Literature DB >> 18515316

Inhibin, activin, follistatin and FSH serum levels and testicular production are highly modulated during the first spermatogenic wave in mice.

Badia Barakat1, Anne E O'Connor, Elspeth Gold, David M de Kretser, Kate L Loveland.   

Abstract

Testicular development is governed by the combined influence of hormones and proteins, including FSH, inhibins, activins and follistatin (FST). This study documents the expression of these proteins and their corresponding mRNAs, in testes and serum from mice aged 0 through 91 days post partum (dpp), using real-time PCR, in situ hybridisation, immunohistochemistry, ELISA and RIA. Serum immunoactive total inhibin and FSH levels were negatively correlated during development, with FSH levels rising and inhibin levels falling. Activin A production changed significantly during development, with subunit mRNA and protein levels declining rapidly after 4 dpp, while simultaneously levels of the activin antagonists, FST and inhibin/activin beta(C), increased. Inhibin/activin beta(A) and beta(B) subunit mRNAs were detected in Sertoli, germ and Leydig cells throughout testis development, with the beta(A) subunit also detected in peritubular myoid cells. The alpha, beta(A), beta(B) and beta(C) subunit proteins were detected in Sertoli and Leydig cells of developing and adult mouse testes. While beta(A) and beta(B) subunit proteins were observed in spermatogonia and spermatocytes in immature testes, beta(C) was localised to leptotene and zygotene spermatocytes in immature and adult testes. Nuclear beta(A) subunit protein was observed in primary spermatocytes and nuclear beta(C) subunit in gonocytes and round spermatids. The changing spatial and temporal distributions of inhibins and activins indicate that their modulated synthesis and action are important during onset of murine spermatogenesis. This study provides a foundation for evaluation of these proteins in mice with disturbed testicular development, enabling their role in normal and perturbed spermatogenesis to be more fully understood.

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Year:  2008        PMID: 18515316     DOI: 10.1530/REP-08-0140

Source DB:  PubMed          Journal:  Reproduction        ISSN: 1470-1626            Impact factor:   3.906


  33 in total

1.  Endocrine disrupting chemicals: Multiple effects on testicular signaling and spermatogenesis.

Authors:  Bonnie Hy Yeung; Hin T Wan; Alice Ys Law; Chris Kc Wong
Journal:  Spermatogenesis       Date:  2011-07-01

Review 2.  TGF-β superfamily: how does it regulate testis development.

Authors:  Yun-Shu Fan; Yan-Jun Hu; Wan-Xi Yang
Journal:  Mol Biol Rep       Date:  2011-09-27       Impact factor: 2.316

3.  Adult testicular dysgenesis of Inhba conditional knockout mice may also be caused by disruption of cross-talk between Leydig cells and germ cells.

Authors:  Zhijian Sun; Zhen Li; Yuanqiang Zhang
Journal:  Proc Natl Acad Sci U S A       Date:  2010-08-05       Impact factor: 11.205

4.  TGFβ superfamily signaling regulators are differentially expressed in the developing and adult mouse testis.

Authors:  Catherine Itman; Chin Wong; Penny Af Whiley; Dhanushi Fernando; Kate L Loveland
Journal:  Spermatogenesis       Date:  2011-01

Review 5.  Inhibin at 90: from discovery to clinical application, a historical review.

Authors:  Yogeshwar Makanji; Jie Zhu; Rama Mishra; Chris Holmquist; Winifred P S Wong; Neena B Schwartz; Kelly E Mayo; Teresa K Woodruff
Journal:  Endocr Rev       Date:  2014-07-22       Impact factor: 19.871

Review 6.  Testicular defense systems: immune privilege and innate immunity.

Authors:  Shutao Zhao; Weiwei Zhu; Shepu Xue; Daishu Han
Journal:  Cell Mol Immunol       Date:  2014-06-23       Impact factor: 11.530

Review 7.  Receptors and signaling pathways involved in proliferation and differentiation of Sertoli cells.

Authors:  Thaís Fg Lucas; Aline R Nascimento; Raisa Pisolato; Maristela T Pimenta; Maria Fatima M Lazari; Catarina S Porto
Journal:  Spermatogenesis       Date:  2014-02-20

8.  Impact of 900 MHz electromagnetic field exposure on main male reproductive hormone levels: a Rattus norvegicus model.

Authors:  Masood Sepehrimanesh; Mehdi Saeb; Saeed Nazifi; Nasrin Kazemipour; Gholamali Jelodar; Saeedeh Saeb
Journal:  Int J Biometeorol       Date:  2013-12-20       Impact factor: 3.787

9.  Developmentally regulated SMAD2 and SMAD3 utilization directs activin signaling outcomes.

Authors:  Catherine Itman; Chris Small; Michael Griswold; Ankur K Nagaraja; Martin M Matzuk; Chester W Brown; David A Jans; Kate L Loveland
Journal:  Dev Dyn       Date:  2009-07       Impact factor: 3.780

10.  Activin C antagonizes activin A in vitro and overexpression leads to pathologies in vivo.

Authors:  Elspeth Gold; Niti Jetly; Moira K O'Bryan; Sarah Meachem; Deepa Srinivasan; Supreeti Behuria; L Gabriel Sanchez-Partida; Teresa Woodruff; Shelley Hedwards; Hong Wang; Helen McDougall; Victoria Casey; Birunthi Niranjan; Shane Patella; Gail Risbridger
Journal:  Am J Pathol       Date:  2008-12-18       Impact factor: 4.307

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