Paracrine mediators of endometrial growth and differentiation

Robert Bigsby, Kathleen E. Bethin

Research output: Chapter in Book/Report/Conference proceedingChapter

3 Citations (Scopus)

Abstract

Human endometrium undergoes cyclic, hormonally driven changes in tissue morphology and functional differentiation. 1,2 Following menstruation, estrogen drives proliferation of the remaining epithelium and underlying stroma to regenerate the full thickness of the mature endometrium. Predominance of progesterone during the ovarian luteal phase pushes the epithelial cells towards a secretory phenotype and increases the complexity of the glandular structures within the endometrium. During the mid-to lateluteal phase, the subepithelial stromal cells undergo a round of proliferation and begin differentiation towards a decidualized phenotype. In addition, while under the influence of progesterone and estrogen, uterine spiral arteries grow, increasing in both length and tortuosity. Ovarian hormones also regulate infiltration of lymphoid cells into the endometrial stroma, particularly in the subepithelial, decidualizing region. All of this growth, differentiation, and tissue patterning takes place in preparation for the arrival and eventual implantation of the developing embryo. The secretory epithelial cells provide nutrients and stimuli that are required for maturation of the embryo. Proteins elaborated by the uterine epithelium activate the embryo to initiate attachment and implantation. The decidualized stromal cells participate in the formation of the maternal placenta and they secrete proteins that regulate the implantation reaction of the invading trophoblasts.

Original languageEnglish (US)
Title of host publicationThe Endometrium
Subtitle of host publicationMolecular, Cellular and Clinical Perspectives, Second Edition
PublisherCRC Press
Pages223-244
Number of pages22
ISBN (Electronic)9780203091500
ISBN (Print)0415385830, 9780415385831
StatePublished - Jan 1 2008

Fingerprint

Endometrium
Stromal Cells
Progesterone
Estrogens
Embryonic Structures
Epithelium
Growth
Epithelial Cells
Phenotype
Uterine Artery
Menstruation
Luteal Phase
Trophoblasts
Placenta
Proteins
Mothers
Hormones
Lymphocytes
Food

ASJC Scopus subject areas

  • Medicine(all)

Cite this

Bigsby, R., & Bethin, K. E. (2008). Paracrine mediators of endometrial growth and differentiation. In The Endometrium: Molecular, Cellular and Clinical Perspectives, Second Edition (pp. 223-244). CRC Press.

Paracrine mediators of endometrial growth and differentiation. / Bigsby, Robert; Bethin, Kathleen E.

The Endometrium: Molecular, Cellular and Clinical Perspectives, Second Edition. CRC Press, 2008. p. 223-244.

Research output: Chapter in Book/Report/Conference proceedingChapter

Bigsby, R & Bethin, KE 2008, Paracrine mediators of endometrial growth and differentiation. in The Endometrium: Molecular, Cellular and Clinical Perspectives, Second Edition. CRC Press, pp. 223-244.
Bigsby R, Bethin KE. Paracrine mediators of endometrial growth and differentiation. In The Endometrium: Molecular, Cellular and Clinical Perspectives, Second Edition. CRC Press. 2008. p. 223-244
Bigsby, Robert ; Bethin, Kathleen E. / Paracrine mediators of endometrial growth and differentiation. The Endometrium: Molecular, Cellular and Clinical Perspectives, Second Edition. CRC Press, 2008. pp. 223-244
@inbook{9aa75c210d9b4101ae4d647405bf9562,
title = "Paracrine mediators of endometrial growth and differentiation",
abstract = "Human endometrium undergoes cyclic, hormonally driven changes in tissue morphology and functional differentiation. 1,2 Following menstruation, estrogen drives proliferation of the remaining epithelium and underlying stroma to regenerate the full thickness of the mature endometrium. Predominance of progesterone during the ovarian luteal phase pushes the epithelial cells towards a secretory phenotype and increases the complexity of the glandular structures within the endometrium. During the mid-to lateluteal phase, the subepithelial stromal cells undergo a round of proliferation and begin differentiation towards a decidualized phenotype. In addition, while under the influence of progesterone and estrogen, uterine spiral arteries grow, increasing in both length and tortuosity. Ovarian hormones also regulate infiltration of lymphoid cells into the endometrial stroma, particularly in the subepithelial, decidualizing region. All of this growth, differentiation, and tissue patterning takes place in preparation for the arrival and eventual implantation of the developing embryo. The secretory epithelial cells provide nutrients and stimuli that are required for maturation of the embryo. Proteins elaborated by the uterine epithelium activate the embryo to initiate attachment and implantation. The decidualized stromal cells participate in the formation of the maternal placenta and they secrete proteins that regulate the implantation reaction of the invading trophoblasts.",
author = "Robert Bigsby and Bethin, {Kathleen E.}",
year = "2008",
month = "1",
day = "1",
language = "English (US)",
isbn = "0415385830",
pages = "223--244",
booktitle = "The Endometrium",
publisher = "CRC Press",

}

TY - CHAP

T1 - Paracrine mediators of endometrial growth and differentiation

AU - Bigsby, Robert

AU - Bethin, Kathleen E.

PY - 2008/1/1

Y1 - 2008/1/1

N2 - Human endometrium undergoes cyclic, hormonally driven changes in tissue morphology and functional differentiation. 1,2 Following menstruation, estrogen drives proliferation of the remaining epithelium and underlying stroma to regenerate the full thickness of the mature endometrium. Predominance of progesterone during the ovarian luteal phase pushes the epithelial cells towards a secretory phenotype and increases the complexity of the glandular structures within the endometrium. During the mid-to lateluteal phase, the subepithelial stromal cells undergo a round of proliferation and begin differentiation towards a decidualized phenotype. In addition, while under the influence of progesterone and estrogen, uterine spiral arteries grow, increasing in both length and tortuosity. Ovarian hormones also regulate infiltration of lymphoid cells into the endometrial stroma, particularly in the subepithelial, decidualizing region. All of this growth, differentiation, and tissue patterning takes place in preparation for the arrival and eventual implantation of the developing embryo. The secretory epithelial cells provide nutrients and stimuli that are required for maturation of the embryo. Proteins elaborated by the uterine epithelium activate the embryo to initiate attachment and implantation. The decidualized stromal cells participate in the formation of the maternal placenta and they secrete proteins that regulate the implantation reaction of the invading trophoblasts.

AB - Human endometrium undergoes cyclic, hormonally driven changes in tissue morphology and functional differentiation. 1,2 Following menstruation, estrogen drives proliferation of the remaining epithelium and underlying stroma to regenerate the full thickness of the mature endometrium. Predominance of progesterone during the ovarian luteal phase pushes the epithelial cells towards a secretory phenotype and increases the complexity of the glandular structures within the endometrium. During the mid-to lateluteal phase, the subepithelial stromal cells undergo a round of proliferation and begin differentiation towards a decidualized phenotype. In addition, while under the influence of progesterone and estrogen, uterine spiral arteries grow, increasing in both length and tortuosity. Ovarian hormones also regulate infiltration of lymphoid cells into the endometrial stroma, particularly in the subepithelial, decidualizing region. All of this growth, differentiation, and tissue patterning takes place in preparation for the arrival and eventual implantation of the developing embryo. The secretory epithelial cells provide nutrients and stimuli that are required for maturation of the embryo. Proteins elaborated by the uterine epithelium activate the embryo to initiate attachment and implantation. The decidualized stromal cells participate in the formation of the maternal placenta and they secrete proteins that regulate the implantation reaction of the invading trophoblasts.

UR - http://www.scopus.com/inward/record.url?scp=85056980219&partnerID=8YFLogxK

UR - http://www.scopus.com/inward/citedby.url?scp=85056980219&partnerID=8YFLogxK

M3 - Chapter

SN - 0415385830

SN - 9780415385831

SP - 223

EP - 244

BT - The Endometrium

PB - CRC Press

ER -