Abstract 3D bioprinting is emerging as a promising technology for fabricating complex tissue
constructs with tailored biological components and mechanical properties. Recent advances …

Porous membrane materials at the micro/nanoscale have exhibited practical and potential
value for extensive biological and medical applications associated with filtration and …

Current hydrogel or fabric patches for organ repair are generally not designed to conform to
the complex mechanics of dynamic organs such as the lung or heart. This study presents a …

Bioprinting has a great potential to fabricate three‐dimensional (3D) functional tissues and
organs. In particular, the technique enables fabrication of 3D constructs containing stem …

3D hydrogel microstructures that encapsulate cells have been used in broad applications in
microscale tissue engineering, personalized drug screening, and regenerative medicine …

Fabrication of hydrogel microstructures has attracted considerable attention. A large number
of applications, such as fabricating tissue engineering scaffolds, delivering drugs to …

Combining double-layer capillary based high gradient immunomagnetic separation,
invertase-nanocluster based signal amplification and glucose meter based signal detection …

The biocompatibility of the three-dimensional (3D) hydrogel cell scaffolds that sodium
hyaluronate (SH) and carboxymethyl chitosan (Chitosan) has been investigated. The …

Tissue engineering provides a powerful solution for current organ shortages, and
researchers have cultured blood vessels, heart tissues, and bone tissues in vitro. However …

Customized generation of 3D functional building blocks is crucial for bottom‐up tissue
engineering. Currently, high throughput production, high survival rates, and well‐controlled …