SLCPs = CH4, BC, OC, CO, VOCs, NOx, SO2, NH3, (HFCs)

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Presentation transcript:

Supporting health impact assessment tools using remote sensing and earth system models SLCPs = CH4, BC, OC, CO, VOCs, NOx, SO2, NH3, (HFCs) UNEP 2011; Shindell et al., 2012 Ramanathan and Xu, 2010; Hu et al., 2013 Ramanathan and Carmichael, 2008 Daven K. Henze, CU Boulder Susan Anenberg, Environmental Health Analytics Patrick Kinney, Environmental Health Analytics, Columbia University Randall Martin and Aaron van Donkelaar, Dalhousie University

Climate and Clean Air Coalition (CCAC) - Initiated Feb 2012 - Bangladesh, Colombia, Ghana, Mexico, Sweden, US, and UNEP - now 109 members (50 countries, numerous IGOs and NGOs). Cross-cutting efforts: Financing SLCP mitigation SLCP National Action Plans www.unep.org/ccac Response ∆O3, ∆PM2.5 ∆CH4 Impacts - health - climate - ecosystem Mitigation ∆Emissions LEAP-IBC: rapid emission and scenario assessment toolkit Country-specific responses for arbitrary ∆emissions from GEOS-Chem adjoint \frac{\triangle T_s^{NL}}{\triangle RF^{NL}} \left(\frac{\triangle RF^{NL}}{\triangle E_i}\right)=\frac{\triangle T_s^{NL}}{\triangle E_i}

NASA Earth Observations used in LEAP-IBC PM2.5 subgrid variability (0.1° x 0.1°) resolved using MODIS AOD and CALIOP vertical profile (van Donkelaar et al., 2013): 2°x2.5° grid cell Satellite-derived PM2.5 instrumental for global health studies. Approaches and instrumentation evolve (e.g., VIIRS, TROP-OMI,…). Also use TES IRK and GISS climate model parameterization to estimate climate response. IJ-GDE-$ for SO2_an1 + SO2_an2. Satellite-derived PM2.5 [µg/m3] In situ PM2.5 [µg/m3]

LEAP- Integrated Benefits Calculator (IBC) Application: Bangladesh Satellite-derived surface PM2.5 SO2 impact on exposure in Bangladesh Response to 2030 – 2005 global emissions scenario (∆E) from LEAP: Owing to ∆E in Bangladesh (81,686 deaths) Owing to ∆E in Rest of World (92,830 deaths) ∆µg/m3 Also estimate: changes in global ∆T health impacts of ∆O3 suppressed yield of crops fossil fuel biofuel

Project Overview • Core project goals: Application of new and future multi-sensor satellite-derived PM2.5 estimates (MISR, SeaWiFS, MODIS, VIIRS, and TROPOMI) Extension of the GEOS-Chem adjoint model to high-resolution simulations over key urban areas, for use with new high-resolution (0.01 x 0.01) satellite-derived PM2.5. Delivery of global and fine resolution PM2.5 exposure response coefficients to the LEAP-IBC to support CCAC member nations and initiatives. • Team member interests and expertise: Remote sensing of aerosols and trace-gases Regional-to-global air quality modeling Data assimilation and source-receptor modeling Domestic and international air quality management Environmental health and policy \frac{\triangle T_s^{NL}}{\triangle RF^{NL}} \left(\frac{\triangle RF^{NL}}{\triangle E_i}\right)=\frac{\triangle T_s^{NL}}{\triangle E_i}