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Innovative Medicines & Omics                                              Biocompatibility of nanomaterials



            serves as a blueprint for future applications in oncology,   this  research.  We  gratefully  acknowledge  S.T.E.L.L.A.R
            genetic disorders, and rare diseases.  Nanocarriers are also   Labs for their invaluable research support, mentorship,
                                        54
            being designed to function as both immune modulators   and  access  to  laboratory  resources  that  made  this
            and delivery systems, making them invaluable tools in   work possible. We also extend our appreciation to the
            managing cancers and infectious diseases. 19,34    Department of Chemistry, Faculty of Physical Sciences,

              Despite  these  advancements,  regulatory  and   University of Benin, for providing the infrastructure and
            translational barriers persist. Nanomaterials often   technical assistance necessary for the successful execution
            evolve faster than existing regulatory frameworks can   of this study.
            accommodate. In response, global entities such as the   Funding
            OECD, along with industry–academic consortia, have
            intensified efforts to harmonize safety assessments,   None.
            standardize testing protocols, and streamline clinical
            translation. Progress in this area, fueled by international   Conflict of interest
            co-operation and public–private partnerships, is gradually   The authors declare that they have no competing interests.
            easing these hurdles. 55,56
              As the field moves forward, the future of nanomedicine   Author contributions
            lies in integrative approaches: Combining smart    Conceptualization: All authors
            biomaterials, AI-driven modeling, regulatory foresight, and   Visualization: Marvellous Eyube
            personalized care. This holistic vision not only enhances   Writing–original draft: All authors
            the scientific rigor of nanomedicine but also paves the way   Writing–rev iew & editing: Marvellous Eyube
            for meaningful clinical impact in global healthcare.
                                                               Ethics approval and consent to participate
            8. Conclusion
                                                               Not applicable.
            Biocompatibility remains a foundational requirement for
            the effective use of nanomaterials in medical fields such as   Consent for publication
            drug delivery, diagnostic imaging, tissue regeneration, and   Not applicable.
            antimicrobial therapy. Key parameters—including surface
            chemistry, particle size, and material composition—  Availability of data
            critically  determine  biological  responses,  as  illustrated
            by  the  promising  performance  of  the  CaO–CaP  binary   Not applicable.
            system in bone tissue engineering. The complementary   References
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            First and foremost, the authors give all glory to God      doi: 10.1201/9781003139462-18
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            Volume 2 Issue 3 (2025)                         55                          doi: 10.36922/IMO025210024
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