“…Electrospinning is a fastest growing trend in the production of fibers in laboratory to industrial scale [23][24][25][26]. Recently, these techniques have become popular due to their ability to produce various classes of ultrafine fibers such as polymer, ceramics, metals, composite etc., with diameters in the range several micrometers down to tens of nanometers.…”
Section: Electrospinning: a Fascinating Technique For Nanofiber Fabrimentioning
confidence: 99%
“…Electrospinning of chitosan using different solvent systems will have some limitation in obtaining continuous fibers. An alternative method has been developed by using neutral nonionic form of chitin solutions to make chitin fibers which later can be converted to chitosan fibers through deactylation process [4,26]. Chitin powder was first depolymerized by gamma irradiation to make it soluble.…”
Section: Chitin Nanofibers To Chitosan Nanofibersmentioning
confidence: 99%
“…Finally, the fibers were dried under vacuum. Deacetylation reaction took place when chitin fibers were treated with concentrated base [26]. Nam et al [4] was also able to generate chitosan nanofibers from chitin nanofibers by using a heterogeneous alkaline treatment to complete the transformation of chitosan nanofibers with different degrees of deacetylation.…”
Section: Chitin Nanofibers To Chitosan Nanofibersmentioning
confidence: 99%
“…Polymer and solution properties such as molecular weight, viscosity, conductivity, and surface tension are very important parameters to control the fibers size and morphology. Some other parameters which can change the electrospinning process are applied voltage, tip-to-collector distance, feeding rate, etc [23][24][25][26].…”
“…Electrospinning is a fastest growing trend in the production of fibers in laboratory to industrial scale [23][24][25][26]. Recently, these techniques have become popular due to their ability to produce various classes of ultrafine fibers such as polymer, ceramics, metals, composite etc., with diameters in the range several micrometers down to tens of nanometers.…”
Section: Electrospinning: a Fascinating Technique For Nanofiber Fabrimentioning
confidence: 99%
“…Electrospinning of chitosan using different solvent systems will have some limitation in obtaining continuous fibers. An alternative method has been developed by using neutral nonionic form of chitin solutions to make chitin fibers which later can be converted to chitosan fibers through deactylation process [4,26]. Chitin powder was first depolymerized by gamma irradiation to make it soluble.…”
Section: Chitin Nanofibers To Chitosan Nanofibersmentioning
confidence: 99%
“…Finally, the fibers were dried under vacuum. Deacetylation reaction took place when chitin fibers were treated with concentrated base [26]. Nam et al [4] was also able to generate chitosan nanofibers from chitin nanofibers by using a heterogeneous alkaline treatment to complete the transformation of chitosan nanofibers with different degrees of deacetylation.…”
Section: Chitin Nanofibers To Chitosan Nanofibersmentioning
confidence: 99%
“…Polymer and solution properties such as molecular weight, viscosity, conductivity, and surface tension are very important parameters to control the fibers size and morphology. Some other parameters which can change the electrospinning process are applied voltage, tip-to-collector distance, feeding rate, etc [23][24][25][26].…”
“…Chitosan carries a high cationic charge density and can interact with various anionic polymers, such as chondroitin sulfate, to form a hydrogel scaffold [119]. Different from a hydrated scaffold, an electrospun scaffold is a preformed, nanofiber-based scaffold with a definite structure [120][121][122]. Min et al used radiation to depolymerize chitin to increase its solubility for electrospinning [120].…”
The sections in this article are
Introduction
Nanofibrous Scaffolds
Fabrication Methods for Nanofibrous Scaffolds
Phase Separation
Self‐assembly
Electrospinning
The Electrospinning Process
History
Setup
Mechanism and Working Parameters
Properties of Electrospun Nanofibrous Scaffolds
Architecture
Porosity
Mechanical Properties
Current Development of Electrospun Nanofibrous Scaffolds in Tissue Engineering
Evidence Supporting the Use of Nanofibrous Scaffolds in Tissue Engineering
Nanofibrous Scaffolds Enhance Adsorption of Cell Adhesion Molecules
Nanofibrous Scaffolds Induce Favorable Cell–
ECM
Interaction
Nanofibrous Scaffolds Maintain Cell Phenotype
Nanofibrous Scaffolds Support Differentiation of Stem Cells
Nanofibrous Scaffolds Promote
in vivo
‐like 3
D
Matrix Adhesion and Activate Cell Signaling Pathway
Biomaterials Electrospun into Nanofibrous Scaffolds
Natural Polymeric Nanofibrous Scaffolds
Synthetic Polymeric Nanofibrous Scaffolds
Composite Polymeric Nanofibrous Scaffolds
Nanofibrous Scaffolds Coated with Bioactive Molecules
Engineered Tissues using Electrospun Nanofibrous Scaffolds
Skin
Blood Vessel
Cartilage
Bone
Muscle
Ligament
Nerve
Current Challenges and Future Directions
Conclusion
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