Afshin Pashabadi | Chemistry and Materials Science | Innovative Research Award

Published on by Innovation Technologist

Innovative Research Award

Afshin Pashabadi
Razi University, Iran

Afshin Pashabadi
Affiliation Razi University
Country Iran
Scopus ID 36918924000
Documents 38
Citations 642
h-index 16
Subject Area Chemistry and Materials Science
Event Global Innovation Technologist Awards
ORCID 0000-0002-3046-2703

Afshin Pashabadi is a researcher affiliated with Razi University in Iran whose documented publications include work related to chemistry, materials science, proton-transfer mechanisms, oxygen evolution electrocatalysis and biomedical applications. His research profile, as represented by the supplied bibliographic information, provides a basis for examining scholarly output, citation activity and contributions across related scientific topics. This article presents an academic overview in the context of the Innovative Research Award associated with the Global Innovation Technologist Awards.

Abstract

This article reviews the available research profile and selected publications associated with Afshin Pashabadi. The supplied records describe three 2023 journal articles addressing proton relays in oxygen evolution reactions, phototriggered structures in biomedical applications and biomimetic approaches to electrocatalysis. These topics connect materials chemistry with energy conversion and biomedical research. The profile reports 38 documents, 642 citations and an h-index of 16. These metrics provide quantitative context but do not independently establish the originality, practical value or quality of individual contributions. [1]

Keywords

Innovative Research Award; Afshin Pashabadi; Razi University; chemistry; materials science; proton relay; oxygen evolution reaction; electrocatalysis; phototriggered structures; biomedical applications; research impact.

Introduction

Scientific innovation frequently develops through the integration of fundamental chemical principles and applied research challenges. Materials designed to facilitate proton transfer may contribute to improved understanding of catalytic processes, while phototriggered systems offer potential approaches for biomedical applications. Reviewing publications across these areas helps clarify research themes and identify opportunities for further investigation. The supplied publication records provide the principal evidence considered here. [2]

Research Profile

The available profile identifies chemistry and materials science as the principal subject area. Reported bibliometric indicators include 38 documents, 642 citations and an h-index of 16. These figures should be interpreted in relation to the date of retrieval, database coverage, co-authorship and disciplinary citation practices. The affiliation is recorded as Razi University; the institutional spelling should be verified against the official university record before publication.

Research Contributions

The selected works represent three complementary scientific directions:

  • Energy-related catalysis: Investigation of oxygen vacancies and proton hopping in inorganic materials for the oxygen evolution reaction. [3]
  • Biomedical applications: Review of phototriggered structures and their emerging biomedical uses. [4]
  • Biomimetic electrocatalysis: Examination of proton-relay mechanisms in Photosystem II as inspiration for oxygen evolution catalyst design. [5]

Publications

  1. “Oxygen Vacancy-Originated Inorganic Proton Relay for the Oxygen Evolution Reaction: Fast Proton Hopping via La-Doped Praseodymium Carbonate Hydroxide.” Journal of Physical Chemistry C (2023).
  2. “Phototriggered structures: Latest advances in biomedical applications.” Acta Pharmaceutica Sinica B (2023).
  3. “What Can be Learned from Proton Relays in Photosystem II toward Complete Biomimicking of Oxygen Evolution Reaction Electrocatalysis?” ChemElectroChem (2023).

Research Impact

The reported citation count and h-index suggest that the researcher’s publications have received scholarly attention within the indexing database. However, citation totals alone cannot determine whether findings have influenced clinical practice, industrial development or subsequent technologies. Such conclusions require examination of individual citing studies, independent replication and evidence of practical application.

Award Suitability

The Innovative Research Award of the Global Innovation Technologist Awards provides a context for recognizing documented scientific contributions. The supplied profile and publications offer potential evaluation evidence in chemistry and materials science. A comprehensive award assessment should additionally consider originality, methodological rigor, individual contribution, research reproducibility and significance beyond citation metrics. This overview does not independently verify an award decision or confirm that the researcher has received the award.

Conclusion

Afshin Pashabadi’s supplied research records cover proton-transfer mechanisms, oxygen evolution electrocatalysis and phototriggered biomedical structures. Together with the reported bibliometric indicators, these publications provide a starting point for reviewing research activity in chemistry and materials science. Further assessment using verified author records and full-text studies would help establish the scope and significance of the contributions.

References

  1. Elsevier. (n.d.). Scopus author details: Afshin Pashabadi, Author ID 36918924000. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=36918924000
  2. ORCID. (n.d.). Afshin Pashabadi researcher identifier.
    https://orcid.org/0000-0002-3046-2703
  3. American Chemical Society. (2023). Oxygen Vacancy-Originated Inorganic Proton Relay for the Oxygen Evolution Reaction: Fast Proton Hopping via La-Doped Praseodymium Carbonate Hydroxide. Journal of Physical Chemistry C. DOI: 10.1021/acs.jpcc.3c06059.
    https://doi.org/10.1021/acs.jpcc.3c06059
  4. Elsevier. (2023). Phototriggered structures: Latest advances in biomedical applications. Acta Pharmaceutica Sinica B. DOI: 10.1016/j.apsb.2023.04.005.
    https://doi.org/10.1016/j.apsb.2023.04.005
  5. Wiley. (2023). What Can be Learned from Proton Relays in Photosystem II toward Complete Biomimicking of Oxygen Evolution Reaction Electrocatalysis? ChemElectroChem. DOI: 10.1002/celc.202300423.
    https://doi.org/10.1002/celc.202300423
  6. Global Innovation Technologist Awards. (n.d.). Official awards website.
    innovationtechnologist.com

Muhammad Qasim Shah | Advanced Materials Engineering | Young Scientist Award

Published on by Innovation Technologist

Young Scientist Award

Muhammad Qasim Shah
Bournemouth University, United Kingdom

         Muhammad Qasim Shah
Affiliation Bournemouth University
Country United Kingdom
Scopus ID 58591521400
Documents 12
Citations 319
h-index 8
Subject Area Advanced Materials Engineering
Event Global Innovation Technologist Awards
Google Scholar ID XFtFVqQAAAAJ

Muhammad Qasim Shah is a researcher affiliated with Bournemouth University in the United Kingdom, whose reported academic metrics indicate research activity in advanced materials engineering. This profile presents his available bibliometric information and a reported 2026 review publication concerning cathodic blister evolution in multilayer coatings. It also outlines the relevance of his research area to the Young Scientist Award associated with the Global Innovation Technologist Awards. The information presented should be interpreted as a profile summary rather than an independent verification of award eligibility or selection.

Abstract

This article summarizes the available research profile of Muhammad Qasim Shah, including reported publication and citation indicators and a 2026 review titled “Cathodic Blister Evolution in Multilayer Coatings: A Critical Review of Diffusion, Fracture Coupling and Stability Criteria.” The review addresses mechanisms relevant to protective coating performance, including diffusion, fracture interactions, and blister stability. These topics are important to understanding coating degradation and materials durability. The bibliographic details supplied identify the article as published in Materials in 2026; its DOI and full text were not provided for verification. [1]

Keywords

Muhammad Qasim Shah; Young Scientist Award; advanced materials engineering; multilayer coatings; cathodic blistering; diffusion; fracture mechanics; materials durability; bibliometrics; research impact.

Introduction

Advanced materials engineering examines the design, performance, and durability of materials used in demanding environments. Protective coatings are particularly important because their integrity can influence corrosion resistance, component lifespan, and maintenance requirements. Research into blister formation and coating failure contributes to the scientific understanding needed to evaluate these systems. Shah’s reported review topic is relevant to this wider research landscape, although detailed conclusions should be drawn from the complete publication rather than its title alone. [2]

Research Profile

The supplied profile records 12 documents, 319 citations, and an h-index of 8. These indicators provide a snapshot of indexed research output and citation activity. They may change over time and can vary across databases because of indexing coverage, author disambiguation, and record updates. The Scopus author identifier provides a route for checking the indexed record. [3]

Research Contributions

The supplied publication concerns the interaction of diffusion and fracture processes in multilayer coatings and the criteria used to assess blister stability. Such a review topic can help organize existing findings, identify unresolved questions, and inform future experimental or modelling studies. The specific methods, recommendations, and conclusions require confirmation from the full article.

Publications

The supplied bibliographic record lists the open-access review “Cathodic Blister Evolution in Multilayer Coatings: A Critical Review of Diffusion, Fracture Coupling and Stability Criteria,” attributed to Muhammad Qasim Shah, Zulfiqar A. Khan, Adil Saeed, and Yonggang Meng, in Materials (2026). The provided record displays zero citations for this particular item at the time it was captured; this does not contradict the higher overall citation total reported for the researcher. [1]

Research Impact

The reported 319 citations and h-index of 8 offer quantitative indicators of scholarly visibility. Citation counts alone do not establish research quality, practical adoption, or societal benefit. A fuller assessment would consider publication quality, individual contribution, methodological rigour, collaboration, and evidence of influence beyond academic citations. [4]

Award Suitability

The Young Scientist Award within the Global Innovation Technologist Awards provides a context for presenting research activity and contributions. Shah’s reported subject area and coating-related review topic may be relevant to recognition in advanced materials engineering. Eligibility and suitability cannot be confirmed from bibliometric metrics alone and should be assessed against the event’s official criteria, career-stage requirements, supporting evidence, and independent review procedures. [5]

Conclusion

The available information describes a researcher affiliated with Bournemouth University, with reported indexed output of 12 documents, 319 citations, and an h-index of 8. The identified review topic connects to coating stability and materials durability. Further verification of the publication, researcher identifiers, and award criteria would support a comprehensive and balanced recognition assessment.

References

  1. Shah, M. Q., Khan, Z. A., Saeed, A., & Meng, Y. (2026). Cathodic Blister Evolution in Multilayer Coatings: A Critical Review of Diffusion, Fracture Coupling and Stability Criteria. Materials.
  2. Bournemouth University. Institutional research and academic information.
  3. Elsevier. (n.d.). Scopus author details: Muhammad Qasim Shah, Author ID 58591521400. Scopus.
    Scopus Author Profile
  4. Global Innovation Technologist Awards. Official website and award information. Award criteria should be checked against current official guidance.
    innovationtechnologist.com

Ruifeng Dong | Materials Science | Best Innovator Award

Published on by Innovation Technologist

Assoc. Prof. Dr. Ruifeng Dong | Materials Science | Best Innovator Award

Associate Professor at North University of China | China

Dong Ruifeng is a researcher and lecturer with expertise in metallic materials, particularly titanium and titanium alloys, as well as superalloys and aluminum alloys. His work focuses on the processing and heat treatment of metallic materials, forging and rolling deformation, solid-state phase transformation, and advanced material characterization. He has significant experience in crystallography and electron microscopy techniques, including TEM, HRTEM, SEM, and EBSD. His research contributions include studies on microstructural evolution, phase transformations, and their influence on the mechanical properties of alloys.

Publication Profile 

Scopus

Educational Background 

He holds a Ph.D. and a Master’s degree in Materials Science from Northwestern Polytechnical University in China and a Bachelor’s degree in Materials Science from Shaanxi University of Science & Technology. He also completed an academic research visit at LEM3 in France during his doctoral studies.

Professional Experience 

He is currently a lecturer at the North University of China, where he continues his research and teaching activities in materials science and engineering. His previous academic journey includes extensive research in microstructural characterization, phase transformation, and deformation mechanisms of titanium alloys.

Research Interests 

His research interests center on metallic materials, particularly titanium and titanium alloys, superalloys, and aluminum alloys. He focuses on processing methods, heat treatment, forging, rolling deformation, solid-state phase transformation, and the crystallography of metallic systems. His work also emphasizes advanced material characterization using high-resolution microscopy techniques.

Awards and Honors 

He has received multiple academic awards and scholarships during his education, including campus and national-level scholarships for excellence in academic and research performance. These recognitions highlight his consistent achievements and contributions throughout his academic career.

Research Skills 

He is skilled in advanced material characterization techniques such as TEM, HRTEM, SEM, and EBSD. His expertise extends to crystallographic analysis, microstructural characterization, and studying phase transformation mechanisms. He is also proficient in correlating microstructural features with mechanical properties and understanding deformation mechanisms in metallic alloys.

Publications 

1. Correlation between the mechanical properties and the <110> texture in a hot-rolled near β titanium alloy
Year: 2022

2. Hot-corrosion behavior associated with the evolution of corrosion scales of a Ni-based superalloy in molten salts
Year: 2021

3. Morphology characteristics of α precipitates related to the crystal defects and the strain accommodation of variant selection in a metastable β titanium alloy
Year: 2021

4. ω-Assisted refinement of α phase and its effect on the tensile properties of a near β titanium alloy
Year: 2020

5. β to ω transformation strain associated with the precipitation of α phase in a metastable β titanium alloy
Year: 2021

Conclusion 

Dong Ruifeng is a dedicated researcher with a strong academic background and professional experience in the field of metallic materials and advanced characterization. His work integrates theoretical knowledge with practical expertise, contributing significantly to the understanding of phase transformations, deformation behavior, and material properties in metallic systems. He demonstrates strong collaborative skills and adaptability through his international research experience, positioning him as a valuable contributor to scientific and industrial advancements in materials science.