Overall, this review aims to provide a focused and mechanistic perspective on electrospun nanofibers as multifunctional, bioactive scaffolds capable of enabling functional tissue regeneration rather than merely serving as passive wound dressing and nominate it as a sustainable alternative for developing next-generation smart scaffolds intended for postsurgical healing.
Abstract
The postoperative microenvironment is a highly biologically dynamic environment that is associated with an increased risk of complications, including adhesions, fibrosis, infection, and delayed healing, which can cause significant inconvenience to patients. Conventional materials, such as cotton gauze and surgical sutures, primarily function as passive physical barriers, often lacking to address the multiple issues governing functional tissue repair. Electrospun nanofibers have been effective as dynamic regulators of the post-surgical microenvironment, facilitating simultaneous modulation of key biological events, such as immune modulation, macrophage phenotype switching, angiogenesis, collagen organization, and tissue regeneration, leading to faster and better healing. Overall, this review aims to provide a focused and mechanistic perspective on electrospun nanofibers as multifunctional, bioactive scaffolds capable of enabling functional tissue regeneration rather than merely serving as passive wound dressing and nominate it as a sustainable alternative for developing next-generation smart scaffolds intended for postsurgical healing.
An excisional wound is characterised as a complete loss of tissue from its site and involves a complex healing process. Conventional wound dressings present significant clinical challenges, including delayed re-epithelialization, an increased risk of infection, and excessive scarring. Electrospun biopolymer/nanofiber s...
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Diabetic chronic wounds have become a major challenge for clinical treatment due to their complex pathological microenvironment, including persistent inflammatory response, angiogenesis disorder, excessive oxidative stress, and susceptible infection. Traditional dressings as a passive barrier have difficulty meeting th...
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Electrospinning has emerged as a versatile technique for fabricating nanofibrous scaffolds for biomedical applications, as their structure perfectly biomimics the native extracellular matrix (ECM). Recent advances in biofunctionalization of electrospun fibers, such as coating with natural proteins, enable improved co...
J. Schütz, Ruben Daum, Hanna Hartmann· Regenerative Biomaterials· 0 citations
The purpose of this review is to look at the impact of the use of these materials on the environment by looking at both their biodegradability and lessening of the authors' dependency on synthetic polymers, as well as presenting an integrated design framework that links the composition, physicochemical characteristics,...
Pritiman Pothal, Sunny Chugh, Guramrit Kaur et al.· Frontiers in Cellular and In...· 0 citations
A multifunctional, collagen-coated polylactic-co-glycolic acid nanotopographical scaffold that mimics the native extracellular matrix to enhance soft- and hard-tissue regeneration and support its potential as a clinically relevant platform for regenerative medicine.
W. Kim, Sangbaek Park, S. Beom et al.· Biomaterials Research· 0 citations
Chronic and complex wounds, including acute and extensive poor-healing injuries, present a significant challenge in reconstructive surgery. Conventional therapies—such as advanced dressings, negative pressure therapy, skin grafts, flaps, and recombinant growth factors-often fail to restore complete tissue architecture...
A. Tamayo-Carbón, Diana Katherine Cuastumal-Figueroa, J. Berlanga-Acosta· International Scope of Wound...· 0 citations
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