Co-culture cassette for anaerobes and primary human intestinal epithelium

  • Sims, Christopher E. (PI)

Project Details

Description

The human colon is a remarkable organ, playing critical roles in drug uptake and metabolism as well as harboring the 100 trillion microbial cells of the microbiome, which itself has multiple impacts on human health. For these reasons, there is a widespread need in academia and the biotechnology marketplace for in vitro studies of human colon physiology and the interaction between colon tissue and the anaerobic bacteria of the microbiome. To meet this need, Altis Biosystems LLC, an early stage biotechnology company, will collaborate with scientists at the University of North Carolina (UNC) at Chapel Hill to develop a new technology for cell culture to co-culture normal, human colonic epithelial cells with anaerobic microbiota. The platform will be designed with the eventual goal during Phase II of creating systems for unique high- content assays of cellular activity at the interface of the human colonic epithelium and microbiome. In this Phase I SBIR, this collaboration will design, prototype and test the Self- sustaining Intestinal Microbiome Platform (SIMPle). The goal is to expand the use of this technology to the large community in the life science market. The collaboration represents an ideal opportunity for the translation of an academic technology to the marketplace through the NIH sponsored SBIR program. We will prototype user-friendly SIMPle cassettes capable of maintaining a steep oxygen gradient between luminal and basal reservoirs and establish protocols long-term co-culture of aerobic epithelial cells with anaerobic microbiota.
StatusFinished
Effective start/end date21/9/1831/8/19

Funding

  • National Institute of Diabetes and Digestive and Kidney Diseases: US$224,898.00

ASJC Scopus Subject Areas

  • Biotechnology

Fingerprint

Explore the research topics touched on by this project. These labels are generated based on the underlying awards/grants. Together they form a unique fingerprint.