Bulletin of Stomatology and Maxillofacial Surgery
ISSN 1829-006X
2025; 206–215
Shared with The Gufo

WOUND HEALING EVALUATION OF NOVEL CISSUS QUADRANGULARIS, BIOCERAMICS AND TENDON EXTRACELLULAR MATRIX INCORPORATED SCAFFOLDS FOR PERIODONTAL BONE REGENERATION WITH ZEBRAFISH MODELS

Received: 2026-04-08 · Published: 2025-03-29

Shared article.
Original title
WOUND HEALING EVALUATION OF NOVEL CISSUS QUADRANGULARIS, BIOCERAMICS AND TENDON EXTRACELLULAR MATRIX INCORPORATED SCAFFOLDS FOR PERIODONTAL BONE REGENERATION WITH ZEBRAFISH MODELS
Author
Balaji Ganesh
Source journal
Bulletin of Stomatology and Maxillofacial Surgery
Published
2025-03-29
Licence
Creative Commons Attribution-NonCommercial 4.0 International
Original
https://doi.org/10.58240/1829006X-2025.3-206

Abstract

Background: Wound healing is a complex biological process involving, proliferation, and tissue remodelling, requiring advanced biomaterials to facilitate effective tissue regeneration. This study evaluated the wound healing potential of composite scaffolds incorporating Cissus quadrangularis extract, carrageenan, tendon extracellular matrix (ECM) with bioceramics such as silver hydroxyapatite and silver tricalcium phosphate using a zebrafish model. Materials and Methods: The scaffolds were extensively characterized using Scanning Electron Microscopy (SEM), Fourier Transform Infrared Spectroscopy (FTIR), and X- ray diffraction (XRD) to determine their physiochemical properties and their correlation with biological efficacy. The wild- type zebrafish were wounded and treated as following negative control (Group 1), Cissus quadrangularis extract, carrageenan, tendon extracellular matrix (TEM) (Group 2), Group 3 (contained silver hydroxyapatite + Group 2 components), Group 4 (Silver tricalcium phosphate + Group 2 components) respectively for 21 days. The wound closure ratio was assessed on 0, 7 and 14 days with histological observations. Results: As the results, SEM analysis revealed a highly porous architecture with interconnected pores, enhancing cellular adhesion, proliferation, and migration at the wound site. The surface roughness provided an optimal microenvironment for fibroblast infiltration and re-epithelization, accelerating the healing process. FTIR analysis confirmed the presence of hydroxyl, carboxyl, amide, and phosphate groups indicating strong biomaterial interactions, hydration, and bioactivity. The observed phosphate peaks validated the incorporation of carrageenan, essential for calcium ion release and osteogenic differentiation. XRD patterns exhibited well- defined crystalline peaks corresponding to hydroxyapatite and bioactive glass, ensuring stability, controlled degradation, and prolonged bioactivity at the wound site. Zebrafish wound healing assays demonstrated significant improvements in wound closure, reduced inflammation, and enhanced tissue remodelling in scaffold treated groups. The histology observations revealed that the Group 4 treatment induced rapid epidermal formation, immune cell activity, and vascularization. Faster wound contraction and new scale formation were observed 4 to 21 days post injury, highlighting the scaffold’s effectiveness compared to the slower recovery in untreated controls. The combined effects provided a synergistic approach for effective wound healing and tissue regeneration. Conclusion: The study demonstrated that the application of silver tricalcium phosphate, C. quadrangularis, and TEM effectively promoted wound healing. Future research should focus on optimizing scaffold composition and validating efficacy in mammalian models for translational applications.
1 / ? 100% Open in new tab Download Cite

Loading the full text…

Download Follow Updates