Title : Advanced smart materials for next-generation biomedical applications: From synthesis to sustainable manufacturing

Nanotechnology, biomaterials science and sustainable manufacturing are converging faster than ever, and this convergence is opening up new ways to tackle some of medicine's toughest problems. In this talk, I walk through my recent work on designing, synthesizing and characterizing multifunctional nanostructured materials, with an eye toward three clinical targets: targeted drug delivery, orthopedic implants and regenerative medicine.

A large part of the discussion focuses on inorganic nanoparticle-based drug carriers built to cross the blood-brain barrier, still one of the toughest obstacles standing in the way of treating neurodegenerative disease. By carefully engineering and functionalizing the surface of these carriers, we can push therapeutic efficacy higher, improve how bioavailable the drug actually is, direct it to where it's needed, and cut down on systemic toxicity along the way. Together, these gains point toward a genuinely workable platform for precision nanomedicine.

I also present a set of mesoporous hardystonite/reduced graphene oxide (HT/RGO) nanocomposites, made using sol-gel and hydrothermal routes that avoid harsh chemicals or excessive energy input. These hybrids hold up mechanically far better than expected, resist fracture well, keep an interconnected mesoporous structure, and get a strong response from bone-forming cells — all of which makes them worth considering for load-bearing bone tissue engineering.

On the implant side, nanostructured hardystonite coatings applied to stainless steel through electrophoretic deposition show a clear jump in corrosion resistance, surface bioactivity and osseointegration. In practical terms, that means metallic implants that last longer and perform better once they're in the body.

None of this matters much, though, if it can't be made at scale in a way that's actually sustainable — so the talk closes on manufacturing: green synthesis routes, energy-efficient processing, and production methods that are realistic for clinical translation rather than just laboratory curiosities. Bringing smart material design together with sustainable production is, I'd argue, where the next generation of personalized medicine, implantable devices and multifunctional therapeutics is heading.

To be updated shortly..