O. et al. (2023). Effect of indium doping on thermal stability and dielectric property in sodium beta alumina solid electrolyte. Journal of Solid-State Electrochemistry.
  • Malik A.Q. et al. (2022). Synthesis, characterization, and photocatalytic effect of CuS-ZnO nanocomposite. Inorganic Chemistry Communications. DOI: https://doi.org/10.1016/j.inoche.2022.109797
  • Shah S.A. et al. (2025). Synthesis and optimization of ionic conductivity in PVDF–sodium β-alumina hybrid nanocomposite system. Journal of Materials Science.
  • Shah S.A. et al. (2025). Role of annealing on structural and magnetic properties of Mg–Zn spinel ferrite nanoparticles. Journal of Sol-Gel Science and Technology.
  • Shah S.A. et al. (2026). One-Pot Hydrothermal Fabrication of Thermally Stable V₂O₅/rGO Nanocomposite for High-Rate Pseudocapacitors. Ceramics International.
  • Shah S.A., Basandrai D., Amin O. (2026). Nanocomposites Based on 2D Materials: Synthesis–Property Relationships for Next-Generation Energy Storage. ChemistrySelect.

Research Impact

The scientific contributions of Dr. Amin support the advancement of next-generation energy storage technologies by addressing challenges associated with ionic conductivity, thermal stability, and material durability. His studies contribute to the broader transition toward sustainable and economically viable battery systems. In addition, his work demonstrates interdisciplinary integration between physics, nanotechnology, electrochemistry, and materials engineering.[5]

Beyond publications, he has actively disseminated research findings through international conferences, workshops, and academic collaborations. His recognition as Best Presenter at the International Conference on Advanced Functional Materials and Devices highlights his scientific communication capabilities and engagement with the research community.[6]

Award Suitability

Dr. Owais Amin demonstrates several characteristics commonly recognized in academic and scientific excellence awards. These include a focused research agenda, peer-reviewed scholarly output, participation in international scientific conferences, contributions to emerging energy technologies, and a commitment to both research and higher education. His work in sodium-ion battery materials aligns with global priorities in sustainable energy storage and advanced functional materials research.[3]

  • Established publication record in recognized journals.
  • Interdisciplinary research contributions.
  • Conference presentations and academic outreach.
  • Teaching and mentoring experience.
  • Research relevance to sustainable energy technologies.

Conclusion

Dr. Owais Amin represents an emerging scholar in physics and materials science whose research has focused on improving the performance of solid-state electrolyte systems for sodium-ion batteries. Through scholarly publications, conference participation, educational service, and interdisciplinary collaborations, he has contributed to ongoing developments in energy storage science. His research portfolio reflects a combination of experimental rigor, technological relevance, and commitment to advancing sustainable materials research.

References

  1. Academic curriculum vitae and educational profile of Dr. Owais Amin, including doctoral research, academic qualifications, teaching experience, and research activities.
  2. Elsevier. (n.d.). Scopus author details: Owais Amin, Author ID 57222524441. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=57222524441
  3. Amin, O. et al. Research publications and conference proceedings relating to sodium-ion batteries, solid electrolytes, and functional materials.
  4. Journal publications in Journal of Materials Science, Journal of Solid-State Electrochemistry, ChemistrySelect, Ceramics International, and related materials science journals.
  5. Research contributions concerning ionic conductivity optimization, dielectric characterization, and nanocomposite development for energy storage applications.
  6. Best Presenter Award, 2nd International Conference on Advanced Functional Materials and Devices (AFMD-2023), University of Delhi, India.

Pablo David Esquinazi | Superconductivity | Best Researcher Award

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Prof Dr. Pablo David Esquinazi | Superconductivity | Best Researcher Award

Prof. Emeritus at University of Leipzig, Germany

Prof. Dr. Pablo David Esquinazi, born on May 25, 1956, is a distinguished physicist and Professor Emeritus at Universität Leipzig. With a career spanning over four decades, he is renowned for his contributions to condensed matter physics, particularly in superconductivity and magnetism. He has published extensively and holds multiple patents, reflecting his innovative spirit. A dedicated mentor, he has also played a pivotal role in shaping future scientists through various academic programs and collaborations. As a passionate researcher, he remains engaged in advancing scientific knowledge and applications.

Profile:

Strengths for the Award:

  1. Extensive Academic Background: Prof. Esquinazi has a solid educational foundation in physics, with degrees from prestigious institutions, including the Instituto Balseiro and Universität Bayreuth. His extensive academic experience, culminating in a Habilitation, underscores his deep expertise in the field.
  2. Professional Contributions: With nearly three decades as a professor and division speaker at Universität Leipzig, he has made significant contributions to the field of condensed matter physics, specifically in superconductivity and magnetism.
  3. Research Impact: His work has led to substantial advancements in understanding phenomena like granular superconductivity and defect-induced magnetism. His numerous publications in high-impact journals reflect a strong research output, with several articles receiving citations, indicating the influence of his work on the scientific community.
  4. Innovation and Patents: Prof. Esquinazi holds multiple patents in advanced materials and quantum sensors, demonstrating his commitment to translating research into practical applications. This innovation reflects his ability to push the boundaries of current scientific knowledge.
  5. Leadership in Collaborative Research: He has been actively involved in collaborative research projects, such as the SFB 762 and DFG FOR 404, showcasing his ability to work effectively within interdisciplinary teams and lead significant research initiatives.
  6. Recognition and Awards: The Rudolf-Kaiser-Award highlights his noteworthy contributions to the field, affirming his status as a leading researcher in physics.
  7. Mentorship and Education: His role as a member of the Graduate School BuildMona indicates his dedication to mentoring the next generation of physicists, enhancing the academic community and contributing to knowledge dissemination.

Areas for Improvement:

  1. Broader Outreach: While Prof. Esquinazi has contributed significantly to academic journals, expanding outreach through public engagement or interdisciplinary collaboration could further enhance his visibility and impact.
  2. Interdisciplinary Projects: Increasing participation in interdisciplinary research could lead to innovative breakthroughs by applying his expertise in new contexts, particularly in emerging fields like quantum computing or nanotechnology.
  3. Increased Publications in Open Access: Although many of his works are open access, increasing the number of freely available publications could broaden access to his research, fostering greater collaboration and recognition.
  4. Funding and Grants: Seeking larger or more diverse funding opportunities could enable more extensive research projects and support additional students or postdocs.

Education:

Prof. Esquinazi completed his studies in physics at the University of Tucuman and Instituto Balseiro in Argentina, earning his diploma in 1979. He furthered his education with a Doctorate from Instituto Balseiro in 1983, followed by a Habilitation at Universität Bayreuth in 1991. His academic journey was marked by mentorship from prominent physicists, shaping his expertise in low-temperature physics and materials science. This robust educational foundation has enabled him to contribute significantly to his field, fostering a deep understanding of complex physical phenomena.

Experience:

With professional experience beginning in 1980, Prof. Esquinazi served as a research associate and postdoc at renowned institutions, including CAB-Bariloche and Universität Heidelberg. He was a professor at Universität Bayreuth from 1988 to 1994 before joining Universität Leipzig, where he led the Felix-Bloch Institute until his retirement in 2022. His leadership in collaborative research initiatives, including the SFB 762, highlights his ability to drive impactful projects in the field. Throughout his career, he has also been an invited professor at several international universities, promoting global scientific collaboration.

Awards and Honors:

In 1993, Prof. Esquinazi received the prestigious Rudolf-Kaiser-Award, recognizing his significant contributions to understanding the thermally activated behavior of flux line lattices in high-temperature superconductors. This award underscores his innovative research and dedication to advancing knowledge in superconductivity and materials science. His work has been influential in the scientific community, garnering respect and recognition among peers. Through his ongoing research and mentorship, he continues to inspire future generations of physicists.

Research Focus:

Prof. Esquinazi’s research primarily revolves around superconductivity, magnetism, and the properties of functional materials. He has extensively studied granular superconductivity, defect-induced magnetism, and magnetotransport phenomena in various materials, including graphite and ZnO nanostructures. His work integrates experimental and theoretical approaches to explore the underlying physical principles, leading to novel applications in quantum sensors and advanced materials. As an editor and contributor to several significant publications, he actively shapes the discourse in condensed matter physics.

Publication Titles:

  • Magnetite crystallization in a sodium-calcium-silicate glass with high iron oxide concentration–Effect on the magnetic properties
  • Feasibility of room temperature detection of low energy single ions using nanometer-thick graphite
  • Hints of granular superconductivity in natural graphite verified by trapped flux transport measurements
  • Magnetotransport Properties of Microstructured ZnO Thin Films Grown on a- and r-Plane Sapphire Substrates
  • Defect-induced magnetism in TiO2: An example of quasi 2D magnetic order with perpendicular anisotropy
  • Spin Dynamics of a Solid-State Qubit in Proximity to a Superconductor
  • High-field and high-temperature magnetoresistance reveals the superconducting behavior of the stacking faults in multilayer graphene
  • Magnetic manipulation in Dy/Tb multilayer upon electron-irradiation
  • On the Localization of Persistent Currents Due to Trapped Magnetic Flux at the Stacking Faults of Graphite at Room Temperature
  • Nanometers-Thick Ferromagnetic Surface Produced by Laser Cutting of Diamond

Conclusion:

Prof. Dr. Pablo David Esquinazi exemplifies the qualities of an outstanding researcher deserving of the Best Researcher Award. His extensive academic background, impactful research contributions, innovative spirit, and leadership in collaborative projects position him as a leader in the field of physics. By enhancing outreach and interdisciplinary efforts, he could further amplify his already significant impact on the scientific community. Recognizing his achievements with this award would not only honor his past contributions but also encourage continued excellence and innovation in his future endeavors.