This remarkable effect is not only promising with respect to biomedical use of this technology to induce repair and regeneration of complex structures, but also reveals that the same biophysical signal can induce different (appropriate) structures at distinct anatomical locations.
Inhibition of cell proliferation blocks the regeneration of oral structures in the anthozoan cnidarian (Passamaneck and Martindale, 2012).
Bioceramics play a vital role in the regeneration of lost structures in skeletomuscular system.
A paradigm shift has taken place to utilize tissue engineering and drug delivery approaches towards the regeneration of these structures.
This chapter describes cells and materials used in tissue engineering, including regeneration of specific structures in the body.
Using the musculoskeletal system as an example, this article highlights how knowledge gained from characterization of native tissue regeneration of ECM structures has been leveraged for the design of smart biomaterial scaffolds to facilitate endogenous tissue repair and regeneration.
In this chapter we highlight the use of state of the art methods and materials, including the use of scaffolds and their ideal properties, as well as the incorporation of stem cells for regeneration of craniofacial structures.
The field of tissue engineering has emerged as the avenue for the regeneration of lost structures and tissues by seeding cells on well-designed three-dimensional scaffolds to regenerate fully functional bioengineered tooth.
This review highlights recent advances in the regeneration of DOC structures, including the tooth, periodontium, TMJ, cranial sutures and implant dentistry, with specific emphasis on controlled release of signaling cues for stem cells, biomaterial matrices and scaffolds, and integrated tissue engineering approaches.
To study the impact of S1P on regeneration of vascular structures from the recipient site in isolation, we substituted ovarian transplants with alloderm, an acellular extracellular scaffold.
