Organization of Course INTRODUCTION 1.Course overview 2.Air Toxics overview 3.HYSPLIT overview HYSPLIT Theory and Practice 4.Meteorology 5.Back Trajectories.

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Presentation transcript:

Organization of Course INTRODUCTION 1.Course overview 2.Air Toxics overview 3.HYSPLIT overview HYSPLIT Theory and Practice 4.Meteorology 5.Back Trajectories 6.Concentrations / Deposition 7.HYSPLIT-SV for semivolatiles (e.g, PCDD/F) 8.HYSPLIT-HG for mercury Overall Project Issues & Examples 9.Emissions Inventories 10.Source-Receptor Post- Processing 11.Source-Attribution for Deposition 12.Model Evaluation 13.Model Intercomparison 14.Collaboration Possibilities

So how good are current models, and how do they compare with one another? 2

Calculated from data used to produce Appendix A of USEPA (2005): Clean Air Mercury Rule (CAMR) Technical Support Document: Methodology Used to Generate Deposition, Fish Tissue Methylmercury Concentrations, and Exposure for Determining Effectiveness of Utility Emissions Controls: Analysis of Mercury from Electricity Generating Units 3

HYSPLIT 1996 ISC: Different Time Periods and Locations, but Similar Results 4

Model-estimated U.S. utility atmospheric mercury deposition contribution to the Great Lakes: HYSPLIT-Hg (1996 meteorology, 1999 emissions) vs. CMAQ-HG (2001 meteorology, 2001 emissions). 5

 Model-estimated U.S. utility atmospheric mercury deposition contribution to the Great Lakes: HYSPLIT-Hg (1996 meteorology, 1999 emissions) vs. CMAQ-Hg (2001 meteorology, 2001 emissions).  This figure also shows an added component of the CMAQ-Hg estimates -- corresponding to 25% of the CMAQ-Hg results – in an attempt to adjust the CMAQ-Hg results to account for the deposition underprediction found in the CMAQ-Hg model evaluation. 6

EMEP Intercomparison Study of Numerical Models for Long-Range Atmospheric Transport of Mercury Summary presented by Mark Cohen, NOAA Air Resources Laboratory, Silver Spring, MD, USA EMEP/TFMM Workshop on the Review of the MSC-E Models on HMs and POPs Oct 13-14, 2005 Hotel Mir, Moscow Russia 7

EMEP Intercomparison Study of Numerical Models for Long-Range Atmospheric Transport of Mercury Intro- duction Stage IStage IIStage IIIConclu- sions ChemistryHg 0 Hg(p)RGMWet DepDry DepBudgets 8 Participants D. Syrakov ……………………………..Bulgaria….NIMH A. Dastoor, D. Davignon ………………Canada......MSC-Can J. Christensen …………………………. Denmark…NERI G. Petersen, R. Ebinghaus …………......Germany…GKSS J. Pacyna ………………………………. Norway…..NILU J. Munthe, I. Wängberg ……………….. Sweden…..IVL R. Bullock ………………………………USA………EPA M. Cohen, R. Artz, R. Draxler …………USA………NOAA C. Seigneur, K. Lohman ………………..USA……...AER/EPRI A. Ryaboshapko, I. Ilyin, O.Travnikov…EMEP……MSC-E

EMEP Intercomparison Study of Numerical Models for Long-Range Atmospheric Transport of Mercury Intro- duction Stage IStage IIStage IIIConclu- sions ChemistryHg 0 Hg(p)RGMWet DepDry DepBudgets 9 Intercomparison Conducted in 3 Stages I.Comparison of chemical schemes for a cloud environment II.Air Concentrations in Short Term Episodes III.Long-Term Deposition and Source-Receptor Budgets

EMEP Intercomparison Study of Numerical Models for Long-Range Atmospheric Transport of Mercury Intro- duction Stage IStage IIStage IIIConclu- sions ChemistryHg 0 Hg(p)RGMWet DepDry DepBudgets 10 Model AcronymModel Name and InstitutionStage IIIIII CAMChemistry of Atmos. Mercury model, Environmental Institute, Sweden MCMMercury Chemistry Model, Atmos. & Environmental Research, USA CMAQCommunity Multi-Scale Air Quality model, US EPA ADOMAcid Deposition and Oxidants Model, GKSS Research Center, Germany MSCE-HMMSC-E heavy metal regional model, EMEP MSC-E GRAHMGlobal/Regional Atmospheric Heavy Metal model, Environment Canada EMAPEulerian Model for Air Pollution, Bulgarian Meteo-service DEHMDanish Eulerian Hemispheric Model, National Environmental Institute HYSPLITHybrid Single Particle Lagrangian Integrated Trajectory model, US NOAA MSCE-HM-HemMSC-E heavy metal hemispheric model, EMEP MSC-E Participating Models

EMEP Intercomparison Study of Numerical Models for Long-Range Atmospheric Transport of Mercury Intro- duction Stage IStage IIStage IIIConclu- sions ChemistryHg 0 Hg(p)RGMWet DepDry DepBudgets 11 Anthropogenic Mercury Emissions Inventory and Monitoring Sites for Phase II (note: only showing largest emitting grid cells) Mace Head, Ireland grassland shore Rorvik, Sweden forested shore Aspvreten, Sweden forested shore Zingst, Germany sandy shore Neuglobsow, Germany forested area

EMEP Intercomparison Study of Numerical Models for Long-Range Atmospheric Transport of Mercury Intro- duction Stage IStage IIStage IIIConclu- sions ChemistryHg 0 Hg(p)RGMWet DepDry DepBudgets 12 Neuglobsow Zingst Aspvreten Rorvik Mace Head

EMEP Intercomparison Study of Numerical Models for Long-Range Atmospheric Transport of Mercury Intro- duction Stage IStage IIStage IIIConclu- sions ChemistryHg 0 Hg(p)RGMWet DepDry DepBudgets 13 Total Gaseous Mercury at Neuglobsow: June 26 – July 6, 1995 NW N N S SE NW Neuglobsow

EMEP Intercomparison Study of Numerical Models for Long-Range Atmospheric Transport of Mercury Intro- duction Stage IStage IIStage IIIConclu- sions ChemistryHg 0 Hg(p)RGMWet DepDry DepBudgets 14 Total Gaseous Mercury (ng/m 3 ) at Neuglobsow: June 26 – July 6, 1995

EMEP Intercomparison Study of Numerical Models for Long-Range Atmospheric Transport of Mercury Intro- duction Stage IStage IIStage IIIConclu- sions ChemistryHg 0 Hg(p)RGMWet DepDry DepBudgets 15 Total Particulate Mercury (pg/m 3 ) at Neuglobsow, Nov 1-14, 1999

16 EMEP Intercomparison Study of Numerical Models for Long-Range Atmospheric Transport of Mercury BudgetsDry DepWet DepRGMHg(p)Hg 0 Chemistry Conclu- sions Stage IIIStage IIStage IIntro- duction Reactive Gaseous Mercury at Neuglobsow, Nov 1-14, 1999

EMEP Intercomparison Study of Numerical Models for Long-Range Atmospheric Transport of Mercury Intro- duction Stage IStage IIStage IIIConclu- sions ChemistryHg 0 Hg(p)RGMWet DepDry DepBudgets 17 Stage II Publications: 2003Ryaboshapko, A., Artz, R., Bullock, R., Christensen, J., Cohen, M., Dastoor, A., Davignon, D., Draxler, R., Ebinghaus, R., Ilyin, I., Munthe, J., Petersen, G., Syrakov, D. Intercomparison Study of Numerical Models for Long Range Atmospheric Transport of Mercury. Stage II. Comparisons of Modeling Results with Observations Obtained During Short Term Measuring Campaigns. Meteorological Synthesizing Centre – East, Moscow, Russia. 2005Ryaboshapko, A., Bullock, R., Christensen, J., Cohen, M., Dastoor, A., Ilyin, I., Petersen, G., Syrakov, D., Artz, R., Davignon, D., Draxler, R., and Munthe, J. Intercomparison Study of Atmospheric Mercury Models. Phase II. Comparison of Models with Short-Term Measurements. Submitted to Atmospheric Environment.

EMEP Intercomparison Study of Numerical Models for Long-Range Atmospheric Transport of Mercury Intro- duction Stage IStage IIStage IIIConclu- sions ChemistryHg 0 Hg(p)RGMWet DepDry DepBudgets 18

EMEP Intercomparison Study of Numerical Models for Long-Range Atmospheric Transport of Mercury Intro- duction Stage IStage IIStage IIIConclu- sions ChemistryHg 0 Hg(p)RGMWet DepDry DepBudgets 19 Stage III Publication: 2005Ryaboshapko, A., Artz, R., Bullock, R., Christensen, J., Cohen, M., Draxler, R., Ilyin, I., Munthe, J., Pacyna, J., Petersen, G., Syrakov, D., Travnikov, O. Intercomparison Study of Numerical Models for Long Range Atmospheric Transport of Mercury. Stage III. Comparison of Modelling Results with Long-Term Observations and Comparison of Calculated Items of Regional Balances. Meteorological Synthesizing Centre – East, Moscow, Russia.

EMEP Intercomparison Study of Numerical Models for Long-Range Atmospheric Transport of Mercury Intro- duction Stage IStage IIStage IIIConclu- sions ChemistryHg 0 Hg(p)RGMWet DepDry DepBudgets 20 Conclusions: Uncertainties in Mercury Modeling Elemental Hg in air- factor of 1.2 Particulate Hg in air- factor of 1.5 Oxidized gaseous Hg in air- factor of 5 Total Hg in precipitation - factor of 1.5 Wet deposition- factor of 2.0 Dry deposition- factor of 2.5 Balances for countries- factor of 2