Scaffold based tissue engineering strategies use cells, biomolecules and a scaffold to
promote the repair and regeneration of tissues. Although scaffold‐based tissue engineering …

Living tissues have complex and well‐organized microstructures. Although microtechnology
has been used to create in vivo‐like cell microstructures in vitro, most available microscale …

The technology required for creating an in vivo microenvironment and a neovasculature that
can grow with and service new tissue is lacking, precluding the possibility of engineering …

Recent advances in sub-millimeter scale engineering suggest the possibility for constructing
miniaturized tetherless medical tools for in vivo diagnostics and therapeutics. We review the …

Tissue engineering is the interdisciplinary field of principles of engineering and life sciences.
Most of the financial support for this field originates in the private sector, creating a relative …

Tissue engineering opens up a new area to restore the function of damaged tissue or
replace a defective organ. Common strategies in tissue engineering to repair and form new …

One major obstacle toward the creation and survival of larger, three-dimensional tissues is
the lack of a vascular network that provides transport of oxygen, nutrients, and metabolic …

The design and manufacture of a branched vascular network is essential for bioartificial
organ implantation, which provides nutrients and removes metabolites for multi-cellular …

Abstract Design and fabrication of effective biomimetic vasculatures constitutes a relevant
and yet unsolved challenge, lying at the heart of tissue repair and regeneration strategies …

Creating an optimal microenvironment that supports angiogenesis, cell-cell cross talk, cell
migration, and differentiation is crucial for pulp/dentin regeneration. It was shown that dental …