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International Journal of
Chemical Science
ARCHIVES
VOL. 7, ISSUE 2 (2023)
Comparative analysis of MOFs in chemical catalysis and biomedical applications
Authors
Dr. Randhir Kumar
Abstract
Coordination compounds have emerged as versatile and multifunctional systems with significant applications in both catalysis and targeted drug delivery. The present study investigates the structural, electronic, and functional properties of coordination compounds, with particular emphasis on their dual role in catalytic processes and biomedical applications. A systematic review-based methodology was adopted, utilising data from major scientific databases including SpringerLink, ScienceDirect, PubMed, Scopus, and Web of Science. A total of 560 records were identified, out of which 85 relevant studies were selected for qualitative synthesis following PRISMA guidelines. The findings indicate that coordination compounds, especially transition-metal complexes and metal–organic frameworks (MOFs), exhibit high catalytic efficiency due to their tunable coordination environments, variable oxidation states, and strong metal–ligand interactions. These properties enable their effective use in key reactions such as hydrogenation, oxidation, and carbon–carbon coupling. In parallel, coordination-based systems demonstrate significant potential in targeted drug delivery, offering high drug loading capacity, controlled release behavior, and improved therapeutic specificity. Stimuli-responsive coordination frameworks further enhance targeted delivery by enabling site-specific drug release under physiological conditions. Comparative analysis reveals that the effectiveness of coordination compounds in both domains is governed by common structural attributes, including ligand design, coordination geometry, and electronic configuration. Despite promising advancements, challenges such as toxicity, stability, and scalability remain critical considerations for practical applications. In conclusion, coordination compounds represent a powerful platform bridging catalysis and biomedical science, with future prospects in sustainable chemistry and precision medicine. Continued research in ligand engineering, nanotechnology integration, and biocompatible material design is expected to further expand their applicability.
Pages:39-43
How to cite this article:
Dr. Randhir Kumar "Comparative analysis of MOFs in chemical catalysis and biomedical applications". International Journal of Chemical Science, Vol 7, Issue 2, 2023, Pages 39-43
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