Literature DB >> 19074636

Novel insights of the gastric gland organization revealed by chief cell specific expression of moesin.

Lixin Zhu1, Jason Hatakeyama, Bing Zhang, Joy Makdisi, Cody Ender, John G Forte.   

Abstract

ERM (ezrin, radixin, and moesin) proteins play critical roles in epithelial and endothelial cell polarity, among other functions. In gastric glands, ezrin is mainly expressed in acid-secreting parietal cells, but not in mucous neck cells or zymogenic chief cells. In looking for other ERM proteins, moesin was found lining the lumen of much of the gastric gland, but it was not expressed in parietal cells. No significant radixin expression was detected in the gastric glands. Moesin showed an increased gradient of expression from the neck to the base of the glands. In addition, the staining pattern of moesin revealed a branched morphology for the gastric lumen. This pattern of short branches extending from the glandular lumen was confirmed by using antibody against zonula occludens-1 (ZO-1) to stain tight junctions. With a mucous neck cell probe (lectin GSII, from Griffonia simplicifolia) and a chief cell marker (pepsinogen C), immunohistochemistry revealed that the mucous neck cells at the top of the glands do not express moesin, but, progressing toward the base, mucous cells showing decreased GSII staining had low or moderate level of moesin expression. The level of moesin expression continued to increase toward the base of the glands and reached a plateau in the base where chief cells and parietal cells abound. The level of pepsinogen expression also increased toward the base. Pepsinogen C was located on cytoplasmic granules and/or more generally distributed in chief cells, whereas moesin was exclusively expressed on the apical membrane. This is a clear demonstration of distinctive cellular expression of two ERM family members in the same tissue. The results provide the first evidence that moesin is involved in the cell biology of chief cells. Novel insights on gastric gland morphology revealed by the moesin and ZO-1 staining provide the basis for a model of cell maturation and migration within the gland.

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Year:  2008        PMID: 19074636      PMCID: PMC2643924          DOI: 10.1152/ajpgi.90597.2008

Source DB:  PubMed          Journal:  Am J Physiol Gastrointest Liver Physiol        ISSN: 0193-1857            Impact factor:   4.052


  37 in total

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3.  Gastric glands and cells: preparation and in vitro methods.

Authors:  T Berglindh
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4.  Primary culture of secretagogue-responsive parietal cells from rabbit gastric mucosa.

Authors:  C S Chew; M Ljungström; A Smolka; M R Brown
Journal:  Am J Physiol       Date:  1989-01

5.  Characterization of an 80-kDa phosphoprotein involved in parietal cell stimulation.

Authors:  T Urushidani; D K Hanzel; J G Forte
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6.  Ezrin-radixin-moesin-binding phosphoprotein 50 is expressed at the apical membrane of rat liver epithelia.

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Authors:  D Hanzel; H Reggio; A Bretscher; J G Forte; P Mangeat
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