article · International Journal of Molecular Sciences
Nanoengineered silica-based biomaterials are increasingly relevant in regenerative medicine due to their biocompatibility, tunable porosity, and capacity to influence cellular behaviour at the molecular level. Recent progress in synthesis and functionalisation techniques has enabled the creation of versatile materials tailored for biomimetic scaffolds, targeted drug delivery, and integration with stem cell therapies. These tailored features can help optimise therapeutic efficacy, improve tissue regeneration, and guide stem cell responses. In addition to supporting repair and regeneration, the distinct properties of silica allow for non-invasive diagnostics and treatment monitoring using advanced biomedical imaging. Overall, assessing the design and fabrication strategies behind these materials demonstrates their potential to advance laboratory concepts into practical clinical applications for diverse tissue repair and regenerative medicine therapies.
Tissue damage and organ failure present major healthcare challenges. By combining structural support, drug delivery, and stem cell guidance into a single biocompatible platform, nanoengineered silica materials could lead to more effective treatments. Their built-in diagnostic and imaging capabilities also help clinicians track healing non-invasively, supporting safer and more personalised patient care.
The research points to applications in targeted therapeutics, regenerative scaffolds, and medical imaging systems for clinicians and medical device developers. Because the work evaluates design strategies and laboratory advancements rather than finished products, these technologies remain at an early, pre-clinical stage of development, requiring further translation before reaching commercial clinical use.
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The paradigm of regenerative medicine is undergoing a transformative shift with the emergence of nanoengineered silica-based biomaterials. Their unique confluence of biocompatibility, precisely tunable porosity, and the ability to modulate cellular behavior at the molecular level makes them highly desirable for diverse tissue repair and regeneration applications. Advancements in nanoengineered silica synthesis and functionalization techniques have yielded a new generation of versatile biomaterials with tailored functionalities for targeted drug delivery, biomimetic scaffolds, and integration with stem cell therapy. These functionalities hold the potential to optimize therapeutic efficacy, promote enhanced regeneration, and modulate stem cell behavior for improved regenerative outcomes. Furthermore, the unique properties of silica facilitate non-invasive diagnostics and treatment monitoring through advanced biomedical imaging techniques, enabling a more holistic approach to regenerative medicine. This review comprehensively examines the utilization of nanoengineered silica biomaterials for diverse applications in regenerative medicine. By critically appraising the fabrication and design strategies that govern engineered silica biomaterials, this review underscores their groundbreaking potential to bridge the gap between the vision of regenerative medicine and clinical reality.
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DOI: 10.3390/ijms25116125
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