… what we consider a new field, Regenerative Engineering, defined as the Convergence of …
of complex tissues and organ systems. Included in the regenerative engineering paradigm is …

… In this regard, the Atala group developed an integrated tissue organ printer (ITOP) to
fabricate complex tissue interfaces as well as vascularized cellular constructs that are clinically …

… Polymer printing gave rise to several branches of 3D printing, including … 2D bioprinting
techniques with living cells using such micro-positioning techniques, which made complex tissue …

… In this article, we review the applications of 3D bioprinting. First, we consider the most popular
3D bioprinting strategies and bioinks. Next, we described the application of 3D bioprinting …

… , 3D printing made its appearance in healthcare where surgeons began 3D printing dental
… Subsequently the term ‘3D bioprinting’ emerged where the material being printed, called ‘…

… of 3D bioprinting for tissue engineering are presented. First, we introduce the main strategies
of 3D printing (both non-biological and bioprinting) … for 3D bioprinting applications in tissue …

… the in vitro complex tissue model constructions based on 3D bioprinting. We begin with an
overview of 3D printing techniques, biomaterials and their use in in vitro tissue construction, …

… complex tissue and organ structure, as diverse as bone scaffolds that can reconstruct and
deform naturally and glands that can be used for endocrine disease treatment, 3D bioprinting …

… of a 3D engineered tissue or organ. Lastly, moving toward complex tissue printing involves
… Resolution in 3D printing can be determined by the intrinsic feature of the smallest material …

… [ 25, 26 ] Similarly, this was enabled by a rapid revolution that the field of 3D printing …
before bioprinting can become an efficient tool for fabrication of sizeable complex tissues and …