Mohammed Al Bahri | Nanomagnetism | Research Excellence Award

Research Excellence Award

Mohammed Al Bahri
A’Sharqiyah University, Oman
Mohammed Al Bahri
Affiliation A’Sharqiyah University
Country Oman
Scopus ID 57188624635
Documents 24
Citations 259
h-index 8
Subject Area Nanomagnetism
Event Global Nano Awards
ORCID 0000-0001-6051-5143

Mohammed Al Bahri is an associate professor of Physics at A’Sharqiyah University in Oman with research specialization in nanomagnetism, magnetic nanowires, and magnetic domain wall engineering. His academic contributions focus on spin-wave dynamics, magnetic nanostructures, and advanced materials for spintronic applications. He completed his doctoral studies at Sultan Qaboos University in 2018 and has contributed extensively to the development of nanoscience research within Oman and the wider international scientific community.[1]

Abstract

This academic profile summarizes the research achievements and scholarly activities of Mohammed Al Bahri in the field of nanomagnetism and magnetic nanostructures. His work primarily addresses magnetic spin-wave dynamics, domain wall engineering, and nanostructure optimization for spintronic and magnonic technologies. Through peer-reviewed publications and institutional leadership, he has contributed to the advancement of applied nanoscience and magnetic materials research.[2]

Keywords

Nanomagnetism, Magnetic Nanowires, Spintronics, Magnetic Domain Walls, Magnonic Devices, Nanostructures, Spin-Wave Dynamics, Advanced Magnetic Materials.

Introduction

Nanomagnetism has become an increasingly important area within modern condensed matter physics due to its applications in memory storage, magnetic sensors, and next-generation computational devices. Mohammed Al Bahri has focused his research on magnetic nanostructures and the physical behavior of spin-wave dynamics under varying geometrical and stress-related conditions. His studies contribute to the broader understanding of nanoscale magnetic phenomena and their integration into emerging technological systems.[3]

Research Profile

Mohammed Al Bahri has served in academic and administrative positions at A’Sharqiyah University since 2018. Prior to joining the university sector, he worked for approximately two decades within the Ministry of Education in Oman, focusing on educational monitoring and evaluation. His academic profile includes research leadership, committee administration, and interdisciplinary collaboration in nanoscience and applied physics.[1]

Research Contributions

  • Investigated stress-induced spin-wave dynamics in magnetic antivortices and nanodots.
  • Developed studies on domain wall engineering for multi-state memory applications.
  • Contributed to research on graphene-assisted ferromagnetic cobalt nanoparticles.
  • Explored thermal switching and magnetic anisotropy in spintronic memory systems.

Publications

  • Angular dependence of stress-induced spin-wave dynamics in antivortices stabilized in square FeGa nanodots.
  • Controlling the spin-wave modes in planar nanostructure with wire-ring morphology.
  • Engineering of magnetic domain walls via antidot geometry for advanced multi-state memory applications.

Research Impact

The research activities of Mohammed Al Bahri demonstrate measurable scholarly impact through indexed publications, citation performance, and international conference recognition. His work has contributed to the advancement of magnetic nanodevice modeling and spintronic applications relevant to energy-efficient computing systems. In addition to research output, his leadership in academic committees reflects institutional engagement and scientific mentorship.[4]

Award Suitability

Mohammed Al Bahri’s profile aligns with the objectives of the Research Excellence Award due to his sustained contributions to nanomagnetism research, publication record, and recognition through academic awards. His achievements include the Best Presenter Award at the International Conference on Magnetism and Magnetic Materials 2020 and institutional recognition for research excellence during the 2022–2023 academic year. These accomplishments support his standing as an active contributor to applied nanoscience research in the Middle East and internationally.[5]

Conclusion

The academic and research profile of Mohammed Al Bahri reflects consistent engagement in nanomagnetic materials research and applied spintronics. His scientific contributions, institutional service, and international collaborations demonstrate a balanced scholarly career that supports continued advancements in nanoscale magnetic technologies and interdisciplinary physics research.[6]

References

  1. Elsevier. (n.d.). Scopus author details: Mohammed Al Bahri, Author ID 57188624635. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=57188624635
  2. ORCID. (n.d.). Mohammed Al Bahri researcher profile.
    https://orcid.org/0000-0001-6051-5143
  3. Journal of Magnetism and Magnetic Materials. (2026). Angular dependence of stress-induced spin-wave dynamics in antivortices stabilized in square FeGa nanodots.
    https://doi.org/10.1016/j.jmmm.2026.174091
  4. Physica Scripta. (2026). Controlling the spin-wave modes in planar nanostructure with wire-ring morphology.
  5. Scientific Reports. (2026). Engineering of magnetic domain walls via antidot geometry for advanced multi-state memory applications.
    https://doi.org/10.1038/s41598-025-34632-w
  6. Nanomaterials. (2025). Improving Domain Wall Thermal Switching and Dynamics in Perpendicular Magnetic Anisotropy Nanowire for Reliable Spintronic Memory.
    https://doi.org/10.3390/nano15201552

Zeshan Javed | Nanomagnetism | Best Researcher Award

Mr. Zeshan Javed | Nanomagnetism | Best Researcher Award

Harbin Institute of Technology | China

Mr. Zeshan Javed is a dedicated and innovative experimental physicist and lecturer with extensive experience in condensed matter physics, specializing in the synthesis, structural, dielectric, magnetic, and spectral characterization of advanced materials such as X-type, Y-type, R-type, and U-type hexaferrites, ferrites, ceramics, and nanomaterials for high-frequency, data storage, and microwave absorption applications. His research contributions include studies on the structural, morphological, dielectric, and spectral properties of Sr-Mg-Ho X-type magnetic nanomaterials suitable for microwave absorption, structural, physicochemical, and electrical properties of Co2Y-type barium hexaferrites, and the impact of Gd-substitution on structural, dielectric, Raman, photoluminescence, and spectroscopic characteristics of Ba0.4Sr0.6Co2Fe16O27 ceramics. He has also investigated the structural, spectroscopic, Raman, photoluminescence, and electrical properties of Cd-substituted Ba–Zn R-type hexaferrites, structural, spectral, elemental, reflection loss, and dielectric multifunctional features of Sr Ni-based U-type hexagonal ferrite nanomaterials for microwave absorption, and promising X-type hexagonal ferrites for high-frequency applications. Additionally, he has explored the enrichment of structural, physical, mechanical, spectral, dielectric, and magnetic properties of Sr2Ni2Fe28O46 complex magnetic oxides via Co-In co-substitution, the impact of Sm substitution on structural, spectroscopic, microstructural, XPS, and dielectric properties of Sr3Zn2Fe24O41 Z-type hexaferrites, and multifunctional analyses of Cd-substituted Ba(Cu2)2Fe4-xCdxO11 R-type hexaferrites for enhanced data storage and high-frequency applications. His work also includes structural, physicochemical, and dielectric features of Gd3+ substituted Ba–Zn–Y hexa-ferrites for microwave absorption, electrochemical, optical, dielectric, magnetic, and absorption properties of Ho-doped Sr-Mg nano ferrites, photocatalytic degradation of tetracycline via peroxymonosulfate activation using W0.5Ag0.5FeO3, enhanced peroxymonosulfate activation by ZIF-67/Bi/Ti@NF bimetallic systems for antibiotic degradation, promising Li2 nanoferrites with eco-friendly synthesis and detailed nano-structural analyses, and remarkable energy storage performance in lead-free tungsten bronze ferroelectrics for high-temperature applications. Through these studies, Mr. Javed has advanced the understanding of magnetic and dielectric nanomaterials, providing insights for microwave devices, electromagnetic interference attenuation, sustainable water treatment, and energy storage technologies. His research integrates experimental techniques such as sol-gel auto-combustion synthesis, X-ray diffraction, FTIR, SEM, Raman spectroscopy, photoluminescence, and electrical characterization, emphasizing both fundamental understanding and practical applications of advanced functional materials.

Profile: Google Scholar | Orcid

Featured Publications

  • Javed, Z., Rasool, R. T., Alhummiany, H., Majeed, A., Gulbadan, S., Ashraf, G. A., Al-Anazy, M., Irfan, M., Akhtar, M. N., Arshad, M., & Khan, M. A. (2024). Structural, morphological, dielectric, and spectral properties of Sr-Mg-Ho X-type magnetic nano materials suitable for microwave absorption application. Vacuum, 222, 112965.

  • Arshad, M., Khan, M. A., Rasool, R. T., Arshad, M. I., Javed, Z., Hayat, S., & Ilyas, S. Z. (2024). Structural, physicochemical and electrical properties of Co2Y-type barium hexaferrites. Ceramics International, 50(13), 23047–23057.

  • Yosif, M., Khan, M. A., Rasool, R. T., Gulbadan, S., Alhummiany, H., Junaid, M., Bayhan, Z., Javed, Z., Mahmood, K., Abdel Hafez, A. A., Irfan, M., & Akhtar, M. N. (2024). Impact of Gd-substitution on structural, dielectric, spectroscopic, Raman, and photoluminescence properties of Ba0.4Sr0.6Co2Fe16O27 ceramics. Journal of Materials Chemistry and Physics, 324, 129701.

  • Mehmood, A., Khan, M. A., Gulbadan, S., Alresheedi, N. M., Ashraf, G. A., Almashnowi, M. Y., Irfan, M., Elhosiny Ali, H., Javed, Z., & Al-Buriahi, M. S. (2025). Structural, spectral, elemental, reflection loss, and dielectric multifunctional features of Sr Ni-based U-type hexagonal ferrite nanomaterials for microwave absorption applications. Ceramics International.

  • Majeed, A., Khan, M. A., Ahmad, A., Javed, Z., Lodhi, M. Y., Khan, S., & Raheem, F. ur. (2025). Promising X-type hexagonal ferrites for high-frequency applications; synthesis and characterizations. Ceramics International.