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γ-Tubulin and microtubule organization during microsporogenesis in Ginkgo biloba

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Abstract

This is the first report on γ-tubulin and microtubule arrays during microsporogenesis in a gymnosperm. Meiosis in Ginkgo biloba is polyplastidic, as is typical of the spermatophyte clade, and microtubule arrays are organized at various sites during meiosis and cytokinesis. In early prophase, a cluster of γ-tubulin globules occurs in the central cytoplasm adjacent to the off-center nucleus. These globules diminish in size and spread over the surface of the nucleus. A system of microtubules focused on the γ-tubulin forms a reticulate pattern in the cytoplasm. As the nucleus migrates to the center of the microsporocyte, γ-tubulin becomes concentrated at several sites adjacent to the nuclear envelope. Microtubules organized at these foci of γ-tubulin give rise to a multipolar prophase spindle. By metaphase I, the spindle has matured into a distinctly bipolar structure with pointed poles. In both first and second meiosis, γ-tubulin becomes distributed throughout the metaphase spindles, but becomes distinctly polar again in anaphase. In telophase I, γ-tubulin moves from polar regions to the proximal surface of chromosome groups/nuclei where interzonal microtubules are organized. No cell wall is deposited and the interzonal microtubules embrace a plate of organelles between the two nuclear cytoplasmic domains (NCDs) of the dyad. Following second meiosis, phragmoplasts that form between sister and non-sister nuclei fuse to form a complex six-sided structure that directs simultaneous cytokinesis. γ-Tubulin becomes associated with nuclei after both meiotic divisions and is especially conspicuous in the distal hemisphere of each young microspore where an unusual encircling system of cortical microtubules develops.

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Acknowledgements

We thank Professor T. Horio, Tokushima University, Japan for the gift of the G9 antibody.

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Correspondence to R. C. Brown.

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Brown, R.C., Lemmon, B.E. γ-Tubulin and microtubule organization during microsporogenesis in Ginkgo biloba . J Plant Res 118, 121–128 (2005). https://doi.org/10.1007/s10265-005-0199-1

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