Best Researcher Award
Somayeh Sohrabi
Sharif University of Technology, Iran
Somayeh Sohrabi is a researcher affiliated with Sharif University of Technology, Iran, whose listed publications address microfluidic separation technologies, electrochemical materials, and functional nanomaterials. Her research record includes work on spiral inertial microfluidic devices, metal–organic gels, and photocatalytic materials for pharmaceutical pollutant degradation. These topics connect chemical engineering with materials science, analytical technologies, and environmental applications. The Best Researcher Award recognition profile highlights the reported bibliometric indicators and selected publications relevant to these areas of research. [1]
Abstract
This research recognition profile presents selected scholarly work and reported bibliometric indicators associated with Somayeh Sohrabi. The supplied publication record covers three themes: technical assessment of spiral inertial microfluidic devices for bioparticle separation, metal–organic gels for electrochemical applications, and microfluidic-assisted synthesis of materials for amoxicillin degradation. Together, these studies illustrate research questions spanning separation systems, functional materials, and environmental remediation. The supplied metrics list 30 documents, 546 citations, and an h-index of 10. These figures provide a quantitative snapshot; they should be interpreted in relation to database coverage, publication dates, disciplinary citation practices, and the date of retrieval. [1]
Keywords
Chemical engineering; microfluidics; inertial particle separation; metal–organic gels; electrochemical materials; photocatalysis; nanomaterials; pharmaceutical pollutant degradation; research impact.
Introduction
Chemical engineering research frequently combines transport phenomena, material design, and process development to address scientific and industrial problems. Microfluidic devices can support controlled particle handling, while engineered materials may contribute to electrochemical systems and pollutant treatment. The publications listed for Sohrabi represent these complementary directions. Their relevance is assessed here through the stated publication metadata and bibliometric information, rather than through unverified claims about individual experimental outcomes. [2]
Research Profile
The available publication titles indicate an interdisciplinary profile linking chemical engineering, microfluidic systems, materials chemistry, and environmental technologies. A critical review of spiral inertial microfluidic devices addresses technical assessment in bioparticle separation and profiling. A separate review examines metal–organic gels and their derived materials in electrochemical applications. Experimental work on microfluidic-assisted synthesis investigates TiO₂/ZnO/GOx materials for the degradation of amoxicillin. These themes offer complementary perspectives on device engineering, material functionality, and environmental treatment. [2]
Research Contributions
The supplied works demonstrate several areas of scholarly contribution:
- Microfluidic separation: A critical review considers technical approaches for assessing spiral inertial devices used in bioparticle separation and profiling. [3]
- Functional materials: A review of metal–organic gels explores their derived materials and potential relevance to electrochemical applications. [4]
- Environmental applications: A research article investigates microfluidic-assisted synthesis of TiO₂/ZnO/GOx materials for amoxicillin degradation. [5]
Publications
- “Advances in Technical Assessment of Spiral Inertial Microfluidic Devices Toward Bioparticle Separation and Profiling: A Critical Review.” BioChip Journal (2024).
- “Metal–organic gels and their derived materials for electrochemical applications.” Journal of Materials Chemistry A (2023).
- “Microfluidic assisted low-temperature and speedy synthesis of TiO2/ZnO/GOx with bio/photo active cites for amoxicillin degradation.” Scientific Reports (2022).
Research Impact
The supplied Scopus indicators report 30 documents, 546 citations, and an h-index of 10. Citation counts represent recorded references to indexed work, while the h-index reflects a combination of publication productivity and citation frequency. These measures are useful for describing research visibility but do not independently establish methodological quality, practical adoption, or societal impact. A complete assessment would also consider contribution to each publication, reproducibility, independent validation, and the relevance of research outcomes to the intended field. [1]
Award Suitability
The documented research themes and supplied bibliometric indicators provide a basis for consideration under a Best Researcher Award category at the International Forensic Scientist Awards. The work spans review-based synthesis and experimental materials research, with potential relevance to separation technologies and environmental applications. Final award assessment should consider the eligibility criteria, verified author attribution, publication quality, originality, and evidence of research contribution. The profile describes award-related suitability and does not imply an independently verified selection decision.
Conclusion
Somayeh Sohrabi’s listed publications reflect research at the intersection of microfluidics, functional materials, and environmental applications. The reported bibliometric indicators provide context for her scholarly record, while the three selected articles illustrate the range of topics represented. A balanced recognition assessment should combine these indicators with a careful review of publication content, research quality, and independently documented contributions.
External Links
References
- Elsevier. (n.d.). Scopus author details: Somayeh Sohrabi, Author ID 57073128300. Scopus.
https://www.scopus.com/authid/detail.uri?authorId=57073128300
- Sharif University of Technology. (n.d.). Institutional affiliation supplied for Somayeh Sohrabi. Institutional details should be confirmed against the relevant author and publication records.
- “Advances in Technical Assessment of Spiral Inertial Microfluidic Devices Toward Bioparticle Separation and Profiling: A Critical Review.” (2024). BioChip Journal.
https://doi.org/10.1007/s13206-023-00131-1
- “Metal–organic gels and their derived materials for electrochemical applications.” (2023). Journal of Materials Chemistry A.
https://doi.org/10.1039/d3ta01221b
- “Microfluidic assisted low-temperature and speedy synthesis of TiO2/ZnO/GOx with bio/photo active cites for amoxicillin degradation.” (2022). Scientific Reports.
https://doi.org/10.1038/s41598-022-19406-y
