Publication | Open Access
Radicals and reservoirs in the GMI chemistry and transport model: Comparison to measurements
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Citations
65
References
2004
Year
Radical EmissionEngineeringClimate ModelingAtmospheric ModelComputational ChemistryEarth System ScienceChemistryThree‐dimensional ChemistryEarth ScienceChemical EngineeringTransport ModelAtmospheric ScienceTransport PhenomenaAtmospheric ModelingOzone Layer DepletionClimate SciencesMeteorologyAtmospheric InteractionRadical (Chemistry)Physical ChemistryQuantum ChemistryClimate DynamicsDiffusion ResistancePhysicochemical AnalysisNatural SciencesAtmospheric TransportGlobal Modeling InitiativeAtmospheric ProcessChemical KineticsGmi Chemistry
We have used a three‐dimensional chemistry and transport model (CTM), developed under the Global Modeling Initiative (GMI), to carry out two simulations of the composition of the stratosphere under changing halogen loading for 1995 through 2030. The two simulations differ only in that one uses meteorological fields from a general circulation model while the other uses meteorological fields from a data assimilation system. A single year's winds and temperatures are repeated for each 36‐year simulation. We compare results from these two simulations with an extensive collection of data from satellite and ground‐based measurements for 1993–2000. Comparisons of simulated fields with observations of radical and reservoir species for some of the major ozone‐destroying compounds are of similar quality for both simulations. Differences in the upper stratosphere, caused by transport of total reactive nitrogen and methane, impact the balance among the ozone loss processes and the sensitivity of the two simulations to the change in composition.
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