Vascular epiphytes are a major biomass component of forests across the globe and they contribute to 9% of global vascular plant diversity. To improve our understanding of the whole-plant response of epiphytes to future climate change, we investigated for the first time both individual and combined effects of elevated CO2 (560 ppm) and light on the physiology and growth of two epiphyte species [Tillandsia brachycaulos (CAM) and Phlebodium aureum (C3)] grown for 272 days under controlled conditions. We found that under elevated CO2 the difference in water loss between the light (650 μmol m-2s-1) and shade (130 μmol m-2s-1) treatment was strongly reduced. Stomatal conductance (gs) decreased under elevated CO2, resulting in an approximate 40–45...
Atmospheric CO2 levels are rising rapidly due to anthropogenic activities. Although plants require C...
To investigate the impact of manipulating stomatal density, a collection of Arabidopsis epidermal pa...
Premise of research. Epiphytic bromeliads endure intense seasonal environmental changes in the canop...
Epiphytes are plants susceptible to the current climate change due to continuous exposure of environ...
Tropical montane cloud forests support abundant epiphytic vascular plant communities that serve impo...
Intrinsic water use efficiency (iWUE), defined as the ratio of photosynthesis to stomatal conductanc...
The consequences of sharp rise in atmospheric carbon dioxide concentration ([CO2]) and global warmin...
The global carbon and water cycles are governed by the coupling of CO2 and water vapour exchanges th...
Although physiological responses to drought have been examined in several species of epiphytic brome...
© 2019 Dr Shihab UddinAtmospheric CO2 concentration ([CO2]) is rising due to anthropogenic activitie...
1. Epiphytes have the potential to modify the canopy environments in which they grow. Accurately eva...
Predicted increases in atmospheric concentration of carbon dioxide (CO2) coupled with increased temp...
© 2014, Springer-Verlag Berlin Heidelberg. Increased availability of dissolved CO2 in the ocean can ...
Plant morphology and function are sensitive to rising atmospheric carbon dioxide (CO2) concentration...
Elevated atmospheric carbon dioxide causes changes in most plant species in terms of physiological a...
Atmospheric CO2 levels are rising rapidly due to anthropogenic activities. Although plants require C...
To investigate the impact of manipulating stomatal density, a collection of Arabidopsis epidermal pa...
Premise of research. Epiphytic bromeliads endure intense seasonal environmental changes in the canop...
Epiphytes are plants susceptible to the current climate change due to continuous exposure of environ...
Tropical montane cloud forests support abundant epiphytic vascular plant communities that serve impo...
Intrinsic water use efficiency (iWUE), defined as the ratio of photosynthesis to stomatal conductanc...
The consequences of sharp rise in atmospheric carbon dioxide concentration ([CO2]) and global warmin...
The global carbon and water cycles are governed by the coupling of CO2 and water vapour exchanges th...
Although physiological responses to drought have been examined in several species of epiphytic brome...
© 2019 Dr Shihab UddinAtmospheric CO2 concentration ([CO2]) is rising due to anthropogenic activitie...
1. Epiphytes have the potential to modify the canopy environments in which they grow. Accurately eva...
Predicted increases in atmospheric concentration of carbon dioxide (CO2) coupled with increased temp...
© 2014, Springer-Verlag Berlin Heidelberg. Increased availability of dissolved CO2 in the ocean can ...
Plant morphology and function are sensitive to rising atmospheric carbon dioxide (CO2) concentration...
Elevated atmospheric carbon dioxide causes changes in most plant species in terms of physiological a...
Atmospheric CO2 levels are rising rapidly due to anthropogenic activities. Although plants require C...
To investigate the impact of manipulating stomatal density, a collection of Arabidopsis epidermal pa...
Premise of research. Epiphytic bromeliads endure intense seasonal environmental changes in the canop...