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雌雄异株植物宽叶蝇子草的性别特异性生理及源-库关系。

Sex-specific physiology and source-sink relations in the dioecious plant Silene latifolia.

作者信息

Laporte Marianne M, Delph Lynda F

机构信息

Department of Biology, Indiana University, 47405, Bloomington, Indiana, USA.

出版信息

Oecologia. 1996 Apr;106(1):63-72. doi: 10.1007/BF00334408.

DOI:10.1007/BF00334408
PMID:28307158
Abstract

Differences in reproductive demands between the sexes of dioecious plants could cause divergence in physiology between the sexes. We found that the reproductive effort of female Silene latifolia plants increased to more than twice that of male plants or female plants that were prevented from setting fruit by lack of pollination after 4 weeks of flowering. Whole-plant source/sink ratios of pollinated females were significantly lower than those of males or unpollinated females because of investment in fruit. We hypothesized that these differences in source/sink ratio between the sexes and within females, depending on pollination, would lead to differences in leaf photosynthetic rates. Within females, we found that photosynthetic capacity was consistent with measurement of whole-plant source/sink ratio. Females that were setting fruit had 30% higher light-saturated photosynthetic rates by 28 days after flowering than females that were not setting fruit. Males, however, had consistently higher photosynthetic rates than females from 10 days after flowering onwards. Males also had approximately twice the dark respiration rates of fruiting females. We found that female reproductive structures are longer-lived and contribute more carbon to their own support than male reproductive structures. Despite the higher rates of leaf dark respiration and lower calyx photosynthetic rates, males fix more carbon than do females. We conclude that females have a sink-regulated mechanism of photosynthesis that allows them to respond to variations in fruit set. This mechanism is not, however, sufficient to explain why male S. latifolia plants have higher rates of photosynthesis, higher source/sink ratios, and lower reproductive allocation, but fail to grow larger than female plants.

摘要

雌雄异株植物两性之间生殖需求的差异可能导致两性在生理上的分化。我们发现,雌性宽叶蝇子草植株的生殖投入在开花4周后增加到雄性植株或因缺乏授粉而无法结果的雌性植株的两倍多。由于果实投资,授粉雌性植株的整株源/库比显著低于雄性或未授粉雌性植株。我们推测,两性之间以及雌性植株内部因授粉而产生的源/库比差异会导致叶片光合速率的差异。在雌性植株中,我们发现光合能力与整株源/库比的测量结果一致。结果的雌性植株在开花28天后的光饱和光合速率比不结果的雌性植株高30%。然而,从开花10天后起,雄性植株的光合速率一直高于雌性植株。雄性植株的暗呼吸速率也约为结果雌性植株的两倍。我们发现,雌性生殖结构的寿命更长,为自身支持贡献的碳比雄性生殖结构更多。尽管叶片暗呼吸速率较高且花萼光合速率较低,但雄性植株固定的碳比雌性植株多。我们得出结论,雌性植株具有一种光合作用的库调节机制,使其能够对坐果变化做出反应。然而,这种机制不足以解释为什么雄性宽叶蝇子草植株具有更高的光合速率、更高的源/库比和更低的生殖分配,但却没有比雌性植株长得更大。

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