The design and fabrication of tissue engineering scaffolds is a highly complex process. In
order to provide a proper architecture for cells to grow, proliferate, and differentiate to form …

Emerging 3D printing technologies are enabling the fabrication of complex scaffold
structures for diverse medical applications. 3D printing allows controlled material placement …

Additive manufacturing (AM) is a rapidly emerging technology that has the potential to
produce personalized scaffolds for tissue engineering applications with unprecedented …

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 …

Background Our long-term goal is to design and manufacture a customized graft with porous
scaffold structure for repairing large mandibular defects using topological optimization and …

3D-printing is a powerful manufacturing tool that can create precise microscale architectures
across macroscale geometries. Within biomedical research, 3D-printing of various materials …

Cellular materials with very highly regulated micro-architectures are promising applicant
materials for orthopedic medical uses while requiring implants or substituting for bone due to …

Scaffold design plays an essential role in tissue engineering of articular cartilage by
providing the appropriate mechanical and biological environment for chondrocytes to …

3D bioprinting aims to create custom scaffolds that are biologically active and accommodate
the desired size and geometry. A thermoplastic backbone can provide mechanical stability …

There is great potential for using 3D printed designs fabricated via additive manufacturing
processes for diverse biomedical applications. 3D printing offers capabilities for customizing …