“Man-made” extracellular vesicle-mimetic nanovesicles developed with characteristics similar to those of extracellular vesicles.
“Man-made” extracellular vesicle-mimetic nanovesicles developed with characteristics similar to those of extracellular vesicles.
Researchers from MIT present an approach to make artificial muscles with nylon that bend, controllably, in any direction.
A Tetris-inspired approach to fabricate microscale tissue from hydrogel building blocks affords a non-contact assembly method to build complex and reconfigurable 3D architectures.
In the heart wall the pressure required to pump blood dominates the biomechanics of the contraction cycle of the heart.
A methacrylated hyaluronic acid scaffold with oriented pores perpendicular to the axial direction by an unidirectional freeze-drying method is reported.
This study expands the potential applications of the SMP foam in tissue engineering.
The BioTexValve demonstrates the potential of bio-inspired textile-reinforcement for the fabrication of functional tissue-engineered heart valves for the aortic position.
This new tissue engineering approach may be useful to establish a technology for regenerative medicine and drug discovery using the patient’s own neurons.
Researchers develop conducting graphene–PLGA fiber electrode that promotes muscle cell growth, and that could stimulate muscle regeneration.
A common goal for tissue engineering has been finding a way to regenerate and repair the inflamed tissues.