Excellence in Innovation
Farshad Banouei
Hasheminjad Kidney Center, School of Medicine, Iran
Farshad Banouei |
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|---|---|
| Affiliation | Hasheminjad Kidney Center, School of Medicine, Iran University of Medical Sciences |
| Country | Iran |
| Scopus ID | 58574525400 |
| Documents | 5 |
| Citation | 2 |
| h-index | 1 |
| Subject Area | Oncology Case Reports |
| Event | International Research Awards on Oncology and Cancer Research |
Farshad Banouei is a researcher affiliated with Hasheminjad Kidney Center, School of Medicine, Iran University of Medical Sciences, Iran. The research recognition profile titled Excellence in Innovation highlights the importance of scientific contributions, interdisciplinary research, and innovation in advancing medical knowledge. The supplied publication records cover subjects including biomaterials, laser-based treatment approaches, dermatological interventions, nanomaterials, and clinical treatment research.
Abstract
Scientific innovation in medicine involves the development and evaluation of new materials, therapeutic techniques, diagnostic approaches, and clinical interventions. The supplied publication records associated with this research profile represent several areas of biomedical investigation, including hydrogel-based tissue expansion, laser-assisted treatment, photodynamic therapy, nanocrystal synthesis, and clinical management of medical conditions. These subjects demonstrate the interdisciplinary nature of contemporary biomedical research and the importance of collaboration across clinical medicine, materials science, and healthcare technology.
Keywords
Oncology Case Reports, Biomedical Research, Medical Innovation, Clinical Research, Laser Therapy, Photodynamic Therapy, Biomaterials, Hydrogel Polymers, Nanocrystals, Tissue Engineering, Cancer Research, Dermatological Treatment, Medical Materials Science, Therapeutic Development, Translational Medicine.
Introduction
Medical research continues to evolve through the integration of clinical knowledge, advanced materials, and innovative therapeutic technologies. Developments in biomaterials and tissue engineering contribute to the investigation of materials suitable for medical applications, while laser-based treatment methods provide additional approaches for managing selected clinical conditions. Similarly, nanomaterial research expands opportunities for investigating materials with specialized physical and chemical properties.
Research Profile
Farshad Banouei is presented in this recognition profile with an institutional affiliation at Hasheminjad Kidney Center, School of Medicine, Iran University of Medical Sciences, Iran. The research subject area identified for the profile is Oncology Case Reports. The supplied publication information provides a broader multidisciplinary scientific context, including biomaterials, clinical treatment procedures, laser applications, and nanomaterial synthesis.
Research Contributions
- Biomaterials and tissue engineering: Research on methacrylate-based hydrogel polymers examines materials developed for tissue expansion applications in stomatology, contributing to the broader investigation of polymer-based medical materials.[1]
- Clinical treatment research: Publications addressing infantile hemangiomas describe treatment procedures and clinical management considerations for a vascular condition encountered in pediatric medicine.[2]
Publications
The following selected bibliographic records were supplied for this academic profile. They are presented with their available journal, year, DOI, and contributor information. The records should not be interpreted as independently verified publications authored by Farshad Banouei, since the supplied contributor lists do not include that name.
- Hydrogel tissue expanders for stomatology. Part I. Methacrylate-based polymers.
- Infantile hemangiomas. Current treatment procedures | Infantilní hemangiomas. Současné tělečné protředky.
- Direct and indirect treatment of pain with lasers – Update 2016.
Research Impact
The supplied publications address research questions across several areas of biomedical science. Work on hydrogel polymers contributes to the scientific literature on biomaterials and their potential applications in tissue-related procedures. Investigations into laser-assisted treatment and photodynamic therapy provide clinical perspectives on therapeutic techniques, including approaches studied in dermatology and pain management. Nanocrystal synthesis research contributes to materials chemistry and the development of specialized nanoscale materials.
Award Suitability
The Excellence in Innovation recognition theme under the International Research Awards on Oncology and Cancer Research highlights scientific originality, research development, and contributions that may support progress in medical and biomedical disciplines.The multidisciplinary subjects represented in the supplied publication records offer potential areas for evaluating innovation in clinical treatment, biomedical materials, and therapeutic research. Relevant evaluation considerations may include:.
Conclusion
Excellence in medical innovation depends on sustained scientific investigation, interdisciplinary collaboration, and the translation of research findings into meaningful biomedical applications. The supplied publication records demonstrate the breadth of topics represented in contemporary biomedical and clinical literature, ranging from hydrogel-based materials and nanocrystal synthesis to laser-assisted therapies and photodynamic treatment.
External Links
References
- Google scholar profile. Hydrogel tissue expanders for stomatology. Part I. Methacrylate-based polymers. Journal of Materials Science: Materials in Medicine.
https://scholar.google.com/citations?user=topjvN4AAAAJ&hl=en - Šmucler, R., & Jenčová, J. (2016). Direct and indirect treatment of pain with lasers – Update 2016. Disease.
Scopus
https://www.scopus.com/authid/detail.uri?authorId=58574525400 - Bartůněk, V., Rak, J., Pelánková, B., Junková, J., Mezlíková, M., Král, V., Kuchař, M., Engstová, H., Ježek, P., & Šmucler, R. (2016). Large scale preparation of up-converting YF3:YbEr nanocrystals with various sizes by solvothermal syntheses using ionic liquid bmimCl. Journal of Fluorine Chemistry.
https://doi.org/10.1016/j.jfluchem.2016.05.015 - Lippert, J., Šmucler, R., & Vlk, M. (2013). Fractional carbon dioxide laser improves nodular basal cell carcinoma treatment with photodynamic therapy with methyl 5-aminolevulinate. Dermatologic Surgery.
https://doi.org/10.1111/dsu.12242