UPC: 9783030448257 | Eukaryome Impact on Human Intestine Homeostasis and Mucosal Immunology: Overview of the First Eukaryome Congress at Institut Pasteur. Paris October 16-18 2019. (Hardcover)

UPC lookup results for: 9783030448257 | Eukaryome Impact on Human Intestine Homeostasis and Mucosal Immunology: Overview of the First Eukaryome Congress at Institut Pasteur. Paris October 16-18 2019. (Hardcover)

Multiple demographic or economic parameters contribute to the origin of emerging infections for example: poverty urbanization climate change conflicts and population migrations. All these factors are a challenge to assess the impact (present and future) of parasitic diseases on public health. The intestine is a major target of these infections; it is a nutrient-rich environment harbouring a complex and dynamic population of 100 trillion microbes: the microbiome. Most researches on the microbiome focus on bacteria which share the gut ecosystem with a population of uni- and multi cellular eukaryotic organisms that may prey on them. Our interest focuses on the families of eukaryotic microbes inhabiting the intestine called intestinal eukaryome that include fungi protists and helminths. Knowledge on the reciprocal influence between the microbiome and the eukaryome and on their combined impact on homeostasis and intestinal diseases is scanty and can be considered as an important emerging field. Furthermore the factors that differentiate pathogenic eukaryotes from commensals are still unknown. This book presents an overview of the science presented and discussed in the First Eukaryome Congress held from October 16th to 18th 2019 at the Pasteur Institute in Paris. This book covers the following topics: Phylogenetic prevalence and diversity of intestinal eukaryotic microbes; and their (still enigmatic) historical evolution and potential contributions to mucosal immune homeostasis. Integrative biology to study the molecular cell biology of parasite-host interactions and the multiple parameters underlining the infectious process. The exploitation of tissue engineering and microfluidics to establish three-dimensional (3D) systems that help to understand homeostasis and pathological processes in the human intestine.