Electrospun-fiber scaffolds have demonstrated great potential as platforms for wound
healing and tissue engineering due to their high porosity, strong mechanical properties, and …

The development of biomimetic highly-porous scaffolds is essential for successful tissue
engineering. Segmented poly (ester urethane) s and poly (ester urethane urea) s have been …

Electrospinning from a melt, in contrast to from a solution, is an attractive tissue engineering
scaffold manufacturing process as it allows for the formation of small diameter fibers while …

It is important to control the degradation rate of a tissue‐engineered scaffold so that the
scaffold will degrade in an appropriate matching rate as the tissue cells grow in. A set of …

Electrospinning is a popular and attractive technique for processing polymers into fibrous
scaffolds mimicking the extracellular matrix of native tissue. Biodegradable linear …

Biodegradable segmented l-tyrosine polyurethanes (LTUs) have been developed using a
tyrosine based chain extender desaminotyrosine-tyrosyl-hexyl ester (DTH). Two such …

Electrostatic spinning was investigated as an alternative to electrospinning to establish the
potential of the technique for the production of a range of microfibrous polyurethane …

Unidirectionally and orthogonally aligned thermoplastic polyurethane (TPU) nanofibers
were electrospun using a custom‐built electrospinning device. The unidirectionally aligned …

Electrospinning is a renowned technique for the generation of ultrafine, micro-and
nanoscale fibres due to its simplicity, versatility and tunability. Owing to its adaptability to a …

The electrospinning of a polymer melt is an interesting process for medical applications
because it eliminates the cytotoxic effects of solvents in the electrospinning solution. Wound …