Submicron patterns-on-a-chip: Fabrication of a microfluidic device incorporating 3D printed surface ornaments

Manufacturing high throughput in vitro models resembling the tissue microenvironment is highly demanded for studying bone regeneration. Tissues such as bone have complex multiscale architectures inside which cells reside. To this end, engineering a microfluidic platform incorporated with three-dimensional (3D) microscaffolds and submicron...

Developing a microfluidic device incorporating submicron topographies for studying bone regeneration

A major challenge facing the study of bone regeneration today is the inability to mimic the tissue microenvironment and the factors comprising it. Organ-on-chip based microfluidic systems today aim at doing so by dynamically culturing living cells in them. These are preferred owing to their small feature sizes, laminar flows, high throughput,...