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Engineering a biomimetic Intestine for 3D traction force studies

Project Overview

The intestinal epithelium, a series of folds and invaginations into the intestinal lumen, is the primary means of nutrient absorption. These finger-like folds called villi are composed of extracellular matrix (ECM) and serve as a substrate for epithelial cell development. At the crypt or base of each villus, stem cells are continuously being reproduced. As young cells migrate upward toward the tips of the villi, they differentiate into mature epithelial cells. Mature cells are then extruded from the apex to keep this proliferation in check. Our client, Professor Michael Murrell’s goal is to study the mechanical stresses these epithelial cells produce throughout their migration in the hope to determine the mechanism for this collective cell movement. To accomplish this, it is our responsibility to design and manufacture a 3D master mold that is biologically representative of the intestinal villi. From this, we will generate a collagen scaffold to be coated with epithelial cells in order to conduct the traction force study.

Team Picture

Team Members from left to right: Kevin Knapp, Conor Sullivan, Angela Beltrame, Susanna Kwok, Shaun Pomerenke
Team Members from left to right: Kevin Knapp, Conor Sullivan, Angela Beltrame, Susanna Kwok, Shaun Pomerenke

Images

master mold layout
master mold layout
Villus structure
Villus structure
Cell Migration
Cell Migration
Intended Scaffold Production
Intended Scaffold Production
Proof of concept
Proof of concept
Final prototype
Final prototype
Prototype
Prototype

Files

Contact Information

Team Members

  • Conor Sullivan - Team Leader
  • Susanna Kwok - Communicator
  • Kevin Knapp - BSAC
  • Shaun Pomerenke - BWIG
  • Angela Beltrame - BPAG

Advisor and Client

  • Prof. Randolph Ashton - Advisor
  • Prof. Michael Murrell - Client
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