Gut organoids are stem cell derived 3D models of the intestinal epithelium that are useful for studying interactions between enteric pathogens and their host. While the organoid model has been used for both bacterial and viral infections, this is a closed system with the luminal side being inaccessible without microinjection or disruption of the organoid polarization. In order to overcome this and simplify their applicability for transepithelial studies, permeable membrane based monolayer approaches are needed. In this paper, we demonstrate a method for generating a monolayer model of the human fetal intestinal polarized epithelium that is fully characterized and validated. Proximal and distal small intestinal organoids were used to generat...
In recent years, increasing attention has been devoted to the concept that microorganisms play an in...
The goal of biomedical research is first to understand the mechanism of the diseases, then develop a...
Three-dimensional/3-D organotypic models of human intestinal epithelium mimic the differentiated for...
The intestinal epithelium is a single layer of cells that plays a critical role in digestion, absorb...
Maintenance of intestinal epithelium homeostasis is a complex process because of the multicellular a...
Intestinal organoids have become indispensable tools for many gastrointestinal researchers, advancin...
Conventional in-vitro models of intestinal epithelium such as human intestinal/colonic cancer cell l...
The knowledge about enteric viral infection has vastly increased over the last eight years due to th...
The inner surface of the intestine is a dynamic system, composed of a single layer of polarized epit...
Epithelial cells lining the intestinal mucosa play a critical role in mucosal immune homeostasis. T...
The intestinal epithelium is an important barrier against pathogens in the lumen. Tight junctions be...
Intestinal organoids have emerged as a powerful in vitro tool for studying intestinal biology due to...
A major obstacle in infection biology is the limited ability to recapitulate human disease trajector...
Studies on the intestinal epithelial response to viral infection have previously been limited by the...
A major obstacle in infection biology is the limited ability to recapitulate human disease trajector...
In recent years, increasing attention has been devoted to the concept that microorganisms play an in...
The goal of biomedical research is first to understand the mechanism of the diseases, then develop a...
Three-dimensional/3-D organotypic models of human intestinal epithelium mimic the differentiated for...
The intestinal epithelium is a single layer of cells that plays a critical role in digestion, absorb...
Maintenance of intestinal epithelium homeostasis is a complex process because of the multicellular a...
Intestinal organoids have become indispensable tools for many gastrointestinal researchers, advancin...
Conventional in-vitro models of intestinal epithelium such as human intestinal/colonic cancer cell l...
The knowledge about enteric viral infection has vastly increased over the last eight years due to th...
The inner surface of the intestine is a dynamic system, composed of a single layer of polarized epit...
Epithelial cells lining the intestinal mucosa play a critical role in mucosal immune homeostasis. T...
The intestinal epithelium is an important barrier against pathogens in the lumen. Tight junctions be...
Intestinal organoids have emerged as a powerful in vitro tool for studying intestinal biology due to...
A major obstacle in infection biology is the limited ability to recapitulate human disease trajector...
Studies on the intestinal epithelial response to viral infection have previously been limited by the...
A major obstacle in infection biology is the limited ability to recapitulate human disease trajector...
In recent years, increasing attention has been devoted to the concept that microorganisms play an in...
The goal of biomedical research is first to understand the mechanism of the diseases, then develop a...
Three-dimensional/3-D organotypic models of human intestinal epithelium mimic the differentiated for...