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热带茎肉质树木季节性发育和休眠的光周期控制

Photoperiodic control of seasonal development and dormancy in tropical stem-succulent trees.

作者信息

Borchert R, Rivera G

机构信息

Division of Biological Sciences, University of Kansas, Lawrence 66045-2106, USA.

出版信息

Tree Physiol. 2001 Mar;21(4):213-21. doi: 10.1093/treephys/21.4.213.

DOI:10.1093/treephys/21.4.213
PMID:11276415
Abstract

Tropical stem-succulent trees store large quantities of water in their trunks yet remain leafless during the early and mid dry season. In contrast to most other tropical trees, bud break of vegetative buds is not induced in fully hydrated stem succulents between the winter solstice and the spring equinox by leaf abscission, abnormal rain showers or irrigation. Vegetative buds of leafless trees are therefore in a state of endo-dormancy similar to that of temperate perennial plants during early winter. Highly synchronous bud break regularly occurs soon after the spring equinox, often weeks before the first rainfalls of the wet season. These observations suggested that endo-dormancy and bud break might be induced by declining and increasing photoperiods after the autumn and spring equinoxes, respectively. In phenological field observations, we confirmed highly synchronous bud break after the spring equinox in many trees of five stem-succulent species in the northern and southern hemispheres. Shoot growth of potted saplings of Plumeria rubra L. was arrested by a decline in day length below 12 h after the autumn equinox, but continued in saplings maintained in a 13-h photoperiod. Conversely, exposure to a 13-h photoperiod induced bud break of dormant apical buds in saplings and cuttings in January, whereas plants maintained in the natural day length of < 11.7 h remained dormant. Photoperiodic control of endo-dormancy of vegetative buds in stem succulents is thus supported by field observations and experimental variation of the photoperiod. At low latitudes, where annual variation of day length is less than 1 h, bud dormancy is induced and broken by variations in photoperiod of less than 30 min.

摘要

热带茎肉质树在其树干中储存大量水分,但在旱季早期和中期仍无叶。与大多数其他热带树不同,在冬至和春分之间,完全吸水的茎肉质植物不会因落叶、异常降雨或灌溉而诱导营养芽的芽萌动。因此,无叶树的营养芽处于类似于温带多年生植物初冬时的内休眠状态。高度同步的芽萌动通常在春分后不久发生,往往在雨季第一场降雨前几周。这些观察结果表明,内休眠和芽萌动可能分别由秋分后光周期下降和春分后光周期增加所诱导。在物候实地观察中,我们证实了在南北半球的五种茎肉质树种的许多树木中,春分后芽萌动高度同步。秋分后,当日照长度降至12小时以下时,鸡蛋花盆栽幼树的新梢生长停止,但在保持13小时光周期的幼树中仍继续生长。相反,1月份将幼树和插条暴露在13小时光周期下可诱导休眠顶芽的芽萌动,而保持在<11.7小时自然日照长度下的植株仍处于休眠状态。因此,实地观察和光周期的实验变化支持了光周期对茎肉质植物营养芽内休眠的控制。在低纬度地区,那里日长的年变化小于1小时,芽休眠由小于30分钟的光周期变化诱导和打破。

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