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高浓度二氧化碳条件下的植物生长与竞争:关于赢家、输家及功能群

Plant growth and competition at elevated CO : on winners, losers and functional groups.

作者信息

Poorter Hendrik, Navas Marie-Laure

机构信息

Plant Ecophysiology, Utrecht University, PO Box 800.84, 3508 TB Utrecht, The Netherlands.

Department 'Science for the Protection of Plants and Ecology', Ecole Nationale Supérieure Agronomique de Montpellier, 2 Place Viala, 34060 Montpellier Cedex 1, France.

出版信息

New Phytol. 2003 Feb;157(2):175-198. doi: 10.1046/j.1469-8137.2003.00680.x.

DOI:10.1046/j.1469-8137.2003.00680.x
PMID:33873640
Abstract

The effects of increased atmospheric CO concentrations on vegetative growth and competitive performance were evaluated, using five meta-analyses. Paying special attention to functional groups, we analysed responses at three integration levels: carbon economy parameters, vegetative biomass of isolated plants, and growth in competition. CO effects on seed biomass and plant-to-plant variability were also studied. Underlying the growth stimulation is an increased unit leaf rate (ULR), especially for herbaceous dicots. This is mainly caused by an increase in the whole-plant rate of photosynthesis. The increased ULR is accompanied by a decrease in specific leaf area. The net result of these and other changes is that relative growth rate is only marginally stimulated. The biomass enhancement ratio (BER) of individually grown plants varies substantially across experiments/species, and size variability in the experimental populations is a vital factor in this. Fast-growing herbaceous C3 species respond more strongly than slow-growing C3 herbs or C4 plants. CAM species and woody plants show intermediate responses. When grown in competition, C4 species show lowest responses to elevated CO at high nutrient conditions, whereas at low nutrient levels N -fixing dicots respond relatively strongly. No systematic differences were found between slow- and fast-growing species. BER values obtained for isolated plants cannot be used to estimate BER of the same species grown in interspecific competition - the CO response of monocultures may be a better predictor. Contents Summary 175 I. Introduction 176 II. Materials and Methods 177 III. Factors underlying the growth response 178 IV. Variation in biomass enhancement ratio 181 V. Functional groups of species 184 VI. The response in a more natural environment 188 VII. An outlook 192 VIII. Conclusions 193 Acknowledgements 193 References 193 Appendices 196.

摘要

利用五项荟萃分析评估了大气中二氧化碳浓度升高对植物营养生长和竞争性能的影响。我们特别关注功能组,在三个整合层面分析了响应情况:碳经济参数、孤立植物的营养生物量以及竞争中的生长情况。还研究了二氧化碳对种子生物量和植株间变异性的影响。生长刺激的基础是单位叶率(ULR)增加,尤其是对于草本双子叶植物。这主要是由整株植物光合作用速率的增加引起的。ULR增加伴随着比叶面积的减小。这些变化和其他变化的净结果是相对生长速率仅受到轻微刺激。单独生长的植物的生物量增强率(BER)在不同实验/物种间差异很大,实验种群中的大小变异性是其中的一个重要因素。快速生长的草本C3物种的反应比生长缓慢的C3草本植物或C4植物更强烈。景天酸代谢(CAM)物种和木本植物表现出中等反应。在竞争环境中生长时,C4物种在高养分条件下对二氧化碳升高的反应最低,而在低养分水平下,固氮双子叶植物的反应相对较强。在生长缓慢和快速生长的物种之间未发现系统性差异。从孤立植物获得的BER值不能用于估计在种间竞争中生长的同一物种的BER——单一栽培的二氧化碳响应可能是更好的预测指标。内容摘要175 一、引言176 二、材料与方法177 三、生长响应的潜在因素178 四、生物量增强率的变化181 五、物种功能组184 六、在更自然环境中的响应188 七、展望192 八、结论193 致谢193 参考文献193 附录196

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