Carbon Theme Report and Implementation 23 April 2004 23 April 2004 Tokyo, Japan Berrien Moore III Institute for the Study of Earth, Oceans, and Space University.

Slides:



Advertisements
Similar presentations
An example of a large-scale interdisciplinary carbon problem Multidecadal climate variability Atmospheric evidence Ocean source? (upwelling, biological.
Advertisements

2010 update of GCOS IP in support of UNFCCC Paul Mason and Stephan Bojinski GCOS Steering Committee September 2010.
Emissions in GEMS Data on emissions are needed for the 4 sub-systems GHG, GRG, AER and RAQ GEMS Project has dedicated tasks for emissions and surface fluxes.
EGU GA, Wien, April 2007 Kaiser et al., Fire, 1 Global Fire Emission Modelling for Atmospheric Composition and Land Cover Monitoring Johannes W. Kaiser,
Terrestrial Carbon Sequestration Adrian Martin Global terrestrial C budgets Global terrestrial C budgets Historical C emissions from land use change Historical.
Some questions in current climate and CO 2 studies.
Study on Carbon Budget for Ecosystems of China: Aspects and Progress Yao Huang Institute of Atmospheric Physics Chinese Academy.
Land Surface Evaporation 1. Key research issues 2. What we learnt from OASIS 3. Land surface evaporation using remote sensing 4. Data requirements Helen.
MODIS The MODerate-resolution Imaging Spectroradiometer (MODIS ) Kirsten de Beurs.
Ocean Biogeochemistry (C, O 2, N, P) Achievements and challenges Nicolas Gruber Environmental Physics, ETH Zürich, Zurich, Switzerland. Using input from.
GHG Verification & the Carbon Cycle 28 September 2010 JH Butler, NOAA CAS Management Group Meeting Page 1 Global Monitoring, Carbon Cycle Science, and.
Responses of terrestrial ecosystems to drought
The C budget of Japan: Ecosystem Model (TsuBiMo) Y. YAMAGATA and G. ALEXANDROV Climate Change Research Project, National Institute for Environmental Studies,
Monitoring Effects of Interannual Variation in Climate and Fire Regime on Regional Net Ecosystem Production with Remote Sensing and Modeling D.P. Turner.
Carbon Cycle and Ecosystems Important Concerns: Potential greenhouse warming (CO 2, CH 4 ) and ecosystem interactions with climate Carbon management (e.g.,
Using Simulated OCO Measurements for Assessing Terrestrial Carbon Pools in the Southern United States PI: Nick Younan Roger King, Surya Durbha, Fengxiang.
The Orbiting Carbon Observatory Mission: Effects of Polarization on Retrievals Vijay Natraj Advisor: Yuk Yung Collaborators: Robert Spurr (RT Solutions,
Carbon Cycle Basics Ranga Myneni Boston University 1/12 Egon Schiele ( ) Autumn Sun 1.
VENUS (Vegetation and Environment New µ-Spacecraft) A demonstration space mission dedicated to land surface environment (Vegetation and Environment New.
Evaluating the Impact of the Atmospheric “ Chemical Pump ” on CO 2 Inverse Analyses P. Suntharalingam GEOS-CHEM Meeting, April 4-6, 2005 Acknowledgements.
QUESTIONS 1.How do elements in the lithosphere get transferred to the atmosphere? 2.Imagine an early Earth with a weak Sun and frozen ocean (“snowball.
Lecture 1: OCN520 Chemical Oceanography Prof: Jim Murray.
Modeling framework for estimation of regional CO2 fluxes using concentration measurements from a ring of towers Modeling framework for estimation of regional.
O AK R IDGE N ATIONAL L ABORATORY U. S. D EPARTMENT OF E NERGY 1 Carbon Cycle Modeling Terrestrial Ecosystem Models W.M. Post, ORNL Atmospheric Measurements.
Open Oceans: Pelagic Ecosystems II
Global Carbon Observatory Pep Canadell GCP-CSIRO Marine and Atmospheric Research With contributions and thanks to: Philippe Ciais, David Crisp, Roger Dargaville,
Paul R. Moorcroft David Medvigy, Stephen Wofsy, J. William Munger, M. Dietze Harvard University Developing a predictive science of the biosphere.
Climate change and the carbon cycle David Schimel National Center for Atmospheric Research Boulder Colorado.
Applications and Limitations of Satellite Data Professor Ming-Dah Chou January 3, 2005 Department of Atmospheric Sciences National Taiwan University.
Global Megacycles and Trends: Setting the Agenda for 21 st Century Science Emerging Issues: Berrien Moore III University of New Hampshire New Challenges.
Improving the Representation of Fire Disturbance in Dynamic Vegetation Models by Assimilating Satellite Data E.Kantzas, S.Quegan & M.Lomas School of Maths.
Page 1© Crown copyright WP4 Development of a System for Carbon Cycle Data Assimilation Richard Betts.
1 Remote Sensing and Image Processing: 9 Dr. Hassan J. Eghbali.
Getting Ready for the Future Woody Turner Earth Science Division NASA Headquarters May 7, 2014 Biodiversity and Ecological Forecasting Team Meeting Sheraton.
The role of the Chequamegon Ecosystem-Atmosphere Study in the U.S. Carbon Cycle Science Plan Ken Davis The Pennsylvania State University The 13 th ChEAS.
Carboeurope Update of synthesis of continental carbon fluxes Dourdan carboocean 2008 meeting.
Results from the Carbon Cycle Data Assimilation System (CCDAS) 3 FastOpt 4 2 Marko Scholze 1, Peter Rayner 2, Wolfgang Knorr 1 Heinrich Widmann 3, Thomas.
15-18 October 2002 Greenville, North Carolina Global Terrestrial Observing System GTOS Jeff Tschirley Programme director.
1 CHARGE The goal of the breakout groups is to –define and prioritize research questions to help guide the US Global Change Research Program, –determine.
The Big Picture To assess the Global Carbon Budget we need information that is ‘Everywhere, All of the Time’ Many Complementary Methods exist, Each with.
Translation to the New TCO Panel Beverly Law Prof. Global Change Forest Science Science Chair, AmeriFlux Network Oregon State University.
Earth System Feedbacks: Vulnerability of the Carbon Cycle to Drought and Fire Canberra, Australia 5-8 June 2006 – Part I 8-9 June 2006 – Part II (Australia.
VQ3a: How do changes in climate and atmospheric processes affect the physiology and biogeochemistry of ecosystems? [DS 194, 201] Science Issue: Changes.
The past, present and future of carbon on land Bob Scholes CSIR Div of Water, Environment and Forestry Technology South Africa.
Integration of biosphere and atmosphere observations Yingping Wang 1, Gabriel Abramowitz 1, Rachel Law 1, Bernard Pak 1, Cathy Trudinger 1, Ian Enting.
1 Remote Sensing and Image Processing: 9 Dr. Mathias (Mat) Disney UCL Geography Office: 301, 3rd Floor, Chandler House Tel: (x24290)
Investigating the Carbon Cycle in Terrestrial Ecosystems (ICCTE) Scott Ollinger * -PI, Jana Albrecktova †, Bobby Braswell *, Rita Freuder *, Mary Martin.
ATOC 220 The Contemporary Global Carbon Cycle The contemporary record of atmospheric CO 2 –The best ‘known’, ‘beautiful’ and ‘most disturbing’ graphs in.
International workshop on Asian Greenhouse Gases Budgets Physical Research Laboratory, Ahmedabad, India September 2011 Pep Canadell*, Prabir Patra.
Investigating the Carbon Cycle in Terrestrial Ecosystems (ICCTE) A joint program between: The University of New Hampshire, USA AND Charles University,
Lecture 1: OCN400 Chemical Oceanography Prof: Jim Murray TAs: Tessa McGee Susanna Michael 1.Introduce Murray 2. Who are the Students? 3. Syllabus / Text.
ATOC 220 Global Carbon Cycle Recent change in atmospheric carbon The global C cycle and why is the contemporary atmospheric C increasing? How much of the.
Factors contributing to variability in pCO 2 and omega in the coastal Gulf of Maine. J. Salisbury, D. Vandemark, C. Hunt, C. Sabine, S. Musielewicz and.
Landscape-level (Eddy Covariance) Measurement of CO 2 and Other Fluxes Measuring Components of Solar Radiation Close-up of Eddy Covariance Flux Sensors.
Systematic Terrestrial Observations: a Case for Carbon René Gommes with C. He, J. Hielkema, P. Reichert and J. Tschirley FAO/SDRN.
Goal: to understand carbon dynamics in montane forest regions by developing new methods for estimating carbon exchange at local to regional scales. Activities:
CarboEurope: The Big Research Lines Annette Freibauer Ivan Janssens.
NASA Carbon Cycle & Ecosystems Joint Science Workshop 28 April - 2 May 2008 Berrien Moore III Climate Central Princeton, NJ & University of New Hampshire.
Metrics and MODIS Diane Wickland December, Biology/Biogeochemistry/Ecosystems/Carbon Science Questions: How are global ecosystems changing? (Question.
Production.
Copernicus services 1 6 services use Earth Observation data to deliver … Sentinels Contributing missions in-situ …added-value products.
Lecture 1: GEOL330/634 Chemical Oceanography Prof: Jim Murray 1.Introduce Murray 2. Who are the Students? 3. Syllabus / Text (Emerson and Hedges) 4. Course.
Carbon Sequestration Akilah Martin Fall 2005.
The Lodore Falls Hotel, Borrowdale
North American Carbon Program
Pre-anthropogenic C cycle and recent perturbations
Principles of the Global Climate System II
CH19: Carbon Sinks and Sources
CH19: Carbon Sinks and Sources
GLOBE Carbon Cycle: The Carbon Cycle
Presentation transcript:

Carbon Theme Report and Implementation 23 April April 2004 Tokyo, Japan Berrien Moore III Institute for the Study of Earth, Oceans, and Space University of New Hampshire Carbon Theme Report and Implementation IGOS-P Side Event at GEO4 in Tokyo

Carbon Theme Report and Implementation 23 April 2004 Thank you, David Keeling Mauna Loa Monthly Carbon Dioxide Record: Keeling Record Year Carbon Dioxide (ppmv)

Carbon Theme Report and Implementation 23 April 2004 Gt. C per year SOI Source: R. Francey (CSIRO) CO 2 Annual Growth Rate Year

Carbon Theme Report and Implementation 23 April 2004 Global C Budget (PgC/y) 1980s1990s Atm. Increase 3.3+/ /-0.1 Emissions 5.4+/ /-0.4 Ocean-Atm. Flux -1.9+/ /-0.5 Land-Atm. Flux *-0.2+/ /-0.7 * partitioned as follows Land Use 1.7( )NA Residual Terrestrial Sink -1.9( )NA Source: IPCC, 2001

Carbon Theme Report and Implementation 23 April 2004 CO 2 Concentration in Ice Cores and Atmospheric CO 2 Projection for Next 100 Years (BP 1950) Projected (2100) Current (2001) CO 2 Concentration (ppmv) Vostok Record Law Dome Record Mauna Loa Record IPCC IS92a Scenario Source: C. D. Keeling and T. P. Whorf; Etheridge et.al.; Barnola et.al.; IPCC

Carbon Theme Report and Implementation 23 April 2004 Global Carbon Sources and Sinks The Challenge

Carbon Theme Report and Implementation 23 April 2004 The objectives of a coordinated system of integrated global carbon observations To provide the long-term observations required to improve understanding of the present state and future behaviour of the global carbon cycle, particularly the factors that control the global atmospheric CO 2 level. To monitor and assess the effectiveness of carbon sequestration and/or emission reduction activities on global atmospheric CO 2 levels, including attribution of sources and sinks by region and sector.

Carbon Theme Report and Implementation 23 April 2004 Fluxes Observations to enable quantification of the distribution and variability of CO 2 fluxes between the Earth's surface and the atmosphere Pools Observations focused upon changes in the atmospheric, oceanic and terrestrial carbon pools Processes Observations related to important carbon cycle processes. Most of these will remain in the research domain, to be coordinated within the framework of the International Global Carbon Project (GCP) The coordinated system of global carbon observations should be built around complementary core groups of observations to address three themes: fluxes, pools, and processes

Carbon Theme Report and Implementation 23 April 2004 Source: JGOFS / IGBP CO 2 Preindustrial CO 2 : maximum strength bio pump: 160 ppm Preindustrial CO 2 : Physical pump alone: 400 ppm Oceanic Primary Production: Sept. 97 – Aug. 98 CO 2 Biological PumpPhysical (solubility) Pump

Carbon Theme Report and Implementation 23 April 2004 R/V Roger Revelle

Carbon Theme Report and Implementation 23 April 2004 Multi-tiered System 620 ARGO Floats, as of January 2003

Carbon Theme Report and Implementation 23 April 2004 MODIS Ocean Chlorophyll

Carbon Theme Report and Implementation 23 April 2004 Bottom-up estimates of the surface ocean fluxes using process based biogeochemical models and/or in situ measurements Ocean Colour 60% global, over a 3-5 day timeframe Ancillary Oceanic Data at Global Resolution Ocean circulation and air-sea transfer (altimetry, SST, SSS, surface winds …)

Carbon Theme Report and Implementation 23 April 2004 C h a l l e n g e s o f a C h a n g i n g E a r t h J u l y CO 2 GPP Plant respiration Plant respiration Soil and litter respiration Soil and litter respiration Disturbance Short- term carbon uptake NPP 60 Gt/yr Medium- term carbon storage NEP 10 Gt/yr Long-term carbon storage NBP 1-2 Gt/yr Terrestrial Ecosystem Carbon Uptake and Storage Source: GCTE / IGBP

Carbon Theme Report and Implementation 23 April 2004 Forest Inventory and Analysis Information System

Carbon Theme Report and Implementation 23 April 2004 AmeriFlux, EuroFlux … and taller towers

Carbon Theme Report and Implementation 23 April 2004 SPOT 5 image of Iguacu, Brazil - September 2002

Carbon Theme Report and Implementation 23 April 2004 Land-cover Change Resolution of 100 m at intervals of 5 years - to estimate the fluxes of carbon associated with forest clearing and reversion of agricultural lands to natural ecosystems Ecosystem Disturbances Fire distribution / hotspots at sub-daily resolution, burned areas at monthly resolution, and other disturbances (insects, harvest, windstorms) at intervals of 1 year Vegetation State and Activity Directional reflectance with global coverage over weekly timeframe. Spatial resolution of 1 km or better. Possibly hyper-spectral information. Focus includes leaf area index, vegetation architecture and profile, albedo, F-PAR and related vegetation biophysical properties, ecosystem condition, and gross and net primary productivity Ancillary Terrestrial Data at Global Resolution Climate and weather data, soil moisture content, and radiation diffuse and direct components Bottom-up estimates of the surface terrestrial fluxes using process based biogeochemical models and/or in situ measurements

Carbon Theme Report and Implementation 23 April 2004 Global Carbon Sources and Sinks The Challenge

Carbon Theme Report and Implementation 23 April 2004 Top-down estimates of the surface fluxes time varying distribution using atmospheric inverse models Column-integrated atmospheric CO 2 distribution to an accuracy of at least 1 ppm (0.3%) with synoptic global coverage, if possible all latitudes, all seasons - with ground-based quality control Attributing surface fluxes to combustion processes of biomass and fossil fuel via atmospheric CO and combustion aerosol distributions with synoptic global coverage equivalent to the one of CO 2 - with ground-based quality control Modelling the transport of atmospheric CO 2 atmospheric structure, temperature, humidity, winds…

Carbon Theme Report and Implementation 23 April 2004

Orbiting Carbon Observatory - JPL

Carbon Theme Report and Implementation 23 April 2004 An Active Carbon Dioxide Mission: CELSIUS

Carbon Theme Report and Implementation 23 April 2004 Implementation issues The main implementation issues highlighted for discussion by CEOS SIT-13: 1.The prospects for provision of the atmospheric measurements (notably column CO 2, CO and aerosols) required for top-down estimation of the surface fluxes using atmospheric inverse models. 2.The prospects for development of ground-based solar observatories for CO 2 to characterize the ultimate accuracy of the near IR absorption technique. Such a ground based column CO 2 network will also provide a unique control for any space-based CO 2 mission. 3.The prospect of an active mission that focuses upon the measurement of column CO 2 without diurnal, seasonal, latitudinal, or surface restrictions. This mission could be accomplished with the measurement technique based upon Laser Absorption Spectroscopy (LAS). Finally, an overarching issue is for space agencies to consider how to support the integration of the operational observations with process study results via model-data fusion to give a holistic picture of the dynamics of the carbon cycle.

Carbon Theme Report and Implementation 23 April 2004 A Global Carbon Cycle Data Assimilation System Terrestrial carbon model Terrestrial carbon model Atmospheric Transport model Atmospheric Transport model Climate and weather fields Ecological studies Ecological studies Biomass soil carbon inventories Remote sensing of Atmospheric CO2 Remote sensing of Vegetation properties Growth Cycle Fires Biomass Radiation Land cover /use Remote sensing of Vegetation properties Growth Cycle Fires Biomass Radiation Land cover /use Georeferenced emissions Georeferenced emissions inventories Atmospheric measurements Atmospheric measurements Eddy-covariance flux towers Data assimilation link Ocean carbon model Ocean carbon model Ocean remote sensing Ocean colour Altimetry Winds SST SSS Ocean remote sensing Ocean colour Altimetry Winds SST SSS Ocean time series Biogeochemical pCO2 Surface observation pCO2 nutrients Water column inventories rivers Lateral fluxes Coastal studies optimized Fluxes optimized model parameters

Carbon Theme Report and Implementation 23 April 2004 A Hierarchy of Approaches and Scales Approach Scale The source and sinks and controlling processes will only be determined within an integrated approach where point-wise in situ surface measurements can be scaled up using global satellite datasets and models, and then constrained and verified by atmospheric CO 2 concentration measurements. The Carbon System