New Phytologist · 2006 · 52 citations · 50 references
Life SciencesPlant BiologyPlant SciencesPhotosynthesisPlant EcophysiologyPlant PhysiologyCanopy PhysiologyLeaf PhysiologyPlant Physiological EcologyStomatal PhysiologyStomatal RegulationStomatal StructureAcclimation To OzoneIntrinsic EfficiencyPlant Water BalanceStomatal AnatomyStomatal Density AnalysisStomatal Response To Elevated Carbon DioxideStomatal Response To LightStomatal Response To Ozone
* Morphological and physiological attributes were assessed to elucidate the underlying mechanisms of ozone (O(3)) sensitivity in a highly sensitive species, cutleaf coneflower (Rudbeckia laciniata var. digitata). * Foliage at the same height in the canopy on paired O(3)-sensitive and -insensitive cutleaf coneflowers was assessed for level of foliar symptoms, stomatal density, stomatal responsiveness to dynamic changes in light and leaf-to-air vapor pressure deficit (VPD), steady-state responses to light and CO(2), intrinsic transpirational efficiency, and plant water balance. * There were no morphological differences between the sensitivity types that might have contributed to greater O(3) uptake in sensitive individuals. Stomata of sensitive plants were less responsive than those of insensitive plants to experimentally increased and decreased light intensities, and to increased VPD. O(3)-insensitive plants had greater intrinsic transpirational efficiencies, greater maximum assimilation rates under saturating CO(2) and light, and greater carboxylation rates. * Different physiological attributes vary independently within an individual plant, which collectively confer sensitivity or insensitivity to O(3) injury.
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Quantifying plant response to ozone: a unifying theory
Peter B. Reich · Tree Physiology · 1987 · 623 citations
Modelling stomatal ozone flux across Europe
Lisa Emberson, M.R. Ashmore, Howard Cambridge et al. · Environmental Pollution · 2000 · 590 citations
Natural Sciences, Earth Sciences, Environmental Sciences +12