THE ABOVE FIELD CAMPAIGN WILL IMPROVE OUR UNDERSTANDING OF ONE OF THE MOST DYNAMIC REGIONS ON THE PLANET THE ARCTIC BOREAL REGION ABR WHERE CHANGES IN CLIMATE ARE PROGRESSING MOST RAPIDLY AND ARE ALREADY TRIGGERING CHANGES TO ECOSYSTEM CARBON STORAGE. WHILE THE IMPORTANCE OF THE ABR IN THE GLOBAL CARBON CYCLE IS WELL ESTABLISHED OUR FUNDAMENTAL UNDERSTANDING OF THE MAGNITUDE BEHAVIOR AND FATE OF CARBON POOLS IN THIS DOMAIN REMAINS INCOMPLETE. THE FIRST ABOVE AIRBORNE CAMPAIGN WILL PROVIDE CRITICAL OBSERVATIONS NEEDED TO UNDERSTAND PERMAFROST CARBON DYNAMICS. THESE UNIQUE DATASETS COMPLEMENT EXISTING MONITORING NETWORKS THAT ARE LIMITED IN SPATIAL COVERAGE GROUND OR SPATIAL RESOLUTION SATELLITE. STRATEGICALLY INTEGRATING THE INFORMATION COLLECTED DURING THE ABOVE CAMPAIGN INTO A HIGH RESOLUTION SCALABLE AND GLOBAL LAND ATMOSPHERE MODEL IS A VITAL STEP TOWARDS ACHIEVING THE SCIENCE OBJECTIVES OF THE MISSION. WE PROPOSE TO DELIVER A HIGHLY INTEGRATED MODELING FRAMEWORK USING NASAS GEOS 5 SYSTEM THAT WILL RELY ON MULTI SCALE DATA STREAMS FROM ABOVE TO INFORM AND IMPROVE PROCESS BASED REPRESENTATION OF PERMAFROST CARBON DYNAMICS. WE WILL ADOPT A THREE PRONGED APPROACH WHICH INCLUDES A ANALYZING AND INTERPRETING THE AIRBORNE PRIMARILY THE FOUNDATIONAL MEASUREMENTS THAT WILL BE COLLECTED DURING THE 2017 ABOVE AIRBORNE CAMPAIGN B INTEGRATING THE AIRBORNE INFORMATION INTO A DYNAMIC VEGETATION MODELING FRAMEWORK LPJ WSL TAILORED FOR THE ABOVE STUDY DOMAIN AND C USING THE COUPLED HIGH RESOLUTION GEOS 5 LPJ WSL FRAMEWORK TO IMPROVE OUR UNDERSTANDING OF THE PERMAFROST CARBON BOTH CO2 AND CH4 EMISSIONS AND ASSOCIATED FEEDBACKS AT A VARIETY OF SPATIOTEMPORAL SCALES. IN ORDER TO MAXIMIZE THE SCIENTIFIC RETURN OF THE EARLY MISSION DATA FROM THE 2017 CAMPAIGN WE WILL ALSO LEVERAGE DATA FROM EXISTING REMOTE SENSING MISSIONS SMAP LANDSAT 7 8 OCO 2 PREVIOUS AIRBORNE CAMPAIGNS CARVE AND GROUND BASED MEASUREMENTS AS APPLICABLE. DURING THE AIRBORNE CAMPAIGN WE WILL USE GEOS 5 TO PRODUCE HIGH RESOLUTION FORECASTS OF METEOROLOGY AEROSOLS AND TRACE GASES IN NEAR REAL TIME AND SUPPORT FLIGHT PLANNING. WE WILL ALSO PROVIDE STATISTICAL ANALYSES OF CLEAR SKY CONDITIONS AND TRACE GAS PLUMES TO THE ABOVE TEAM TO GUIDE PLANNING OF THE OPTICAL FOR AVIRIS NG LVIS SENSORS IN ADVANCE OF DEPLOYMENT. THE GEOS 5 MODEL HAS CONTRIBUTED TO NUMEROUS FIELD CAMPAIGNS AND THE INCLUSION OF TRACE GAS AND AEROSOL FIELDS CAN INFORM MISSION PLANNING BY REPRESENTING EMISSIONS PROCESSES BEING TARGETED OR FACTORS THAT CAN CONFOUND MEASUREMENTS. ONGOING AND RECENT DEVELOPMENTS WITHIN THE GEOS 5 LPJ WSL FRAMEWORK ARE UNIQUELY SUITED TO ADDRESS THE SCIENCE GOALS OF ABOVE. ITS ABILITY TO RUN AT SPATIAL RESOLUTIONS OF 12 5 50 KM IS COMPARABLE TO RESOLUTIONS USED BY REGIONAL MODELS BUT BECAUSE IT IS A GLOBAL MODEL IT CAN READILY EXTEND LESSONS LEARNED TO THE PAN ARCTIC SCALE TO REALISTICALLY SIMULATE CARBON CLIMATE INTERACTIONS IN THE PRESENT AND FUTURE. BY PERFORMING RIGOROUS COMPARISONS BETWEEN AIRBORNE AND SATELLITE OBSERVATIONS THIS EFFORT WILL ALSO HELP INFORM OBSERVING STRATEGIES AND MAXIMIZE THE USE OF SATELLITE DATA IN THIS COMPLEX REGION. THE PROPOSED STUDY THUS ADDRESSES BOTH THE CONCEPTUAL BASIS FOR ABOVE AS WELL AS NASA EARTH SCIENCES STRATEGIC GOAL TO QUANTIFY AND DOCUMENT CHANGES TO THE CARBON CYCLE IN THE HIGH LATITUDES.
$165,053FY2017National Aeronautics and Space AdministrationNASA
Universities Space Research Association, Washington DC