- S.M. Davachi
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I’m honored to share that my research was recently featured in both the April 2026 (Issue 50) and May 2026 (Issue 51) editions of the LIFE of P.I. Newsletter from the Texas A&M University System Research Development.
In the “Around the System: Research Highlights” section, these features recognized two collaborative studies focused on advanced biomaterials for regenerative medicine and wound healing applications.
The first study, published in Biomaterials, explored the emerging role of zinc-containing biomaterials in bone tissue engineering and regeneration. Our work highlights zinc (Zn) as a multifunctional bioactive element capable of promoting osteogenesis, supporting angiogenesis, modulating immune responses, and regulating key cellular pathways involved in bone repair. We also reviewed recent advances in Zn-based systems, including metal-organic frameworks (MOFs), zinc oxide nanoparticles, Zn-doped hydroxyapatite, hydrogels, scaffolds, functional nanostructures, and bone cements with promising regenerative and therapeutic potential.
🔗 LIFE of P.I. Newsletter – Issue 50 (April 2026): Website Link , Download the PDF
🔗 Published Paper: Biomaterials
The second study, published in Materials Today Chemistry, focused on the development of electrospun bioactive nanofibrous wound dressings based on PLGA/HPC fibers loaded with propolis extract. The developed wound dressing demonstrated enhanced hydrophilicity, mechanical strength, sustained drug release behavior, strong antibacterial activity against Staphylococcus aureus and Escherichia coli, and improved cellular responses, including enhanced cell adhesion, proliferation, and accelerated wound healing. Overall, the study demonstrated the synergistic mechanical, biological, and therapeutic potential of the developed bioactive dressing for wound healing applications.
🔗 LIFE of P.I. Newsletter – Issue 51 (May 2026): Website Link | Download PDF
🔗 Published Paper: Materials Today Chemistry
I’m truly grateful to be part of these international and collaborative efforts and honored to see this work recognized at the Texas A&M University System level.
