Previous studies have shown that observed large O3 loss rates in cold Arctic Januaries cannot be explained with current understanding of the loss processes, recommended reaction kinetics, and standard assumptions about total stratospheric chlorine and bromine. Studies based on data collected during recent field campaigns suggest faster rates of photolysis and thermal decomposition of ClOOCl and higher stratospheric bromine concentrations than previously assumed. We show that a model accounting for these kinetic changes and higher levels of BrO can largely resolve the January Arctic O3 loss problem and closely reproduces observed Arctic O3 loss while being consistent with observed levels of ClO and ClOOCl. The model also suggests that bromin...
Significant reductions in stratospheric ozone occur inside the polar vortices each spring when chlor...
Ozone loss in the polar regions is driven by halogen catalytic loss cycles. Central to the large ozo...
The photochemically-induced destruction of ground-level Arctic ozone in the Arctic occurs at the ons...
Previous studies have shown that observed large O3 loss rates in cold Arctic Januaries cannot be exp...
Previous studies have shown that observed large O3 loss rates in cold Arctic Januaries cannot be exp...
Previous studies have shown that observed large O3 loss rates in cold Arctic Januaries cannot be exp...
International audienceObservations of the balloon‐borne LPMA/DOAS remote sensing instruments perform...
Using a combination of data from Match, POAM II, POAM III and MLS we show that the chemical loss rat...
We present an analysis of in situ measurements of ClO, BrO, O-3, and long-lived tracers obtained on ...
The gas-phase reaction between BrO and CIO has been proposed as a potentially fast and synergistic m...
[1] The sensitivity of Arctic ozone loss to polar stratospheric cloud volume (VPSC) and chlorine and...
The gas-phase recombination of chlorine monoxide (ClO) has been investigated under the conditions of...
During the Arctic Tropospheric Ozone Chemistry (ARCTOC) campaigns at Ny-Ålesund, Spitsbergen, the r...
The contribution from the chlorine and bromine species in the formation of the Antarctic ozone hole ...
Ozone depletion events (ODEs) during the Arctic spring have been investigated since the 1980s. It wa...
Significant reductions in stratospheric ozone occur inside the polar vortices each spring when chlor...
Ozone loss in the polar regions is driven by halogen catalytic loss cycles. Central to the large ozo...
The photochemically-induced destruction of ground-level Arctic ozone in the Arctic occurs at the ons...
Previous studies have shown that observed large O3 loss rates in cold Arctic Januaries cannot be exp...
Previous studies have shown that observed large O3 loss rates in cold Arctic Januaries cannot be exp...
Previous studies have shown that observed large O3 loss rates in cold Arctic Januaries cannot be exp...
International audienceObservations of the balloon‐borne LPMA/DOAS remote sensing instruments perform...
Using a combination of data from Match, POAM II, POAM III and MLS we show that the chemical loss rat...
We present an analysis of in situ measurements of ClO, BrO, O-3, and long-lived tracers obtained on ...
The gas-phase reaction between BrO and CIO has been proposed as a potentially fast and synergistic m...
[1] The sensitivity of Arctic ozone loss to polar stratospheric cloud volume (VPSC) and chlorine and...
The gas-phase recombination of chlorine monoxide (ClO) has been investigated under the conditions of...
During the Arctic Tropospheric Ozone Chemistry (ARCTOC) campaigns at Ny-Ålesund, Spitsbergen, the r...
The contribution from the chlorine and bromine species in the formation of the Antarctic ozone hole ...
Ozone depletion events (ODEs) during the Arctic spring have been investigated since the 1980s. It wa...
Significant reductions in stratospheric ozone occur inside the polar vortices each spring when chlor...
Ozone loss in the polar regions is driven by halogen catalytic loss cycles. Central to the large ozo...
The photochemically-induced destruction of ground-level Arctic ozone in the Arctic occurs at the ons...