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Brassica campestris L. ssp. chinensis M

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454<br />

stages, as well as in the microspore at the late<br />

developmental stages (Takayama et al., 2000b).<br />

This showed an apparent sporophytic/gametophytic<br />

expression pattern. In future studies, the<br />

expression pattern of BcMF5 should be confirmed<br />

using in situ hybridization.<br />

Acknowledgments<br />

This work was supported by the Natural Science<br />

Foundation of China (No. 30370975) and the<br />

Key Sci-technology Project of Zhejiang Province<br />

(No. 2005C12019-02).<br />

References<br />

Cao JS, Yu XL, Huang AJ, Xu SY. Enhancement of plant<br />

regeneration frequency of in vitro cultured Chinese<br />

cabbage. Acta Horticult Sin 2000;27:452–4.<br />

Cao JS, Yu XL, Ye WZ, Lu G, Xiang X. Functional analysis of<br />

a novel male fertility CYP86MF gene in Chinese<br />

ARTICLE IN PRESS<br />

Q. Zhang et al.<br />

Figure 8. Expression of the BcMF5 promoter in transgenic Arabidopsis by GUS histochemistry staining. (A) Expression of<br />

the BcMF5 promoter in the inflorescence of Arabidopsis; (B) expression of the BcMF5 promoter in the early stage of<br />

anther development of Arabidopsis; (C) expression of the BcMF5 promoter in the late stage of anther development of<br />

Arabidopsis; (D) expression of the BcMF5 promoter in the mature anther of Arabidopsis; (E) expression of the BcMF5<br />

promoter in the pollen of Arabidopsis; (F) expression of the BcMF5 promoter in the pollen tube of the pollinated stigma<br />

of Arabidopsis; and (G) expression of the BcMF5 promoter in the germinal silique of Arabidopsis. Bar ¼ 50 mm.<br />

cabbage (<strong>Brassica</strong> <strong>campestris</strong> L. <strong>ssp</strong>. <strong>chinensis</strong> makino).<br />

Plant Cell Rep 2006;24:715–23.<br />

Dickinson HG, Lewis D. Cytochemical and ultrastructural<br />

differences between intraspecific compatible and<br />

incompatible pollinations in Raphanus. Proc Royal<br />

Soc London Ser B 1973b;183:21–8.<br />

Dickinson HG, Lewis D. The formation of the tryphine<br />

coating the pollen grains of Raphanus, and its properties<br />

relating to the self-incompatibility system. Proc<br />

Royal Soc London Ser B 1973a;184:148–65.<br />

Doughty J, Wong HY, Dickinson HG. Cysteine-rich pollen<br />

coat proteins (PCPs) and their interactions with<br />

stigmatic S (incompatibility) and S-related proteins<br />

in <strong>Brassica</strong>: putative roles in SI and pollination. Ann<br />

Bot 2000;85:S161–9.<br />

Heslop-Harrison J. Ribosome sites and S-gene action.<br />

Nature 1967;218:90–1.<br />

Heslop-Harrison J. Pollen wall development. Science<br />

1968;161:230–7.<br />

Heslop-Harrison J, Heslop-Harrison Y, Knox RB, Howlett<br />

B. Pollen wall proteins: ‘gametophytic’ and ‘sporophytic’<br />

fractions in the pollen walls of the Malvaceae.<br />

Ann Bot 1973;37:403–12.<br />

Hiscock SJ, Doughty J, Willis AC, Dickinson HG. A 7-kDa<br />

pollen coating-borne peptide from <strong>Brassica</strong> napus

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