Polymeric scaffolds for tissue engineering can be prepared with a multitude of different
techniques. Many diverse approaches have recently been under development. The …

One of the main issues in tissue engineering is the fabrication of scaffolds that closely mimic
the biomechanical properties of the tissues to be regenerated. Conventional fabrication …

In bone tissue engineering using a biodegradable scaffold, geometry of the porous scaffold
microstructure is a key factor for controlling mechanical function of the bone–scaffold system …

Organ loss and failure is one of the most critical issues facing the healthcare industry in
developed nations. The shortage of available organ donors has driven the growth and …

Micro-scale technologies have already dramatically changed our society through their use in
the microelectronics and telecommunications industries. Today these engineering tools are …

Tissue engineering combines principles of the life sciences and engineering to replace and
repair damaged human tissue. Present tissue engineering methods generally require the …

Although three-dimensional fibroin scaffolds have been prepared with freeze drying method,
the porosity and pore sizes still can not satisfy the requirement of tissue engineering. In this …

This study demonstrated a freeform fabrication of porous hydrophobic polyethylene parts by
three‐dimensional printing technique, using water‐based binder. This involved initially …

This study demonstrates that a double infiltration technique, when compared to traditional
single infiltration, can increase the mechanical properties of natural polymers fabricated by …

Mechanical properties of three‐dimensional (3D) scaffolds can be appropriately modulated
through novel fabrication techniques like 3D fiber deposition (3DF), by varying scaffold's …