Plant acclimation to stress is associated with profound changes in proteome composition.
Since proteins are directly involved in plant stress response, proteomics studies can …

Tropospheric ozone (O3) is a secondary pollutant that causes oxidative stress in plants due
to the generation of excess reactive oxygen species (ROS). Phenylpropanoid metabolism is …

Forests in Europe face significant changes in climate, which in interaction with air quality
changes, may significantly affect forest productivity, stand composition and carbon …

Tropospheric ozone (O 3) pollution frequently overlaps with drought episodes but the
combined effects are not yet understood. We investigated the physiological and biomass …

Proteomics is a useful analytical approach for investigating crop responses to stress. Recent
remarkable advances in proteomic techniques allow for the identification of a wider range of …

Ozone (O 3) is known to have existed in the atmosphere since ancient times and has played
a critical role in the survival of life on the Earth. In the stratosphere, O 3 plays an extremely …

The contribution of proteomics to the knowledge of forest tree (the most recalcitrant and
almost forgotten plant species) biology is being reviewed and discussed, based on the …

The comprehension of metal homeostasis in plants requires the identification of molecular
markers linked to stress tolerance. Proteomic changes in leaves and cambial zone of …

Ozone is a secondary air pollutant, which causes oxidative stress in plants by producing
reactive oxygen species (ROS) starting by an external attack of leaf apoplast. ROS have a …

Key message Ozone, one of the major atmospheric pollutants, alters tree growth, mainly by
decreasing carbon assimilation and allocation to stems and roots. To date, the mechanisms …