This review is intended to provide an overview of tissue engineering strategies using
scaffold biomaterials to develop a vascularized tissue engineered construct for nano …

The prevalent challenge facing tissue engineering today is the lack of adequate
vascularization to support the growth, function, and viability of tissue substitutes that require …

As a milestone in therapeutic fields, tissue engineering has offered an alternative strategy to
address unmet clinical needs for the repair and replacement of human damaged organs …

Nanotechnology offers enormous opportunities in regulation of the physical, mechanical,
electrical, and biological properties of tissue engineering scaffolds. Nanoscale structures …

Although there have been extensive research efforts to create functional tissues and organs,
most successes in tissue engineering have been limited to avascular or thin tissues. The …

Engineered human tissues created by three-dimensional cell culture of human cells in a
hydrogel are becoming emerging model systems for cancer drug discovery and …

The ability to understand and regulate human vasculature development and differentiation
has the potential to benefit patients suffering from a variety of ailments, including …

Development of clinical-sized three-dimensional (3D) tissue engineering constructs requires
an extensive blood vessel network to provide the cells with necessary nutrients and other …

The formation of the complex and fully functional vascular networks in pivotal organs is a key
challenge in tissue engineering research. Functional blood vessels not only maintain …

One of the most arduous challenges in tissue engineering is neovascularization, without
which there is a lack of nutrients delivered to a target tissue. Angiogenesis should be …