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Engineering Mucosal Barriers
From Organoids to Organs-on-Chips with Professor Linda Griffith
Filed under: Disease modeling
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In this webinar, we explore how the explosion of interest in the human microbiome – especially but not only that in the gut – has driven new interest in building human mucosal barrier models.
Watch this webinar to learn:
- Current tissue engineering efforts to generate mucosal barriers
- The influence of device design and fabrication on culture performance for specific applications, including immune cell circulation and microbe-mucosal immune interactions
- How interconnected microphysiological systems (MPSs) reveal non-intuitive interactions between liver and gut, and other organs when inflammation is involved
Mucosal barriers are the gateways to all internal organs, serving to transport oxygen, nutrients, and waste while at the same time performing enormous feats of protection against infection and other hazardous insults. The explosion of interest in the human microbiome – especially but not only that in the gut – has driven new interest in building human mucosal barrier models.
This talk will highlight three related themes: (i) engineering synthetic microenvironments to expand primary adult epithelial organoids and induce morphogenesis into mucosal barriers (ii) engineering microfluidic devices to create microbial-mucosal interfaces that enable chronic co-culture of the most super strict anaerobes, such as Faecalibacterium prausnitzii, with a colon mucosal barrier and (iii) interconnection of mucosal barriers with other tissues in systemic circuits to illuminate the role of gut-derived bacterial metabolites on function of other organ systems. Examples will emphasize how these approaches can be used to model chronic inflammatory diseases.
View our Q&A document from the live event.
Professor Linda Griffith
S.E.T.I. Professor of Biological and Mechanical Engineering Research at Massachusetts Institute of Technology
Director of the Center for Gynepathology Research