EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, 30-31 March The potential of MTG-IRS to detect high pollution events at urban and regional.

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EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, March The potential of MTG-IRS to detect high pollution events at urban and regional scales Aim The study investigates the capability of IRS onboard MTG to detect enhanced levels of carbon monoxide (CO) and ozone (O 3 ) at local and regional scales, in particular over Europe. People involved Cathy Clerbaux, Anne Boynard (SA/IPSL- CNRS, Paris) Pierre Coheur, Oliver Scharf (ULB, Brussels) Some slides extracted from a former study

EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, March >> Detection of pollution peaks with IR instruments -Controlled pollutants are O 3, CO, NO 2, SO 2, PM; Ozone : peaks in the afternoon. Alert levels exceeded several days per year. Current prediction scores around 50%. CO : Alert levels exceeded only when big fire events occur. - All controlled pollutants but ozone are continuously decreasing above Europe; - O 3 and CO (and SO 2 -volcano) are measured by TIR; - Thermal contrast is high during the day and during the spring/summer, over land. Ozone /IASI: Profiles retrievable but low sensitivity near the ground. CO /MOPITT and IASI: Cities can be seen if favorable thermal contrast. Fires are easy to be detected because it is a large signal.

EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, March IRS/MTGTIR GEO S4 Species O 3, COO 3, CO, (HNO 3 ) Spatial res. 4 x 4 km 2 5 x 5-15 x 15 km 2 (G -T) 0.2 (O 3 ), 0.85 (CO) (G -T) OPD Spectral res. (unapodized) 0.8 cm 0.75 cm cm (G -T) cm-1 Compared specifications of the proposed IRS/MTG and TIR/S4 missions IASI= ~TIR S4 threshold

EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, March Spectral resolution and sampling  MOPD  sampling  FWHM of non-apodized ILS  0.8 cm  cm -1  0.75cm -1  IRS-MTG  4.0 cm  cm -1  0.15cm -1  Sentinel 4 (goal)  2.0 cm  cm -1  0.30cm -1  Sentinel 4 (Threshold) Radiometric noise  NEDT (of 280K blackbody)  NESR  0.20 K  W/cm 2 sr cm -1  IRS-MTG  0.05 K  W/cm 2 sr cm -1  Sentinel 4 (goal)  0.10 K  W/cm 2 sr cm -1 IRS-MTG Sentinel 4 (goal) Sentinel 4 (threshold) IRS-MTG IRS3: OPD = 0.8 cm NEDT = 0.2K Results for ozone A. Sensitivity analyses

EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, March MTG-IRS Sentinel 4 (FWHM threshold) Sentinel 4 ( FWHM goal) DOFS Varying spectral resolution and noise  = 0.96;  T = 0 K Summary Results for ozone A. Sensitivity analyses a priori variability MTG-IRS PBL (0-2 km) column LT (0-6 km) column a priori variability MTG-IRS MOPD=0.8 cm (IRS-MTG) MOPD = 2.0 cm (Sentinel 4 threshold) MOPD = 4.0 cm (Sentinel 4 goal)

EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, March Vertical sensitivity from the ground to about 40 km but low sensitivity to the surface DOFS around 3.5  single information in the troposphere Errors range from 20 to 40 % on individual levels above 2 km while errors in the PBL are close to the a priori variability. Error on the tropospheric column is around 15 % Improving noise and/or spectral resolution (IRS-MTG vs. Sentinel 4) improves retrieval performances in the lower troposphere. Impact of thermal contrast (  T=T ground -T ): Impact is in the lower troposphere. The error on the tropospheric column reaches ~ 10 % for positive values of  T Despite a priori far from the target: Significant improvement with respect to a priori over the entire troposphere. Errors around 12 % on the tropospheric column for vanishing thermal constrast decrease to 5 % for  T values of 5 K or larger. Similarly PBL errors decrease to 50 % for  T values of 5 K or larger. Diurnal variations are hardly reproduced for the case analyzed here (retrieval errors being of the order of the diurnal variability). Sentinel 4 goal closest to the truth in PBL. Conclusions of Part II: Sensitivity analyses - retrieval experiments B. Retrieval experiments A. Sensitivity analyses Ozone retrievals from IRS-MTG

EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, March Spectral resolution and sampling  MOPD  sampling  FWHM of non-apodized ILS  0.8 cm  cm -1  0.75cm -1  IRS-MTG  4.0 cm  cm -1  0.15cm -1  Sentinel 4 (goal)  2.0 cm  cm -1  0.30cm -1  1.0 cm  cm -1  0.60cm -1  Sentinel 4 (Threshold) Radiometric noise  NEDT (of 280K blackbody)  NESR  0.85 K  W/cm 2 sr cm -1  IRS-MTG  0.05 K  W/cm 2 sr cm -1  Sentinel 4 (goal)  0.15 K  W/cm 2 sr cm -1 IRS-MTG Sentinel 4 (goal) Sentinel 4 (threshold) IRS-MTG IRS7: OPD = 0.8 cm NEDT = 0.85K A. Sensitivity analyses Results for carbon monoxide

EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, March 10% MTG-IRS Sentinel 4 threshold a priori variability DOFSTotal column error Varying spectral resolution and noise  = 0.96;  T = 0 K NeDT 0.85 K NeDT 0.15 K NeDT 0.05 K Sentinel 4 goal MTG-IRS Sentinel 4 threshold Sentinel 4 goal DOFS of 1 for MTG-IRS Up to 3 for Sentinel 4 - goal 13 % on total CO column for MTG-IRS Down to 5 % for Sentinel 4 - goal A. Sensitivity analyses Summary Results for carbon monoxide

EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, March a priori variability LT (0-6 km) column a priori variability Trop. (0-12 km) column UT (6-12 km) column a priori variability PBL (0-2 km) column MOPD=0.8 cm (IRS-MTG) MOPD = 2.0 cm (Sentinel 4 threshold) MOPD = 4.0 cm (Sentinel 4 goal) Varying spectral resolution and noise  = 0.96;  T = 0 K 10% MTG-IRS Sentinel 4 threshold Sentinel 4 goal 20% MTG-IRS Sentinel 4 threshold Sentinel 4 goal A. Sensitivity analyses Summary Results for carbon monoxide

EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, March DOFS is 1  only a total (tropospheric) column can be retrieved by MTG-IRS Error on the CO tropospheric column is ~15 %. Sentinel 4 – threshold improves slightly upon the vertical sensitivity and the errors Sentinel 4- goal allows retrieving vertically resolved profiles of CO (DOFS up to 3). For that instrument tropospheric (0-12 km) and PBL (0-2 km) column errors are around 5% and 20% respectively Impact of thermal contrast (  T=T ground -T ): Impact is in the lower troposphere. The error on the tropospheric decreases below 10 % for high positive values (+5 K) of  T Conclusions of Part II: Sensitivity analyses - retrieval experiments Carbon monoxide retrievals from IRS-MTG A. Sensitivity analyses

EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, March General conclusions 1)CO and O 3 pollution events in Europe are occurring in summer + daytime (O3) 2) Thermal contrast is higher during day and summer, over land 3) Current instruments show an improved sensitivity towards the surface when there is a thermal contrast 4) IRS has a limited sensitivity for the PBL but is able to provide more measurements including in the afternoon 5) IRS-S4 provides improved measurements in terms of accuracy and vertical information/sensitivity

EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, March General conclusions Will IRS/MTG be able to detect pollution events ? Yes, because extreme events generally occur over land/during day when thermal contrast (and hence instrumental sensitivity) is high Is IRS/MTG the instrument we would like to have to perform TIR chemistry measurement from a geo? No, because of limited vertical sensitivity and accuracy, in particular in the boundary layer Is IRS/MTG able to detect the diurnal variability for O3 et CO? Probably not, because of limited sensitivity and low diurnal variability Will the complementarity with UVN-S4 will help to improve O3 ? Yes, because of different vertical sensitivity a combined retrieval will provide an improved product

EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, March O3O3 NO 2 CO PM 2.5 SO 2 IRS S4-UVN + VOC + NOy + H 2 O + … Diurnal and day-to-day variations of key trace gases and fine particulate matter Introduction: Air quality

EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, March Number of exceedance days of the threshold value for the information to the public CO O3O3 Years 2003, 2004 et 2005 (49 days over limit) All pollutants + all regions Ozone Paris Ozone Suburb Dioxyde d'azote Paris Event forecasted63%45%68%33% Un-detected event29%26%31%28% False alarm37%55%29%67% Courstesy to Air Parif - Introduction: Air quality

EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, March MOPITT CO China [Clerbaux et al, GRL, 2008]

EUMETSAT MTG Missions for AQ Monitoring ACC#5, CSA, Montreal, March Fires in Greece, 25 August 2007 Credit D. Hurtmans, S. Turquety (ULB, SA) IASI CO Smoke plume (meteosat data) Turquety, ACP, 2009