Generalised dose–response curves are essential to understand how plants acclimate to
atmospheric CO2. We carried out a meta‐analysis of 630 experiments in which C3 plants …

Tropospheric ozone (O 3) is an important secondary air pollutant formed as a result of
photochemical reactions between primary pollutants, such as nitrogen oxides (NO x), and …

High ground‐level ozone concentrations are typical of Mediterranean climates. Plant
exposure to this oxidant is known to reduce carbon assimilation. Ozone damage has been …

Spanish; Castilian. El presente trabajo pretende ofrecer una visión panorámica de los
efectos del incremento de CO2 en la atmósfera (en relación con el calentamiento global y …

Tropospheric ozone (O 3) causes widespread damage to vegetation; however, monitoring of
O 3 induced damage is often reliant on manual leaf inspection. Reflectance spectroscopy of …

Increasing concentrations of atmospheric carbon dioxide (CO2) and tropospheric ozone
(O3) have the potential to affect tree physiology and structure, and hence forest feedbacks …

Stomata are crucial in land plant productivity and survival. In general, with lower irradiance,
stomatal and epidermal cell frequency per unit leaf area decreases, whereas guard-cell …

Elevated atmospheric CO2 concentration (eCO2) typically stimulates tree growth, which is
mediated by nitrogen (N) availability; but how N regulates tree biomass responses to eCO2 …

Climate change is expected to be most pronounced at high latitudes, but we have little data
on how dominant boreal tree species will respond to rising temperatures and CO2 …

Pesticide dissipation from plant surfaces depends on a variety of factors including
meteorological conditions, the pesticide's physicochemical properties, and plant …