Controlling the architecture of electrospun fibers is one of the key issues in tissue engineering. This report describes a rapid and reproducible patterning method for the fabrication of an electrospun fibrous scaffold. The electrospun fibers were deposited on a patterned electrode. The patterned scaffold was fabricated using a thin insulating film between layers of this electrode. For a tissue engineering application, poly(lactic-co-glycolic acid) (PLGA), a biocompatible and biodegradable material, was electrospun. Fibroblast cells were cultured on the fibrous PLGA scaffold and the viability, morphology, and distribution of the cells were studied.X1155sciescopu
Biodegradable polymeric fibrous non-woven materials are widely used type of scaffolds for tissue eng...
Nonwoven fibrous mats were produced in the process of solution electrospinning. Polymeric fibres gen...
Electrospinning is a long-known polymer processing technique that has received more interest and att...
A critical component of tissue engineering is the ability to functionally replace native tissue stro...
Since the inception of the field of tissue engineering, there has been a considerable effort to deve...
Nanostructured electrospun three-dimensional scaffolds are used for tissue engineering applications ...
Electrospinning is a very versatile technology that enables production of nanofibrous structures wit...
Tissue engineering involves fabrication of three-dimensional scaffolds to support cellular in-growth...
We characterize the infiltration of interstitial cells into tissue engineering scaffolds prepared wi...
Electrospinning technique can be used to produce the three-dimensional nanofibrous scaffold similar ...
The nanostructure of the extracellular matrix (ECM) can direct cell attachment, alignment, and organ...
Chronic wounds are difficult to heal spontaneously largely due to the corrupted extracellular matrix...
In tissue engineering, a uniform cell occupation of scaffolds is crucial to ensure the success of ti...
Chronic wounds are difficult to heal spontaneously largely due to the corrupted extracellular matrix...
Electrospinning has been used for the fabrication of extracellular matrix (ECM)-mimicking fibrous sc...
Biodegradable polymeric fibrous non-woven materials are widely used type of scaffolds for tissue eng...
Nonwoven fibrous mats were produced in the process of solution electrospinning. Polymeric fibres gen...
Electrospinning is a long-known polymer processing technique that has received more interest and att...
A critical component of tissue engineering is the ability to functionally replace native tissue stro...
Since the inception of the field of tissue engineering, there has been a considerable effort to deve...
Nanostructured electrospun three-dimensional scaffolds are used for tissue engineering applications ...
Electrospinning is a very versatile technology that enables production of nanofibrous structures wit...
Tissue engineering involves fabrication of three-dimensional scaffolds to support cellular in-growth...
We characterize the infiltration of interstitial cells into tissue engineering scaffolds prepared wi...
Electrospinning technique can be used to produce the three-dimensional nanofibrous scaffold similar ...
The nanostructure of the extracellular matrix (ECM) can direct cell attachment, alignment, and organ...
Chronic wounds are difficult to heal spontaneously largely due to the corrupted extracellular matrix...
In tissue engineering, a uniform cell occupation of scaffolds is crucial to ensure the success of ti...
Chronic wounds are difficult to heal spontaneously largely due to the corrupted extracellular matrix...
Electrospinning has been used for the fabrication of extracellular matrix (ECM)-mimicking fibrous sc...
Biodegradable polymeric fibrous non-woven materials are widely used type of scaffolds for tissue eng...
Nonwoven fibrous mats were produced in the process of solution electrospinning. Polymeric fibres gen...
Electrospinning is a long-known polymer processing technique that has received more interest and att...