Summary Stomatal responses to environmental signals differ substantially between ferns and angiosperms. However, the mechanisms that lead to such different responses remain unclear. Here we investigated the extent to which leaf metabolism contributes to coordinate the differential stomatal behaviour among ferns and angiosperms. Stomata from all species were responsive to light and CO2 transitions. However, fern stomatal responses were slower and minor in both absolute and relative terms. Angiosperms have higher stomatal density, but this is not correlated with speed of stomatal closure. The metabolic responses throughout the diel course and under different CO2 conditions differ substantially among ferns and angiosperms. Higher sucrose conte...
(1) One strategy for plants to optimise stomatal function is to open and close their stomata quickly...
AbstractThe control of gaseous exchange between the leaf and bulk atmosphere by stomata governs CO2 ...
Angiosperm and conifer tree species respond differently when exposed to elevated CO2, with angiosper...
More efficient gas exchange strategies under dynamic light environments have been hypothesised to co...
As plants evolved to function on land, they developed stomata for effective gas exchange, for photos...
• The stomata of angiosperms respond to changes in ambient atmospheric concentrations of CO2 (Ca) in...
Stomata are the numerous pores on the leaves of land plants. These pores occur between two adjustabl...
Stomata control gaseous fluxes between the internal leaf air spaces and the external atmosphere. Gua...
<p>Stomatal conductances of all species were responsive to CO<sub>2</sub> in the light, but the natu...
Plants use water in many physiological processes such as in metabolic reactions, sap conduction thro...
International audienceThe proportion of the leaf epidermis allocated to stomata (EP%) and stomatal f...
Stomata are leaf epidermal structures consisting of two guard cells (GC) that surround a pore, in wh...
Angiosperm and conifer tree species respond differently when exposed to elevated CO2, with angiosper...
Plants control water-use efficiency (WUE) by regulating water loss and CO2 diffusion through stomata...
In order for plants to use water efficiently, stomata must ensure an appropriate balance between CO2...
(1) One strategy for plants to optimise stomatal function is to open and close their stomata quickly...
AbstractThe control of gaseous exchange between the leaf and bulk atmosphere by stomata governs CO2 ...
Angiosperm and conifer tree species respond differently when exposed to elevated CO2, with angiosper...
More efficient gas exchange strategies under dynamic light environments have been hypothesised to co...
As plants evolved to function on land, they developed stomata for effective gas exchange, for photos...
• The stomata of angiosperms respond to changes in ambient atmospheric concentrations of CO2 (Ca) in...
Stomata are the numerous pores on the leaves of land plants. These pores occur between two adjustabl...
Stomata control gaseous fluxes between the internal leaf air spaces and the external atmosphere. Gua...
<p>Stomatal conductances of all species were responsive to CO<sub>2</sub> in the light, but the natu...
Plants use water in many physiological processes such as in metabolic reactions, sap conduction thro...
International audienceThe proportion of the leaf epidermis allocated to stomata (EP%) and stomatal f...
Stomata are leaf epidermal structures consisting of two guard cells (GC) that surround a pore, in wh...
Angiosperm and conifer tree species respond differently when exposed to elevated CO2, with angiosper...
Plants control water-use efficiency (WUE) by regulating water loss and CO2 diffusion through stomata...
In order for plants to use water efficiently, stomata must ensure an appropriate balance between CO2...
(1) One strategy for plants to optimise stomatal function is to open and close their stomata quickly...
AbstractThe control of gaseous exchange between the leaf and bulk atmosphere by stomata governs CO2 ...
Angiosperm and conifer tree species respond differently when exposed to elevated CO2, with angiosper...