with sensitive skin or compromised dermal barriers.
Stability and shelf life: Long-term physicochemical stability, microbial resistance of the formulation, and
packaging materials need to be systematically assessed. Future directions include incorporating this hydrogel
into comparative clinical trials, exploring its use in diabetic or infected wounds, and developing
complementary delivery systems (e.g., hydrogel films or bandage- integrated formats) for advanced wound
care applications.
CONCLUSION
Sphatika (Potash Alum), a time-honoured mineral extensively documented in Ayurvedic texts, holds significant
therapeutic value in wound management owing to its Kashaya Rasa (astringent taste), Ushna Veerya (hot
potency), and Krimighna Karma (antimicrobial action), Shothahara Karma (anti-inflammatory action), and
Ropana Karma (healing action). The present study successfully formulated a Sphatika-based hydrogel by
incorporating Guar gum, Glycerin, and Borax, creating a biocompatible, moist-retentive, and antimicrobial
wound dressing system.
The hydrogel demonstrated favourable physicochemical characteristics and leveraged the synergistic
interaction of its constituents: Guar gum provided the gel matrix and absorptive capacity, Glycerin maintained
hydration and spreadability, and Borax facilitated gelation while contributing antiseptic activity. Collectively,
the formulation supports multiple phases of wound healing, from inflammation modulation to tissue
regeneration and microbial control.
This integrative approach reflects the harmonization of classical Ayurvedic knowledge with modern
pharmaceutical technologies, yielding a promising, natural, and patient-friendly alternative to conventional
wound care. Future translational studies and clinical evaluations may further establish its role in mainstream
therapeutic regimens, supporting a more holistic and sustainable model of healthcare innovation.
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