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较小的气孔需要较少的叶片干燥来关闭:以玫瑰 hydrida 为例。

Smaller stomata require less severe leaf drying to close: a case study in Rosa hydrida.

机构信息

Department of Food Science, Århus University, Kirstinebjergvej 10, DK-5792 Årslev, Denmark.

出版信息

J Plant Physiol. 2013 Oct 15;170(15):1309-16. doi: 10.1016/j.jplph.2013.04.007. Epub 2013 May 29.

DOI:10.1016/j.jplph.2013.04.007
PMID:23726470
Abstract

Stomata formed at high relative air humidity (RH) close less as leaf dries; an effect that varies depending on the genotype. We here quantified the contribution of each stomatal response characteristic to the higher water loss of high RH-grown plants, and assessed the relationship between response characteristics and intraspecific variation in stomatal size. Stomatal size (length multiplied by width), density and responsiveness to desiccation, as well as pore dimensions were analyzed in ten rose cultivars grown at moderate (60%) or high (85%) RH. Leaf morphological components and transpiration at growth conditions were also assessed. High growth RH resulted in thinner (11%) leaves with larger area. A strong positive genetic correlation of daytime and nighttime transpiration at either RH was observed. Stomatal size determined pore area (r=0.7) and varied by a factor of two, as a result of proportional changes in length and width. Size and density of stomata were not related. Following desiccation, high RH resulted in a significantly lower (6-19%) decline of transpiration in three cultivars, whereas the relative water content (RWC) of high RH-expanded leaflets was lower (29-297%) in seven cultivars. The lower RWC of these leaflets was caused by (a) higher (33-72%) stable transpiration and/or (b) lower (12-143%) RWC at which this stable transpiration occurred, depending on the cultivar. Stomatal size was significantly correlated with both characteristics (r=0.5 and -0.7, respectively). These results indicate that stomatal size explains much of the intraspecific variation in the regulation of transpiration upon water deprivation on rose.

摘要

在相对高的空气湿度(RH)下形成的气孔在叶片干燥时关闭得更紧密;这种效应因基因型而异。我们在这里量化了每个气孔响应特征对高 RH 生长植物更高水分损失的贡献,并评估了响应特征与气孔大小的种内变异之间的关系。在中等(60%)或高(85%)RH 下生长的十个玫瑰品种中分析了气孔大小(长度乘以宽度)、密度和对干燥的响应性以及孔径尺寸。还评估了叶片形态成分和在生长条件下的蒸腾作用。高生长 RH 导致叶片更薄(11%)但面积更大。在任何 RH 下,白天和夜间蒸腾的强烈正遗传相关性都得到了观察。气孔大小决定了孔径(r=0.7),并且由于长度和宽度的比例变化,变化了两倍。气孔的大小和密度没有关系。在干燥后,高 RH 导致三个品种的蒸腾作用显著降低(6-19%),而七个品种的高 RH 扩展的小叶的相对含水量(RWC)降低(29-297%)。这些小叶的较低 RWC 是由于(a)较高(33-72%)稳定蒸腾和/或(b)较低(12-143%)RWC,具体取决于品种。气孔大小与这两个特征都显著相关(r=0.5 和-0.7)。这些结果表明,气孔大小解释了玫瑰在水分胁迫下蒸腾调节的种内变异的很大一部分。

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