A Biocompatible Dual‐Sided Hernia Mesh with Side‐Specific Properties

Author:

Saha Tanushree12,Sarker Satya Ranjan34,Dekiwadia Chaitali5,Padhye Rajiv6,Wang Xin6,Houshyar Shadi1ORCID

Affiliation:

1. School of Engineering RMIT University Melbourne 3000 Australia

2. Dhaka University of Engineering and Technology Gazipur Gazipur 1700 Bangladesh

3. Centre for Advanced Materials and Industrial Chemistry (CAMIC) School of Science RMIT University Melbourne 3001 Australia

4. Department of Biotechnology and Genetic Engineering Jahangirnagar University Savar Dhaka 1342 Bangladesh

5. RMIT Microscopy and Microanalysis Facility RMIT University Melbourne 3000 Australia

6. Centre for Materials Innovation and Future Fashion (CMIFF) School of Fashion and Textiles RMIT University Brunswick 3056 Australia

Abstract

AbstractPolypropylene (PP) based hernia mesh often shows multiple post‐surgery complications due to lack of biocompatibility, poor cell attachment, and unwanted tissue adhesion. These limitations can be addressed by material designing and surface modification of a mesh with side‐specific properties such as the visceral side (facing intestine) with low protein and cell attachment and the parietal side (facing incision) with improved cell attachment properties for normal healing. However, the development of dual‐sided mesh is very challenging because of its porous structure. Herein, a dual‐sided biocompatible mesh with protein anti‐adsorption and cell attachment properties on two different sides is developed by grafting highly hydrophilic 2‐methcryloyloxyethyl phosphorylcholine polymer (PMPC) on the plasma‐activated visceral side, while the parietal side is coated with bioactive chitosan and functionalized nanodiamond (Chi/FND) using a temporary polyvinyl alcohol (PVA) mold. The PMPC‐grafted side demonstrated excellent resistance to protein adsorption (96% reduction compared to PP) and cell attachment. However, the bioactive coating on the parietal side has significantly improved cell attachment and proliferation properties. In addition, both sides confirmed the presence of the respective biomaterials after an accelerated degradation study for 28 days. Hence, the newly developed dual‐sided mesh by semi‐solid polymer mold (SSPM) method is a promising candidate to address the long‐existing multiple issues of hernia mesh.

Publisher

Wiley

Subject

Industrial and Manufacturing Engineering,Mechanics of Materials,General Materials Science

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