The integration of gene therapy into tissue engineering to control differentiation and direct
tissue formation is not a new concept; however, successful delivery of nucleic acids into …

In an effort to add to the versatility of three-dimensional scaffolds for tissue engineering
applications, recent experimental designs are incorporating biological molecules such as …

Nanofibrous structures developed by electrospinning technology provide attractive
extracellular matrix conditions for the anchorage, migration, and differentiation of tissue …

Over the past several decades, the formulation of novel nanofiber-based drug delivery
systems focusing on specific delivery purposes has been investigated worldwide with a …

Regenerative medicine aims to create functional tissue replacements, typically through
creating a controlled environment that promotes and directs the differentiation of stem or …

Despite being known for decades (since 1934), electrospinning has emerged recently as a
very widespread technology to produce synthetic nanofibrous structures. These structures …

Now is the age of high-tech research and development. Different types of fibers have been
produced in the last decades for the benefit of human needs. Core-shell nanofibers are a …

Deep or chronic skin wounds are difficult to heal spontaneously due to the lack of scaffold to
guide cell growth and reduced levels and activities of endogenous growth factors. Emulsion …

Electrospinning has attracted tremendous interest in the research community as a simple
and versatile technique to produce synthetic polymeric ultrafine fibres with diameters …

The goal of drug delivery is to ensure that therapeutic molecules reach the intended target
organ or tissue, such that the effectiveness of the drug is maximized. The efficiency of a drug …