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Development, Vol 113, Issue 3 779-788, Copyright © 1991 by Company of Biologists


JOURNAL ARTICLES

Human acrosome biogenesis: immunodetection of proacrosin in primary spermatocytes and of its partitioning pattern during meiosis

D Escalier, JM Gallo, M Albert, G Meduri, D Bermudez, G David and J Schrevel
Laboratoire de Biologie de la Reproduction et du Developpement, CHU Bicetre, France.

Proacrosin biosynthesis timing during human spermatogenesis has been studied using the monoclonal antibody 4D4 (mAb 4D4). Frozen and paraffin-embedded sections of testicular biopsies were labelled by standard indirect immunofluorescence and avidin-biotin immunoperoxidase procedures. The labelling specificity was checked by immunochemistry assays on unrelated tissues and by western blotting of testis extracts showing that only the 50-55 x 10(3) Mr proacrosin was recognized by mAb 4D4. Proacrosin was first observed in the Golgi region of midpachytene primary spermatocytes. In late pachytene primary spermatocytes, proacrosin was observed in two regions located at opposite nuclear poles. During the subsequent steps of the first meiotic division, the two bodies containing proacrosin were located: (i) on opposite sides of the equatorial plate during metaphase; (ii) along the microtubular spindle during anaphase; and (iii) close to each chromosomal aggregate during telophase. Two bodies containing proacrosin were still observed in interphasic secondary spermatocytes. The single labelled area observed in early spermatids was found to increase considerably in size during spermiogenesis. Anomalies of proacrosin scattering were observed in patients with Golgi complex partitioning failure. These data reveal proacrosin biosynthesis during diploid and haploid phases of human spermatogenesis and the proacrosin partitioning pattern during meiosis.


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© The Company of Biologists Ltd 1991