Best Researcher Award
Dr. Dr. Qayyum Shah
U.E.T (University of Engineering & Technology) Peshawar, Pakistan
Dr. Dr. Qayyum Shah is a researcher affiliated with U.E.T (University of Engineering & Technology) Peshawar, Pakistan, whose indexed scholarly profile is situated within the field of Chemical Engineering. His documented research activity includes studies related to nanofluids, nanoparticle transport, heat transfer, mathematical modelling, fluid dynamics, and computational engineering. The supplied Scopus record identifies 31 documents, 507 citations, and an h-index of 12, providing measurable indicators of scholarly visibility and research influence. [1]
Abstract
Dr. Dr. Qayyum Shah’s academic profile reflects research activity in Chemical Engineering and associated areas of computational and applied engineering. His research record includes work examining nanoparticle behaviour, nanofluid systems, fluid flow, heat transfer, and mathematical modelling. One documented study investigated Lorentz-force effects on interactions of nanoparticles in emerging mechanisms, combining mathematical formulation with computational analysis of transport and thermodynamic characteristics. [2] The supplied bibliometric indicators of 31 documents, 507 citations, and an h-index of 12 provide a quantitative overview of his indexed scholarly activity.
Keywords
Dr. Dr. Qayyum Shah; Chemical Engineering; nanofluids; nanoparticles; fluid dynamics; heat transfer; mathematical modelling; computational engineering; Lorentz forces; transport phenomena; research impact; Best Researcher Award.
Introduction
Chemical Engineering encompasses the analysis and design of processes involving fluids, materials, energy, chemical transformations, and transport phenomena. Contemporary research in the discipline increasingly incorporates nanotechnology, numerical simulation, mathematical modelling, and multiphysics approaches. Shah’s documented research fits within this interdisciplinary environment through investigations involving nanofluids, nanoparticles, flow behaviour, thermal transport, and related computational methods. [2]
Research Profile
The available academic profile identifies Shah with U.E.T (University of Engineering & Technology) Peshawar and the broad subject area of Chemical Engineering. His research interests, as reflected in indexed scholarly work, include advanced fluid systems and the behaviour of nanoparticles under different physical conditions. Such research connects fundamental fluid mechanics with emerging engineering applications and provides opportunities for examining thermal performance, concentration distributions, velocity fields, and entropy-generation characteristics. [2]
- Chemical engineering and computational modelling.
- Nanofluid and nanoparticle transport phenomena.
- Heat-transfer and thermal-flow analysis.
- Mathematical modelling of complex engineering systems.
Research Contributions
A representative contribution in Shah’s publication record concerns the mathematical investigation of Lorentz-force effects on nanoparticle interactions. The study considered physical parameters influencing fluid velocity, temperature distribution, nanoparticle concentration, and entropy generation, illustrating the use of mathematical and computational methods for analysing advanced nanofluid systems. [2] Such work contributes to the broader understanding of transport mechanisms that are relevant to thermal engineering and nanoscale fluid applications.
Publications
The supplied record identifies 31 Scopus-indexed documents associated with Shah. One documented publication is Lorentz Forces Effects on the Interactions of Nanoparticles in Emerging Mechanisms with Innovative Approach, published in Symmetry, volume 12, article 1700 in 2020. The study demonstrates an interdisciplinary approach combining nanoparticle science, fluid mechanics, mathematical analysis, and computational investigation. [2]
Research Impact
The supplied Scopus metrics record 507 citations across 31 documents and an h-index of 12. An h-index of 12 indicates that at least 12 publications in the indexed record have each received at least 12 citations. [1] These indicators provide evidence of measurable scholarly attention, although bibliometric measures should be considered alongside research originality, methodological quality, publication venues, collaboration, and disciplinary context when evaluating overall academic contribution.
Award Suitability
Shah’s documented academic profile presents several factors relevant to consideration for the Best Researcher Award, including a sustained indexed publication record, measurable citation impact, and research activity within Chemical Engineering. His work involving nanofluids, nanoparticles, transport phenomena, and computational modelling demonstrates engagement with technically significant engineering questions. The combination of 31 documents, 507 citations, and an h-index of 12 provides a quantitative basis for assessment, while final recognition should also consider the originality, significance, and quality of individual research contributions.
Conclusion
Dr. Dr. Qayyum Shah’s academic profile reflects interdisciplinary research activity in Chemical Engineering, particularly in areas involving nanofluids, nanoparticles, fluid dynamics, thermal transport, and mathematical modelling. The supplied Scopus record of 31 documents, 507 citations, and an h-index of 12 provides a clear quantitative representation of his scholarly visibility. [1] His documented research contributions provide a substantive academic basis for consideration under the Best Researcher Award.
External Links
References
- University of Engineering & Technology Peshawar. Dr. Qayyum Shah – Faculty Profile. UET Peshawar.
https://www.uetpeshawar.edu.pk/instructor/dr-qayyum-shah/
- Khan, N. S., Shah, Q., Sohail, A., Kumam, P., Thounthong, P., Bhaumik, A., & Ullah, Z. (2020). Lorentz Forces Effects on the Interactions of Nanoparticles in Emerging Mechanisms with Innovative Approach. Symmetry, 12(10), 1700. DOI: 10.3390/sym12101700.
https://doi.org/10.3390/sym12101700
- DBLP. Bibliographic record for Qayyum Shah and co-authored research. The record identifies Shah as a co-author of the 2020 Symmetry article.
https://dblp.org/rec/journals/symmetry/KhanSSKTBU20
- ORCID. Qayyum Shah, ORCID iD 0000-0002-7507-2370.
https://orcid.org/0000-0002-7507-2370
- University of Engineering & Technology Peshawar. Faculty and Staff – Department of Basic Sciences & Islamiat. The university faculty listing identifies Dr. Qayyum Shah as a Lecturer and records his Ph.D. qualification.