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Elastic Biomaterial Scaffold with Spatially Varying Adhesive Design
Author(s) -
Bannerman A. Dawn,
Davenport Huyer Locke,
Montgomery Miles,
Zhao Nicholas,
Velikonja Claire,
Bender Timothy P.,
Radisic Milica
Publication year - 2020
Publication title -
advanced biosystems
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 1.153
H-Index - 18
ISSN - 2366-7478
DOI - 10.1002/adbi.202000046
Subject(s) - biomaterial , adhesive , adhesion , tissue engineering , materials science , scaffold , polymer , biomedical engineering , regeneration (biology) , nanotechnology , self healing hydrogels , composite material , polymer chemistry , engineering , layer (electronics) , microbiology and biotechnology , biology
In order to secure biomaterials to tissue surfaces, sutures or glues are commonly used. Of interest is the development of a biomaterial patch for applications in tissue engineering and regeneration that incorporates an adhesive component to simplify patch application and ensure sufficient adhesion. A separate region dedicated to fulfilling the specific requirements of an application such as mechanical support or tissue delivery is also desirable. Here, the design and fabrication of a unique patch are presented with distinct regions for adhesion and function, resulting in a biomaterial patch resembling the Band‐Aid. The adhesive region contains a novel polymer, synthesized to incorporate a molecule capable of adhesion to tissue, dopamine. The desired polymer composition for patch development is selected based on chemical assessment and evaluation of key physical properties such as swelling and elastic modulus, which are tailored for use in soft tissue applications. The selected polymer formulation, referred to as the adhesive patch (AP) polymer, demonstrates negligible cytotoxicity and improves adhesive capability to rat cardiac tissue compared to currently used patch materials. Finally, the AP polymer is used in the patch, designed to possess distinct adhesive and nonadhesive domains, presenting a novel design for the next generation of biomaterials.

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