生物多样性 ›› 2009, Vol. 17 ›› Issue (4): 340-352. DOI: 10.3724/SP.J.1003.2009.09115
所属专题: 保护生物学: 现状和挑战; 生物入侵
冯玉龙1,*(), 廖志勇1,2, 张茹1,2, 郑玉龙1,2, 李扬苹1, 类延宝1
收稿日期:
2009-04-30
接受日期:
2009-07-07
出版日期:
2009-07-20
发布日期:
2009-07-20
通讯作者:
冯玉龙
作者简介:
*E-mail: fyl@xtbg.ac.cn基金资助:
Yulong Feng1,*(), Zhiyong Liao1,2, Ru Zhang1,2, Yulong Zheng1,2, Yangping Li1, Yanbao Lei1
Received:
2009-04-30
Accepted:
2009-07-07
Online:
2009-07-20
Published:
2009-07-20
Contact:
Yulong Feng
摘要:
进化假说认为, 在入侵地外来种能发生遗传变化, 以适应新的环境, 最终成功定殖和扩散。种内或种间杂交、遗传漂变、新环境带来的新的选择压力等是促使外来种发生进化的重要原因。在入侵地, 响应来自非生物和生物因素的选择压力是外来种发生适应进化的主要原因。本文主要介绍外来植物如何通过进化适应入侵地的纬度、海拔等非生物环境和天敌逃逸等生物环境。关于外来入侵植物对纬度和海拔等环境梯度的适应进化, 本文在强调表型进化研究应与分子标记研究相结合的基础上, 介绍了一些同质种植园实验和交互移植实验。关于外来入侵植物对天敌逃逸的适应进化, 本文主要介绍增强竞争能力的进化假说和修正的增强竞争能力的进化假说, 及其在理论上和验证方法上存在的问题。最后, 本文介绍了氮分配的进化假说, 该假说认为天敌逃逸可使外来入侵植物降低叶氮向防御的分配, 同时增加氮向光合的分配。
冯玉龙, 廖志勇, 张茹, 郑玉龙, 李扬苹, 类延宝 (2009) 外来入侵植物对环境梯度和天敌逃逸的适应进化. 生物多样性, 17, 340-352. DOI: 10.3724/SP.J.1003.2009.09115.
Yulong Feng, Zhiyong Liao, Ru Zhang, Yulong Zheng, Yangping Li, Yanbao Lei (2009) Adaptive evolution in response to environmental gradients and enemy release in invasive alien plant species. Biodiversity Science, 17, 340-352. DOI: 10.3724/SP.J.1003.2009.09115.
特性 Characteristics | EICA假说 EICA Hypothesis | 修正的EICA假说 The Refinement of EICA Hypothesis | 氮分配的进化假说 The Hypothesis of the Evolution of Nitrogen Allocation |
---|---|---|---|
是否区分专性天敌和广谱天敌的作用 Whether differentiate the roles of specialist and generalist enemies | 不区分 Not differentiate | 区分 Differentiate | 区分 Differentiate |
逃逸的天敌类型 Types of enemies escaped by invasive plants | 专性天敌和广谱天敌Specialists and generalists | 专性天敌 Specialists | 专性天敌和广谱天敌(不总是) Specialists and generalists (not always) |
专性天敌抗性(量的防御物质含量)的变化 Changes in resistance to specialists (contents of chemicals related to quantitative defense) | 降低 Decrease | 降低 Decrease | 降低 Decrease |
广谱天敌抗性(质的防御物质含量)的变化 Changes in resistance to generalists (contents of chemicals related to qualitative defense) | 降低 Decrease | 升高 Increase | 降低(当天敌不危害入侵种时)或升高(当天敌危害入侵种时) Decrease (when enemies do not attack invaders) or increase (when enemies attack invaders) |
竞争能力的变化 Changes in competitive ability | 升高 Increase | 升高 Increase | 升高 Increase |
再分配的资源 Resources reallocated | 生物量(碳和能量) Biomass (carbon and energy) | 生物量(碳和能量) Biomass (carbon and energy) | 氮 Nitrogen |
分配的部位 Where allocated | “生长”和“防御” “Growth” and “Defenses” | “生长”和“防御” “Growth” and “Defenses” | 叶绿体、细胞壁中的蛋白质、含氮化学防御物质 Chloroplast, proteins in cell walls, and nitrogen-based defensive chemicals |
是否阐明竞争能力提高的机制 Whether elucidate the mechanisms underlying increased competitive ability | 未阐明 Not elucidate | 未阐明 Not elucidate | 阐明了,即通过提高资源捕获能力和利用效率 Elucidate, i.e. via increasing resource capture ability and use efficiency |
表1 EICA假说、修正的EICA假说和氮分配的进化假说的比较
Table 1 Comparisons among EICA Hypothesis, the Refinement of EICA Hypothesis, and the Hypothesis of the Evolution of Nitrogen Allocation
特性 Characteristics | EICA假说 EICA Hypothesis | 修正的EICA假说 The Refinement of EICA Hypothesis | 氮分配的进化假说 The Hypothesis of the Evolution of Nitrogen Allocation |
---|---|---|---|
是否区分专性天敌和广谱天敌的作用 Whether differentiate the roles of specialist and generalist enemies | 不区分 Not differentiate | 区分 Differentiate | 区分 Differentiate |
逃逸的天敌类型 Types of enemies escaped by invasive plants | 专性天敌和广谱天敌Specialists and generalists | 专性天敌 Specialists | 专性天敌和广谱天敌(不总是) Specialists and generalists (not always) |
专性天敌抗性(量的防御物质含量)的变化 Changes in resistance to specialists (contents of chemicals related to quantitative defense) | 降低 Decrease | 降低 Decrease | 降低 Decrease |
广谱天敌抗性(质的防御物质含量)的变化 Changes in resistance to generalists (contents of chemicals related to qualitative defense) | 降低 Decrease | 升高 Increase | 降低(当天敌不危害入侵种时)或升高(当天敌危害入侵种时) Decrease (when enemies do not attack invaders) or increase (when enemies attack invaders) |
竞争能力的变化 Changes in competitive ability | 升高 Increase | 升高 Increase | 升高 Increase |
再分配的资源 Resources reallocated | 生物量(碳和能量) Biomass (carbon and energy) | 生物量(碳和能量) Biomass (carbon and energy) | 氮 Nitrogen |
分配的部位 Where allocated | “生长”和“防御” “Growth” and “Defenses” | “生长”和“防御” “Growth” and “Defenses” | 叶绿体、细胞壁中的蛋白质、含氮化学防御物质 Chloroplast, proteins in cell walls, and nitrogen-based defensive chemicals |
是否阐明竞争能力提高的机制 Whether elucidate the mechanisms underlying increased competitive ability | 未阐明 Not elucidate | 未阐明 Not elucidate | 阐明了,即通过提高资源捕获能力和利用效率 Elucidate, i.e. via increasing resource capture ability and use efficiency |
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