Development of Hydrogel Encapsulated with plant- derived exosome- like- nanoparticles for Wound Healing for Type-2 Diabetes
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Thapar Institute of Engineering and Technology
Abstract
The prevalence of type 2 diabetes mellitus (T2DM) is a growing global health concern, often
accompanied by complications such as impaired wound healing due to vascular damage and
chronic inflammation. This thesis presents the development and evaluation of innovative
hydrogel patches encapsulated with hybrid exosomes derived from ginger and garlic, aimed at
accelerating wound healing in T2DM patients. Ginger and garlic are renowned for their potent
anti-inflammatory and antioxidant properties, which are harnessed in this study to address the
delayed wound healing associated with diabetes.
The hydrogel patches were synthesized using a biocompatible polymer matrix, ensuring
optimal delivery and sustained release of the encapsulated exosomes at the wound site. The
hybrid exosomes were characterized for their size, morphology, and bioactive compound
content, confirming their potential to modulate inflammatory responses and oxidative stress. In
vitro assays demonstrated the ability of the exosome-loaded hydrogels to enhance cellular
proliferation and migration, critical processes in wound repair. Furthermore, in vivo studies
using a diabetic wound model revealed significant improvements in wound closure rates and
histological markers of healing, compared to conventional treatments.
This research underscores the therapeutic potential of ginger and garlic hybrid exosomes in
promoting efficient wound healing in diabetic patients, offering a promising avenue for the
development of advanced wound care solutions. The findings contribute to the growing body of
knowledge on the application of natural bioactive compounds in regenerative medicine, with
implications for improving the quality of life for individuals suffering from diabetes-related
complications. Future work will focus on optimizing the formulation and exploring the
mechanistic pathways involved in the observed healing effects, paving the way for clinical
translation of this novel therapeutic approach.
