Porosity is an important material feature commonly employed in implants and tissue
scaffolds. The presence of material voids permits the infiltration of cells, mechanical …

Tissue engineering holds great promise to develop functional constructs resembling the
structural organization of native tissues to improve or replace biological functions, with the …

There is a growing demand for off-the-shelf tissue engineered vascular grafts (TEVGs) for
the replacement or bypass of damaged arteries in various cardiovascular diseases …

Electrospinning, a technique used to fabricate fibrous scaffolds, has gained popularity in
recent years as a method to produce tissue engineered grafts with architectural similarities …

Tissue engineering aims to develop artificial human tissues by culturing cells on a scaffold in
the presence of biochemical cues. Properties of scaffold such as architecture and …

Electrospinning, a technique well known for fabricating nanoscale fibers, has recently been
studied extensively due to its various advantages such as high surface-to-volume ratio …

Electrospinning was used to produce PVDF nonwoven fiber mats under varying parameters
of polymer concentration, applied voltage, salt content, and spinning distance. The results …

Porous biomaterials have been widely used in a variety of orthopedic applications. Porous
scaffolds stimulate the cellular responses and accelerate osteogenesis. The porous …

Bone-mimetic electrospun scaffolds consisting of polycaprolactone (PCL), collagen I and
nanoparticulate hydroxyapatite (HA) have previously been shown to support the adhesion …

Small pore sizes inherent to electrospun matrices can hinder efficient cellular ingrowth. To
facilitate infiltration while retaining its extracellular matrix-like character, electrospinning was …