Stomata control gaseous exchange between the leaf and bulk atmosphere limiting CO2 uptake for photosynthesis and water loss by transpiration, and therefore determine plant productivity and water use efficiency. In order to function efficiently, stomata must respond to internal and external signals to balance these two diffusional processes. However, stomatal responses are an order of magnitude slower than photosynthetic responses, which lead to a disconnection between gs and A. Here we discuss the influence of anatomical features on the rapidity of stomatal movement, and explore the temporal relationship between A and gs responses. We describe how these mechanisms have been included into recent modelling efforts, increasing the accuracy and...
Background Stomata respond to vapour pressure deficit (D) – when D increases, stomata begin to...
Plant acclimation to growth light environment has been studied extensively, however, the majority of...
Intrinsic water use efficiency (Wi), the ratio of net CO2 assimilation (A) over stomatal conductance...
Stomata control gaseous exchange between the leaf and bulk atmosphere limiting CO2 uptake for photos...
AbstractThe control of gaseous exchange between the leaf and bulk atmosphere by stomata governs CO2 ...
The control of gaseous exchange between the leaf and bulk atmosphere by stomata governs CO2 uptake f...
Stomatal movements control CO₂ uptake for photosynthesis and water loss through transpiration, and t...
In order for plants to use water efficiently, stomata must ensure an appropriate balance between CO2...
Definitions of the variables used and the units are given in Table 1 The literature reports enormous...
Both photosynthesis (A) and stomatal conductance (g s ) respond to changing irradiance, yet stomatal...
Stomatal responses to humidity, soil moisture and other factors that influence plant water status ar...
Stomatal responsiveness to vapour pressure deficit (VPD) results in continuous regulation of daytime...
Recent research has made progress in describing stomatal dynamics in terms of speed, amplitude of re...
The best predictor of leaf level photosynthetic rate is the porosity of the leaf surface, as determi...
More efficient gas exchange strategies under dynamic light environments have been hypothesised to co...
Background Stomata respond to vapour pressure deficit (D) – when D increases, stomata begin to...
Plant acclimation to growth light environment has been studied extensively, however, the majority of...
Intrinsic water use efficiency (Wi), the ratio of net CO2 assimilation (A) over stomatal conductance...
Stomata control gaseous exchange between the leaf and bulk atmosphere limiting CO2 uptake for photos...
AbstractThe control of gaseous exchange between the leaf and bulk atmosphere by stomata governs CO2 ...
The control of gaseous exchange between the leaf and bulk atmosphere by stomata governs CO2 uptake f...
Stomatal movements control CO₂ uptake for photosynthesis and water loss through transpiration, and t...
In order for plants to use water efficiently, stomata must ensure an appropriate balance between CO2...
Definitions of the variables used and the units are given in Table 1 The literature reports enormous...
Both photosynthesis (A) and stomatal conductance (g s ) respond to changing irradiance, yet stomatal...
Stomatal responses to humidity, soil moisture and other factors that influence plant water status ar...
Stomatal responsiveness to vapour pressure deficit (VPD) results in continuous regulation of daytime...
Recent research has made progress in describing stomatal dynamics in terms of speed, amplitude of re...
The best predictor of leaf level photosynthetic rate is the porosity of the leaf surface, as determi...
More efficient gas exchange strategies under dynamic light environments have been hypothesised to co...
Background Stomata respond to vapour pressure deficit (D) – when D increases, stomata begin to...
Plant acclimation to growth light environment has been studied extensively, however, the majority of...
Intrinsic water use efficiency (Wi), the ratio of net CO2 assimilation (A) over stomatal conductance...