Bárbara B. Mendes

TL;DR: The developed magnetic responsive hydrogel represents a potential cell carrier system for interfacial tissue engineering with EMF-controlled properties and is envisioning their application in tendon-to-bone interface.

TL;DR: Conde et al. as discussed by the authors discussed the design considerations of nucleic acid delivery nanoparticles, their extraordinary properties and the structure-function relationships of these nanomaterials with biological systems and diseased cells and tissues.

TL;DR: This innovative bioprinting platform with unpaired biofunctionality allows the fabrication of complex freeform cell-laden constructs that can ultimately be applied in the development of xeno-free 3D tissue models for in vitro research or to develop tissue and organ surrogates for clinical applications.

TL;DR: Recent trends on the use of biomaterials to protect, sequester and deliver these pools of biomolecule in tissue engineering and regenerative medicine approaches are highlighted and particular emphasis is given to strategies that enable to control their spatiotemporal delivery and improve the selectivity of presentation profiles of the biomolecules derived from blood derivatives rich in platelets.

TL;DR: The microstructural patterns stemming from nanoparticle alignment induced the directional growth of seeded and encapsulated cells in the hydrogels, suggesting that this injectable system might find application in both cellular and acellular strategies targeting the regeneration of anisotropic tissues.