Recent Development of Electrospinning for Drug Delivery

Several promising techniques have been developed to overcome the poor solubility and/or membrane permeability properties of new drug candidates, including different fiber formation methods. Electrospinning is one of the most commonly used spinning techniques for fiber formation, induced by the high...

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Main Author: Zelkó, Romána (auth)
Other Authors: Lamprou, Dimitrios A. (auth), Sebe, István (auth)
Format: Book Chapter
Published: MDPI - Multidisciplinary Digital Publishing Institute 2020
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Online Access:Get Fullteks
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042 |a dc 
100 1 |a Zelkó, Romána  |4 auth 
700 1 |a Lamprou, Dimitrios A.  |4 auth 
700 1 |a Sebe, István  |4 auth 
245 1 0 |a Recent Development of Electrospinning for Drug Delivery 
260 |b MDPI - Multidisciplinary Digital Publishing Institute  |c 2020 
300 |a 1 electronic resource (206 p.) 
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520 |a Several promising techniques have been developed to overcome the poor solubility and/or membrane permeability properties of new drug candidates, including different fiber formation methods. Electrospinning is one of the most commonly used spinning techniques for fiber formation, induced by the high voltage applied to the drug-loaded solution. With modifying the characteristics of the solution and the spinning parameters, the functionality-related properties of the formulated fibers can be finely tuned. The fiber properties (i.e., high specific surface area, porosity, and the possibility of controlling the crystalline-amorphous phase transitions of the loaded drugs) enable the improved rate and extent of solubility, causing a rapid onset of absorption. However, the enhanced molecular mobility of the amorphous drugs embedded into the fibers is also responsible for their physical-chemical instability. This Special Issue will address new developments in the area of electrospun nanofibers for drug delivery and wound healing applications, covering recent advantages and future directions in electrospun fiber formulations and scalability. Moreover, it serves to highlight and capture the contemporary progress in electrospinning techniques, with particular attention to the industrial feasibility of developing pharmaceutical dosage forms. All aspects of small molecule or biologics-loaded fibrous dosage forms, focusing on the processability, structures and functions, and stability issues, are included. 
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653 |a tissue engineering 
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653 |a oral dosage form 
653 |a Lactobacillus 
653 |a scanning electron microscopy 
653 |a wound healing 
653 |a UV imaging 
653 |a wetting 
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653 |a nanofibers 
653 |a growth factor 
653 |a drug release kinetics 
653 |a hydrogel 
653 |a differential scanning calorimetry 
653 |a bacterial bioreporters 
653 |a physical solid-state properties 
653 |a PCL 
653 |a coaxial spinning 
653 |a drug delivery system 
653 |a haemanthamine 
653 |a probiotics 
653 |a amphiphilic nanofibers 
653 |a wound dressings 
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653 |a scanning white light interferometry 
653 |a biopharmaceuticals 
653 |a clove essential oil 
653 |a viability 
653 |a plant-origin alkaloid 
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653 |a electrospinning 
653 |a Lactococcus 
653 |a self-assembled liposomes 
653 |a microcapsules 
653 |a microfibers 
653 |a nanofiber 
653 |a in situ drug release 
653 |a biomedical 
653 |a core-sheath nanofibers 
653 |a processability 
653 |a polymeric carrier 
653 |a aceclofenac 
653 |a drying 
653 |a gentamicin sulfate 
653 |a traditional electrospinning 
653 |a electrospinning and electrospray 
653 |a fourier transform infrared spectroscopy 
653 |a drug release 
653 |a gelatin 
653 |a ultrasound-enhanced electrospinning 
653 |a 3D printing 
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