Micropores are essential for tissue engineering to ensure adequate mass transportation for
embedded cells. Despite the considerable progress made by advanced 3D bioprinting …

Abstract Three-dimensional (3D) bioprinting is a powerful approach that enables the
fabrication of 3D tissue constructs that retain complex biological functions. However, the …

Microgel-based biomaterials have inherent porosity and are often extrudable, making them
well-suited for 3D bioprinting applications. Cells are commonly introduced into these …

Hydrogels are excellent mimetics of mammalian extracellular matrices and have found
widespread use in tissue engineering. Nanoporosity of monolithic bulk hydrogels, however …

Abstract 3D bioprinting technology provides programmable and customizable platforms to
engineer cell‐laden constructs mimicking human tissues for a wide range of biomedical …

It is well‐known that tissue engineering scaffolds that feature highly interconnected and size‐
adjustable micropores are oftentimes desired to promote cellular viability, motility, and …

Abstract Three-dimensional (3D) bioprinting has emerged as an enabling tool for various
biomedical applications, such as tissue regeneration and tissue model engineering. To this …

Abstract 3D bioprinting of granular hydrogels comprising discrete hydrogel microparticles
(microgels) may overcome the intrinsic structural limitations of bulk (nanoporous) hydrogel …

A major challenge in 3D extrusion bioprinting is the limited number of bioink that fulfills the
opposing requirements for printability with requisite rheological properties and for …

Cell-laden scaffolds of architecture and mechanics that mimic those of the host tissues are
important for a wide range of biomedical applications but remain challenging to bioprint. To …