Key Questions to Answer on Storm Simulation Xiangdong Zhang International Arctic Research Center University of Alaska Fairbanks, Fairbanks, AK 99775, USA.

Slides:



Advertisements
Similar presentations
Africa Group paper session, Monday 18 February 2008 Charlie Williams Climate modelling in AMMA Ruti, P. M., Hourding, F. & Cook, K. H. CLIVAR Exchanges,
Advertisements

1 Dynamical Polar Warming Amplification and a New Climate Feedback Analysis Framework Ming Cai Florida State University Tallahassee, FL 32306
Development of Bias-Corrected Precipitation Database and Climatology for the Arctic Regions Daqing Yang, Principal Investigator Douglas L. Kane, Co-Investigator.
John J. Cassano, Matthew Higgins, Alice DuVivier University of Colorado Wieslaw Maslowski, William Gutowski, Dennis Lettenmaier, Andrew Roberts.
Chukchi/Beaufort Seas Surface Wind Climatology, Variability, and Extremes from Reanalysis Data: Xiangdong Zhang, Jeremy Krieger, Paula Moreira,
Geophysical Fluid Dynamics Laboratory Review June 30 - July 2, 2009 Geophysical Fluid Dynamics Laboratory Review June 30 - July 2, 2009.
Climatological Estimates of Greenland Ice Sheet Sea Level Contributions: Recent Past and Future J. E. Box Byrd Polar Research Center Understanding Sea-level.
Variability of Mass Transport into Polar Stratosphere and Winter Cold Air Outbreaks in Mid-latitudes Ming Cai Department of Earth, Ocean, and Atmospheric.
Recent Climate Change Modeling Results Eric Salathé Climate Impacts Group University of Washington.
THORPEX-Pacific Workshop Kauai, Hawaii Polar Meteorology Group, Byrd Polar Research Center, The Ohio State University, Columbus, Ohio David H. Bromwich.
Chukchi Sea and Beaufort Sea Weather Research and Forecasting WRF Mesoscale Meteorology Model Mid-Term Project Meeting Funded by Bureau of Ocean Energy.
28 August 2006Steinhausen meeting Hamburg On the integration of weather and climate prediction Lennart Bengtsson.
Recent Climate Change Modeling Results Eric Salathé Climate Impacts Group University of Washington.
Recent Climate Change Modeling Results Climate Impacts Group University of Washington With: Patrick Zahn, Cliff Mass, Rick Steed Eric SlathéEric Salathé.
Implications of global climate change over the mountain areas of western North America Professor Clifford Mass, Eric Salathe, Richard Steed University.
CLIMATE AND METEOROLOGY I: ATMOSPHERIC TRANSPORT.
Ocean Response to Global Warming William Curry Woods Hole Oceanographic Institution Wallace Stegner Center March 3, 2006.
Impact of Sea Surface Temperature and Soil Moisture on Seasonal Rainfall Prediction over the Sahel Wassila M. Thiaw and Kingtse C. Mo Climate Prediction.
Cyclone composites in the real world and ACCESS Pallavi Govekar, Christian Jakob, Michael Reeder and Jennifer Catto.
Wind Regimes of Southern California winter S. Conil 1,2, A. Hall 1 and M. Ghil 1,2 1 Department of Atmospheric and Oceanic Sciences, UCLA, Los Angeles,
Regional Climate Modeling in the Source Region of Yellow River with complex topography using the RegCM3: Model validation Pinhong Hui, Jianping Tang School.
Martin Sommerkorn WWF International Arctic Programme.
The Future of Arctic Sea Ice Authors: Wieslaw Maslowski, Jaclyn Clement Kinney, Matthew Higgins, and Andrew Roberts Brian Rosa – Atmospheric Sciences.
Integration and Synthesis WORKSHOP : LESSONS FROM THE 2007 ICE MINIMUM Preface.
Institut Mediterrani d’Estudis Avançats Esporles · Mallorca · SPAIN A study of potential effects of climatic change on the ecosystems of the Mediterranean.
Tropical Cyclones and Climate Change: An Assessment WMO Expert Team on Climate Change Impacts on Tropical Cyclones February 2010 World Weather Research.
Modelling the impact of polar mesoscale cyclones on ocean circulation Are we under-forcing our ocean models? Alan Condron 1, Grant Bigg 2 and Ian Renfrew.
Precipitation Intensity Climate Impacts Group & Department of Atmospheric Sciences University of Washington Eric Salathé.
Potential Uses of an ASM in Education and Outreach Elena B. Sparrow International Arctic Research Center University of Alaska Fairbanks.
Teleconnections Current Weather Current Weather Finish ENSO Finish ENSO North Atlantic and Arctic Oscillations North Atlantic and Arctic Oscillations Pacific.
Hurricanes and Climate Change: Implications for New England Amanda Staudt, Ph.D. National Wildlife Federation July 11, 2008 Northeast Hurricane Mitigation.
Most of this course is about the basic state of the Earth’s climate system and its governing forces. However the climate state varies across a wide range.
Science Discipline Overview: Atmosphere (large-scale perspective)  How might large-scale atmospheric challenges add to the scientific arguments for MOSAIC?
Importance of Recent Shifts in Soil Thermal Dynamics on Growing Season Length, Productivity, and Carbon Sequestration in Terrestrial High-Latitude Ecosystems.
Assessing the Impact of Climate Change on Future Wildfire Activity over the Southeast U.S. using Dynamical Downscaling Jared H. Bowden Kevin D. Talgo Uma.
Towards development of a Regional Arctic Climate System Model --- Coupling WRF with the Variable Infiltration Capacity land model via a flux coupler Chunmei.
Trends in Tropical Water Vapor ( ): Satellite and GCM Comparison Satellite Observed ---- Model Simulated __ Held and Soden 2006: Robust Responses.
Trends in Tropical Water Vapor ( ): Satellite and GCM Comparison Satellite Observed ---- Model Simulated __ Held and Soden 2006: Robust Responses.
Jamie Morison Polar Science Center University of Washington Seattle, Washington USA SEARCH Update ARCSS AHW Feb. 20, 2002.
Extratropical Climate. Outline Mean state Dominant extratropical modes Pacific/North American Oscillation North Atlantic Oscillation Arctic Oscillation.
Hydro-Thermo Dynamic Model: HTDM-1.0
Physical Feedbacks Mike Steele Polar Science Center University of Washington Steve Vavrus Center for Climatic Research University of Wisconsin Co-Chairs:
Ocean Response to Global Warming/Global Change William Curry Woods Hole Oceanographic Institution Environmental Defense May 12, 2005 Possible changes in.
Eric Salathé JISAO Climate Impacts Group University of Washington Rick Steed UW Yongxin Zhang CIG, NCAR Cliff Mass UW Regional Climate Modeling and Projected.
Changes in the South American Monsoon and potential regional impacts L. Carvalho, C. Jones, B. Bookhagan, D. Lopez-Carr UCSB, USA A.Posadas, R. Quiroz.
Arctic Atmosphere: Weather and Climate Variability Vladimir Alexeev, David Atkinson, Uma Bhatt, Juanxiong He, Vladimir Kattsov, Igor Polyakov, Andrew Roberts,
“CLIMATE IS WHAT WE EXPECT, AND WEATHER IS WHAT WE GET” ~ MARK TWAIN.
Arctic climate simulations by coupled models - an overview - Annette Rinke and Klaus Dethloff Alfred Wegener Institute for Polar and Marine Research, Research.
Do we / why do we want to develop an ASM? Climate working group for WRF – workshop on model developments for climate studies with WRF (summary of.
Atmospheric Circulation Response to Future Arctic Sea Ice Loss Clara Deser, Michael Alexander and Robert Tomas.
Institute for Coastal Research of GKSS Research Center Germany Changing statistics of polar lows and typhoons in the past and foreseeable future. Hans.
Boulder, June, 2006 Extremes in Ensemble Simulations of the Maunder Minimum: Midlatitude Cyclones, Precipitation, and Wind speed Christoph Raible (1) M.
The Assessment of Typhoon Hazards at Regional-Scales in the Pacific Regions with Downscaling Numerical Experiments Tetsuya Takemi Fourth Capacity Building.
Great Lakes Ice Database, 1973-present 1/15 Great Lakes Ice & Climate Research, Modeling, and Applications Jia Wang Integrated Physical & Ecological Modeling.
Regional Climate Change in the Pacific Northwest Eric Salathé Climate Impacts Group University of Washington With: Cliff Mass, Patrick Zahn, Rick Steed.
ESSL Holland, CCSM Workshop 0606 Predicting the Earth System Across Scales: Both Ways Summary:Rationale Approach and Current Focus Improved Simulation.
Towards development of a Regional Arctic Climate System Model ---
Global Circulation Models
Terrestrial-atmosphere (1)
A Simple, Fast Tropical Cyclone Intensity Algorithm for Risk Models
Daylength Local Mesoscale Winds Chinook Winds (Foehn) Loma, MT: January 15, 1972, the temperature rose from -54 to 49°F (-48 to 9°C), a 103°F (58°C)
Coupled atmosphere-ocean simulation on hurricane forecast
The Pacific Decadal Oscillation, or PDO, is a long-lived El Niño-like pattern of Pacific climate variability. The PDO pattern [is] marked by widespread.
North American Regional Climate Change Assessment Program
Recent Climate Change Modeling Results
Performance of the VIC land surface model in coupled simulations
Recent Climate Change Modeling Results
Sea Level Pressure and mb Thickness
An Approach to Enhance Credibility of Decadal-Century Scale Arctic
Surface-Atmosphere Interactions
Presentation transcript:

Key Questions to Answer on Storm Simulation Xiangdong Zhang International Arctic Research Center University of Alaska Fairbanks, Fairbanks, AK 99775, USA Jing Zhang, and Jeremy R. Krieger Geophysical Institute University of Alaska Fairbanks, Fairbanks, AK 99775, USA Arctic System Model Workshop, August 6-7, 2007

Why ASM? 1. Capture high resolution features that GCM could not resolve well.

Why ASM? 1. Capture high resolution features that GCM could not resolve well.

Why ASM? 1. Capture high resolution features that GCM could not resolve well. 2. Capture realistic physical processes or feedbacks that GCM could not simulate well.

Why Storm? 1. Primary weather system and could have high impact in mid- and high-latitudes. 2. Enhancing atmosphere-sea ice-ocean interactions and may leave fingerprints on climate variability and change.

Zhang, J., et al. 2007: Modeling Study of an Arctic Storm Process and Associated Atmosphere-Sea Ice-Ocean Interactions by Using a Coupled Regional Model. under revision.

Yang et al. 2004

Why Storm? 1. Primary weather system and could have high impact in mid- and high-latitudes. 2. Enhancing atmosphere-sea ice-ocean interactions and may leave fingerprints on climate variability and change. 3. Storm activity has intensified in Arctic and storm track has shifted poleward, highly associated with large scale climate variability and change.

 Trends and variability: Arctic CAI The integrative index CAI (Cyclone Activity Index) represents a combination of information of cyclone trajectory count, duration and intensity. Zhang, X., et al. 2004: Climatology and interannual variability of Arctic cyclone activity, J. Climate, 17,

 Relationship to mid-latitudes: Poleward shift Both the intensity and trajectory count show increasing trends; The increase was dramatically amplified around There are more and stronger cyclones originating southern 60N entering the Arctic, particularly around Zhang, X., et al. 2004: Climatology and interannual variability of Arctic cyclone activity, J. Climate, 17,

Flux Exchanges Atmosphere (MM5) Land Ocean & Sea Ice Arctic MM5: Regional Weather & Climate Model One more step forward: Zhang, J., et al. 2007: Modeling Study of an Arctic Storm Process and Associated Atmosphere-Sea Ice-Ocean Interactions by Using a Coupled Regional Model. under revision. taking atmosphere-sea ice-ocean coupling process into account

Flux Exchanges Atmosphere (MM5) Land Ocean & Sea Ice Arctic MM5: Regional Weather & Climate Model One more step forward: Dynamic Downscaling Glacier Mass Balance Zhang, J., et al. 2007: Response of glaciers in northwestern North America to future climate change: an atmosphere/glacier hierarchical modeling approach. Annals of Glaciology, 46, taking atmosphere-sea ice-ocean coupling process into account Zhang, J., et al. 2007: Climate downscaling for estimating glacier mass balance in Northwestern North America: Validation with USGS index glacier. Geophy. Res. Lett., submitted.

Arctic MM5 Storm Simulation: Model Domain

Arctic MM5 Storm Simulation: Initial Condition

Arctic MM5 Storm Simulation: 2m Air Temperature

Arctic MM5 Storm Simulation: Cloudiness

Arctic MM5 Storm Simulation: Ocean Temperature

Arctic MM5 Storm Simulation: Sea Ice Thickness

Flux Exchanges Atmosphere (WRF) Land Ocean & Sea Ice Transition: Arctic MM5  Arctic WRF

WRF Simulation: Model Domain

WRF Simulation: Surface Pressure

WRF Simulation: 2 m Air Temperature

WRF Simulation: 2 m Mixing Ratio

WRF Simulation: 10 m Windspeed