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测试适应性可塑性的操纵方法:植物中光敏色素介导的避荫反应

Manipulative Approaches to Testing Adaptive Plasticity: Phytochrome-Mediated Shade-Avoidance Responses in Plants.

作者信息

Schmitt Johanna, Dudley Susan A, Pigliucci Massimo

出版信息

Am Nat. 1999 Jul;154(S1):S43-S54. doi: 10.1086/303282.

DOI:10.1086/303282
PMID:29586708
Abstract

Phenotypic plasticity is often assumed to be adaptive, but this hypothesis has rarely been tested. To support the hypothesis, it is necessary to demonstrate that the phenotype induced in each relevant environment confers high fitness in that environment, relative to alternative phenotypes. Unfortunately, such tests are difficult to perform because plasticity prevents the expression of "inappropriate" phenotypes within each environment. Genetic and physiological manipulation can be used very effectively to extend the range of phenotypes within environments and thus provide powerful tools for testing the adaptive plasticity hypothesis. The expression of specific genes involved in cue perception or signal transduction can be altered by mutation or the introduction of transgenes, thus altering the plastic response of an organism to environmental cues. It is also possible to alter the cue itself or to manipulate the developmental response physiologically so as to obtain alternative phenotypes. The relative fitness of these alternative phenotypes can then be measured in each relevant environment. However, these techniques will be most useful when combined with techniques such as phenotypic selection analysis to identify the specific traits under selection in natural populations. We illustrate these approaches using phytochrome-mediated "shade avoidance" responses in plants as a model system. We review the genetic and physiological mechanisms underlying these responses, illustrate how genetic manipulation can elucidate their adaptive value, and discuss the use of physiological manipulation to measure natural selection on plasticity in the wild.

摘要

表型可塑性通常被认为具有适应性,但这一假设很少得到验证。为了支持该假设,有必要证明在每个相关环境中诱导出的表型相对于其他表型而言,在该环境中具有较高的适应性。不幸的是,此类验证很难进行,因为可塑性会阻止每个环境中“不适当”表型的表达。遗传和生理操作可以非常有效地用于扩展环境内表型的范围,从而为检验适应性可塑性假设提供有力工具。参与信号感知或信号转导的特定基因的表达可以通过突变或转基因的导入而改变,从而改变生物体对环境信号的可塑性反应。也有可能改变信号本身或从生理上操纵发育反应以获得其他表型。然后可以在每个相关环境中测量这些其他表型的相对适应性。然而,当这些技术与表型选择分析等技术相结合以识别自然种群中正在被选择的特定性状时,它们将最有用。我们以植物中光敏色素介导的“避荫”反应作为模型系统来说明这些方法。我们回顾了这些反应背后的遗传和生理机制,说明了遗传操作如何阐明它们的适应性价值,并讨论了利用生理操作来衡量自然环境中对可塑性的自然选择。

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