Literature DB >> 11933155

Sperm axoneme: a tale of tubulin posttranslation diversity.

Abraham L Kierszenbaum1.   

Abstract

Two microtubule-containing structures are assembled during spermiogenesis: a transient manchette and a stable axoneme. Both structures contain microtubules enriched in posttranslationally modified tubulins. Despite the existence of a spectrum of tubulin isotypes postulated by the multi-tubulin hypothesis, further extended by an elaborated array of posttranslational modifications, it is unknown how this diversity influences microtubule function. There is increasing evidence that different alpha beta-tubulin isotypes can affect the structure and function of microtubules. It is also becoming increasingly clear that eukaryotic cells encode other tubulin proteins expressed by the tubulin superfamily: gamma, delta epsilon, zeta eta, and FtsZ have been identified so far. Although the role of gamma-tubulin in the nucleation of microtubule assembly is well established, the function of delta-, epsilon-, zeta-, eta-, and FtsZ-tubulins is less understood. The members of the tubulin superfamilies found in spermatids include the alpha beta-tubulin dimer, in addition to gamma-tubulin in the centrosome, and delta-tubulin in the perinuclear ring region of the mouse spermatid manchette, the centrosome region, and flagellum. Posttranslational modifications in tubulin isotypes are predominant in the C-terminus exposed on the outside surface of the microtubule. This target site may influence the interaction of microtubule-associated proteins, including motor proteins, and therefore determine the functional specificity of tubulin isotypes. It remains to be determined whether other newcomers to the superfamily of tubulins contain sites prone to posttranslational modification. Copyright 2002 Wiley-Liss, Inc.

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Year:  2002        PMID: 11933155     DOI: 10.1002/mrd.10139

Source DB:  PubMed          Journal:  Mol Reprod Dev        ISSN: 1040-452X            Impact factor:   2.609


  14 in total

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Authors:  Abraham L Kierszenbaum; Eugene Rivkin; Laura L Tres
Journal:  Spermatogenesis       Date:  2011-07-01

Review 2.  Mechanisms of spermiogenesis and spermiation and how they are disturbed.

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Review 3.  The dynamic cytoskeleton of the developing male germ cell.

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Journal:  Biol Cell       Date:  2012-03-14       Impact factor: 4.458

4.  Genetic expansion of chaperonin-containing TCP-1 (CCT/TRiC) complex subunits yields testis-specific isoforms required for spermatogenesis in planarian flatworms.

Authors:  Jenna T Counts; Tasha M Hester; Labib Rouhana
Journal:  Mol Reprod Dev       Date:  2017-11-10       Impact factor: 2.609

5.  UBQLN1 interacts with SPEM1 and participates in spermiogenesis.

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Journal:  Mol Cell Endocrinol       Date:  2010-06-14       Impact factor: 4.102

Review 6.  Sperm bauplan and function and underlying processes of sperm formation and selection.

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Journal:  Physiol Rev       Date:  2021-04-21       Impact factor: 37.312

7.  Increased male fertility using fertility-related biomarkers.

Authors:  Woo-Sung Kwon; Md Saidur Rahman; Do-Yeal Ryu; Yoo-Jin Park; Myung-Geol Pang
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Review 8.  Phenotyping male infertility in the mouse: how to get the most out of a 'non-performer'.

Authors:  Claire L Borg; Katja M Wolski; Gerard M Gibbs; Moira K O'Bryan
Journal:  Hum Reprod Update       Date:  2009-09-15       Impact factor: 15.610

9.  Drosophila spermiogenesis: Big things come from little packages.

Authors:  Lacramioara Fabian; Julie A Brill
Journal:  Spermatogenesis       Date:  2012-07-01

Review 10.  Ciliary/Flagellar Protein Ubiquitination.

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Journal:  Cells       Date:  2015-09-02       Impact factor: 6.600

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