Over the past decade, melt electrowriting (MEW) has established the fundamental
understanding of processing (and printer) requirements. Iterative work on parametric …

Abstract 3D bioprinting has developed tremendously in the last couple of years and enables
the fabrication of simple, as well as complex, tissue models. The international space …

Melt electrowriting (MEW) is a distinct class of additive manufacturing technologies that
generates fibrous and porous macrostructures with microscale resolution from an electrically …

New horizons in cardiovascular research are opened by using 3D printing for biodegradable
implants. This additive manufacturing approach allows the design and fabrication of …

Despite the growing significance of generating highly porous, high‐precision 3D printed
scaffolds using melt electrowriting (MEW), the absence of easy‐to‐use and robust design …

Melt electrowriting (MEW) is an electrohydrodynamic additive manufacturing technology for
the fabrication of precise microfiber scaffold architectures but is so far restricted to printing …

Abstract 3D printing technologies have the potential to revolutionize the manufacture of
heart valves through the ability to create bespoke, complex constructs. In light of recent …

Melt electrowriting (MEW) is an electric-field-assisted additive biofabrication technique that
has brought significant advancements to bioinspired scaffold design for soft tissue …

Melt electrowriting (MEW) is a high‐resolution additive manufacturing technology capable of
depositing micrometric fibers onto a moving collector to form 3D scaffolds of controlled …

Heart valve tissue engineering holds the potential to transform the surgical management of
congenital heart defects affecting the pediatric pulmonary valve (PV) by offering a viable …