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.
The review critically explains the integration of the electrospinning technique for fabricating bio-/nanofibers as scaffolds for advanced excisional wound dressings, linking process parameters to scaffold architecture and phase-specific tissue repair mechanisms.
Balajee Soni, Ishu Garg, Govind Kumar et al.· Journal of Biomaterials Scie...· 0 citations
A systematic review of the research progress on electrospun nanofiber dressings in the treatment of diabetic wounds, focusing on the design evolution from basic single-layer structures to advanced complex structures and elucidating the mechanisms of action and quantifiable effects of each structural type in addressing...
Yu-Qing Dong, Wen-Bo Wu, Xin-Yu Li et al.· ACS Biomaterials Science & E...· 0 citations
In this review, the functionalization options for electrospun fibers are discussed regarding their implementation methods and resulting cell biological impact and the integration of such fibers into hydrogels is addressed as a promising strategy to modulate electrospun biomaterials.
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
Experimental evidence indicates that fibrin-nanofat membranes yield uniform, flexible, and biologically active biomaterials that adapt to tissue defects, support cell adhesion, migration, and survival, and provide a sustained release of growth factors and progenitor cells.
A. Tamayo-Carbón, Diana Katherine Cuastumal-Figueroa, J. Berlanga-Acosta· International Scope of Wound...· 0 citations
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