International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone budget is poorly constrained. We present ship-based measurements of halogen oxides in the high Arctic boundary layer from the sunlit period of March to October 2020 and show that iodine enhances springtime tropospheric ozone depletion. We find that chemical reactions between iodine and ozone are the second highest contributor to ozone loss over the study period, after ozone photolysis-initiated loss and ahead of bromine
Although it has recently been established that iodine plays an important role in the atmospheric che...
Although it has recently been established that iodine plays an important role in the atmospheric che...
During springtime in the polar regions, unique photochemistry converts inert halide salt ions (e.g. ...
International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone bud...
International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone bud...
International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone bud...
International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone bud...
International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone bud...
International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone bud...
International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone bud...
International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone bud...
Unlike bromine, the effect of iodine chemistry on the Arctic surface ozone budget is poorly constrai...
The springtime depletion of tropospheric ozone in the Arctic is known to be caused by active halogen...
Halogens influence the oxidizing capacity of Earth’s troposphere, and iodine oxides form ultrafine a...
During springtime in the polar regions, unique photochemistry converts inert halide salt ions (e.g. ...
Although it has recently been established that iodine plays an important role in the atmospheric che...
Although it has recently been established that iodine plays an important role in the atmospheric che...
During springtime in the polar regions, unique photochemistry converts inert halide salt ions (e.g. ...
International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone bud...
International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone bud...
International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone bud...
International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone bud...
International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone bud...
International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone bud...
International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone bud...
International audienceUnlike bromine, the effect of iodine chemistry on the Arctic surface ozone bud...
Unlike bromine, the effect of iodine chemistry on the Arctic surface ozone budget is poorly constrai...
The springtime depletion of tropospheric ozone in the Arctic is known to be caused by active halogen...
Halogens influence the oxidizing capacity of Earth’s troposphere, and iodine oxides form ultrafine a...
During springtime in the polar regions, unique photochemistry converts inert halide salt ions (e.g. ...
Although it has recently been established that iodine plays an important role in the atmospheric che...
Although it has recently been established that iodine plays an important role in the atmospheric che...
During springtime in the polar regions, unique photochemistry converts inert halide salt ions (e.g. ...