Tissue engineering aims at replicating tissues and organs to develop applications in vivo
and in vitro. In vivo, by engineering artificial constructs using functional materials and cells to …

The ability to create complex three-dimensional cellular models that can effectively replicate
the structure and function of human organs and tissues in vitro has the potential to …

In the era of “big data,” coping with a society that is in constant development, the discovery of
“new” scientific and technological knowledge must (i) progress at an incredibly fast pace,(ii) …

Historically the culture of mammalian cells in the laboratory has been performed on planar
substrates with media cocktails that are optimized to maintain phenotype. However, it is …

Conventional approaches in drug development involve testing on 2D-cultured mammalian
cells, followed by experiments in rodents. Although this is the common strategy, it has …

Biomaterial scaffolds have been a foundational element of the tissue engineering paradigm
since the inception of the field. Over the years there has been a progressive move toward …

Three-dimensional (3D) bioprinting is an emerging tissue engineering technology, already
with several remarkable accomplishments and with more promises to fulfill. Besides the …

The emergence of new technologies in tissue engineering and regenerative medicine
promises to make a number of previously impossible applications a reality, such as …

The persistent shortage of donor-organs for transplantation and accurate tissue models for
disease study has resulted in a high demand for artificial tissues and organs. The field of …

Bioprinting promises to create three-dimensional in vitro models to study pathological states
and possible new therapies, and in the future, to produce complex tissue and organ …