The electrospinning technique, which was invented about 100 years ago, has attracted more
attention in recent years due to its possible biomedical applications. Electrospun fibers with …

Research into scaffolds tailored for specific tissue engineering and biomaterial applications
continues to develop as these structures are commonly impeded by their limitations. For …

We studied the use of cellulose nanocrystals (CNXs) obtained after acid hydrolysis of ramie
cellulose fibers to reinforce poly (ε-caprolactone)(PCL) nanofibers. Chemical grafting with …

Electrospinning commonly requires a solvent carrier to transform polymer materials from one
solid form to another. The types of solvents are often classed as toxic and hazardous and …

The endorsement of functional features such as biocompatibility, mechanical integrity, or
electrical conductivity to tissue engineering (TE) scaffolds is essential to stimulate cell …

Functional tendon tissue engineering depends on harnessing the biochemical and
biophysical cues of the native tendon extracellular matrix. In this study, we fabricated highly …

This paper investigates the role of microtopographical features on the cytomorphology,
alignment, proliferation and gene expression of tenocytes. We made use of simple …

Fabrication of electrospun fibrous scaffolds as future medical devices is being widely
researched, with particular emphasis given to their material properties and effect on cell …

Blended nanofibrous scaffolds based on polycaprolactone (PCL) and gelatin (Ge) were
successfully prepared. A formic/acetic acid (1: 1) mixture was used to dissolve PCL/Ge …

Published data on nanostructured materials prepared by electrospinning are analyzed and
generalized. Particular attention is devoted to the design and properties of nanocomposite …