Category:Enterocytes

**enterocyte**
	type of cell
	Upload media
	Wikipedia
Instance of	cell type;
Subclass of	endo-epithelial cell; absorptive cell; intestinal epithelial cell;
Part of	intestinal epithelium;
Authority file
	Q1340349; BNCF Thesaurus ID: 72718
	Reasonator; Scholia; Wikidocumentaries; PetScan; statistics; WikiMap; Locator tool; KML file; Search depicted;

Media in category "Enterocytes"

The following 60 files are in this category, out of 60 total.

2431 Lipid Absorption.jpg 640 × 827; 350 KB
Absorption der Monosaccharide im Dünndarm.png 1,123 × 794; 70 KB
Absorption der Proteine im Dünndarm.png 1,123 × 794; 75 KB
Absorption of monosaccharides in small intestine.png 1,123 × 794; 74 KB
Absorption of proteins in small intestine.png 1,123 × 794; 76 KB
Cell enterocyte-es.png 432 × 390; 105 KB
Cell enterocyte.png 432 × 390; 99 KB
Cell turnover and proliferation in the intestinal epithelium.jpg 1,384 × 918; 489 KB
Cellules intestinales chez l'homme.jpg 794 × 1,058; 68 KB
Cellules intestinales chez l'hommenltxt.jpg 834 × 991; 294 KB
Duodenum DMT1 Uptake.png 1,796 × 795; 63 KB
Electron micrographs of DicerF-F and DicerΔIEC PP.png 1,030 × 1,416; 1.95 MB
Enterocito apical basal.png 329 × 618; 199 KB
Enterocito estructura hexagonal caderina actina.png 1,028 × 264; 445 KB
Epithelial Tissues Brush Border in Simple Columnar Epithelium (27854453998).jpg 3,264 × 1,840; 4.7 MB
Epithelial Tissues Mucous Glands in Simple Columnar Epithelium (27854454278).jpg 3,264 × 1,840; 4.75 MB
Epithelial Tissues Simple Columnar Epithelium (27854452128).jpg 3,264 × 1,840; 1.37 MB
Epithelial Tissues Simple Columnar Epithelium (27854452618).jpg 3,264 × 1,840; 917 KB
Epithelial Tissues Simple Columnar Epithelium (27854453538).jpg 3,264 × 1,840; 922 KB
Epithelial Tissues Simple Columnar Epithelium (41723124791).jpg 3,264 × 1,840; 1.32 MB
Gliadin-Peptide-P31-43-Localises-to-Endocytic-Vesicles-and-Interferes-with-Their-Maturation-pone.0012246.s002.ogv 3.2 s, 675 × 668; 139 KB
Gliadin-Peptide-P31-43-Localises-to-Endocytic-Vesicles-and-Interferes-with-Their-Maturation-pone.0012246.s003.ogv 4.0 s, 675 × 668; 518 KB
Heligmosomoides polygyrus bakeri induced IL-1β production promotes helminth chronicity.png 1,623 × 1,453; 300 KB
Host-pathogen interface. Human Salmonella in chicken ileum (Original work of Dr R C YashRoy).png 984 × 720; 1,012 KB
Human Cell Groups distributed by Cell Count and by Aggregate Cell Mass.jpg 3,162 × 2,096; 1.08 MB
Human jejunum microvilli 1 - TEM.jpg 640 × 480; 87 KB
Human jejunum microvilli 2 - TEM.jpg 640 × 480; 86 KB
Human jejunum microvilli 3 - TEM.jpg 640 × 480; 89 KB
IESC activity, including proliferation, differentiation, and maintenance, is regulated via the communication between EECs, Paneth cells, enterocytes, and IESCs.png 3,784 × 3,142; 1.84 MB
IL-1β attenuates Hp-induced increases in type 2 innate lymphoid cells (ILC2).png 2,010 × 2,176; 888 KB
Intestinal amino acid, peptide, fatty acid, and lipid absorption are regulated via the communication between EEC-derived incretins and enterocytes.png 4,310 × 2,472; 2.41 MB
Intestinal epithelial cell differentiation pathways.jpg 446 × 595; 129 KB
Intestinal epithelial cells.jpg 827 × 1,280; 116 KB
Intestinal glucose absorption is regulated via the communication between EEC-derived incretins and enterocytes.png 4,233 × 2,348; 1.04 MB
Intestine immunology scheme.jpg 1,435 × 1,448; 237 KB
Microvilli.jpg 640 × 448; 83 KB
Model for effects of metformin on ileal epithelial barrier function.png 1,419 × 726; 596 KB
Organization of the intestinal villus and crypt.png 1,070 × 773; 353 KB
Parallels between the Drosophila and mammalian gut epithelia.png 1,350 × 2,042; 1.97 MB
Saccharomyces-boulardii-Improves-Intestinal-Cell-Restitution-through-Activation-of-the-α2β1-pone.0018427.s001.ogv 6.0 s, 360 × 288; 2.04 MB
Saccharomyces-boulardii-Improves-Intestinal-Cell-Restitution-through-Activation-of-the-α2β1-pone.0018427.s002.ogv 6.0 s, 360 × 288; 1.69 MB
Scanning and transmission electron micrographs of the villi, ileal epithelial cells and other ultrastructural features from 21 d old chicks.jpg 1,538 × 1,668; 2.72 MB
Scanning electron micrographs of ileal mucosa of 21 d old chicks demonstrating SFB, mucus and villus damage.jpg 1,889 × 1,627; 1.74 MB
Schematic diagram of the intestinal TC-ILC2 circuit in obesity.jpg 4,921 × 3,385; 1.02 MB
Selective permeability routes in epithelium.png 1,142 × 821; 856 KB
Selective permeability routes in epithelium.svg 960 × 720; 396 KB
Small intestine surface.svg 475 × 727; 265 KB
The distribution, morphology, and functions of tuft cells.jpg 1,381 × 953; 897 KB
The underlying mechanism of intestinal epithelial cell differentiation.jpg 1,166 × 884; 464 KB
Transmission electron micrograph of a normal apical junctional complex (AJC), the structure between two adjacent enterocytes from the ileal epithelium region of a 21 d old chick.jpg 1,228 × 955; 751 KB
Transmission electron micrographs showing the architecture of intestinal epithelial cells and several types of immune cells in the ileum from 21 d old chicks Cropped d and g.jpg 464 × 684; 297 KB
Transmission electron micrographs showing the architecture of intestinal epithelial cells and several types of immune cells in the ileum from 21 d old chicks.jpg 1,381 × 1,354; 1.65 MB
Transmission electron microscopic epithelial characterization.png 1,933 × 1,385; 2.49 MB
Tuft cells (TC) as potential therapeutic targets.jpg 732 × 938; 464 KB
Type 2 immune response orchestrated by TCs in the small intestine A feed-forward loop of the tuft 2-ILC2 axis can be observed in the early stage of intestinal helminth infection.jpg 650 × 959; 489 KB
Vectorial pathway for statin distribution from enterocytes to hepatocytes for their pharmacological action and metabolism and elimination via the bile and kidneys.png 3,654 × 2,375; 697 KB
Villi & microvilli of small intestine.svg 512 × 384; 952 KB
Viruses-11-00460-ag.png 1,191 × 783; 306 KB
Viruses-11-00460-g001.webp 3,346 × 1,546; 759 KB
الخلية المعوية.png 489 × 312; 48 KB