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Design and Development of Multifunctional Mesoscale Observing Networks in Support of Integrated Fore

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Title: Design and Development of Multifunctional Mesoscale Observing Networks in Support of Integrated Fore


1
Design and Development of Multi-functional
Mesoscale Observing Networks in Support of
Integrated Forecasting Systems
  • A Report on a USWRP Workshop December 8-10,
    2003 Boulder, CO

Presentation to NWS ST Committee February 14,
2005 Silver Spring, MD
Organized by Fred Carr, University of Oklahoma
Walt Dabberdt, Vaisala Inc. Tom Schlatter,
NOAA/OAR/Forecast Systems Laboratory
2
Presentation Outline
?
  • Workshop goals and background
  • Recommendations of the Modeling Data
    Assimilation Workgroup
  • Recommendations of the Nowcasting Workgroup
  • Recommendations of the Testbed Workgroup
  • Existing and Planned Testbeds -- Domestic and
    International
  • Recommendations of the Implementation Workgroup
  • Synergies with the NWS Strategic Plan and STIP
  • Four Overarching Recommendations

3
Workshop Goals
  • Develop a roadmap that leads to designing,
    testing and implementing integrated mesoscale
    observing-forecasting systems that
  • yield improved mesoscale forecasts
  • utilize optimal observing system configurations
  • serve multiple applications
  • recognize the capabilities, interests and
    resources
  • of the public, private and academic sectors
  • Explore appropriate business models that will
    support and enable these systems

4
Working Groups and Leaders
  • Nowcasting --
  • Pat Welsh, NOAA/NWS
  • Jim Wilson, NCAR
  • Modeling and Data Assimilation --
  • Steve Koch, NOAA/OAR
  • Xiaolei Zou, Florida State University
  • Test Beds --
  • Marty Ralph, NOAA/OAR
  • Dave Jorgensen, NOAA/OAR
  • Implementation --
  • Joe Friday, University of Oklahoma
  • Maria Pirone, AER, Inc.

5
Workshop Participants Demographics
Domestic Intl. Total 37 4 41
49 3 52 25 4 29 111 11
122
6
Presentation Outline
  • Workshop goals and background
  • Recommendations of the Modeling Data
    Assimilation Workgroup
  • Recommendations of the Nowcasting Workgroup
  • Recommendations of the Testbed Workgroup
  • Existing and Planned Testbeds -- Domestic and
    International
  • Recommendations of the Implementation Workgroup
  • Synergies with the NWS Strategic Plan and STIP
  • Four Overarching Recommendations

?
?
7
Modeling Data Assimilation RecommendationsOver
arching Issues
  • What is the optimal mix of observations at the
    meso-, storm- and urban scales? Regional
    testbeds are needed to provide a basis for
    answering this question.
  • Examples of mesoscale forecast applications
    requiring improved observing capabilities
    include
  • severe weather systems in both cold and warm
    seasons
  • air quality and chemical emergency response
  • aviation, marine and surface transportation and
  • hydrology and more.
  • Modelers should be involved in the observing
    network decision process by designing observing
    system experiments to determine
  • the most important variables to measure
  • the minimum spacing and resolution requirements
    (network design)
  • adaptive and targeted sampling strategies and
  • data assimilation techniques to effectively use
    these new measurements.

8
Modeling Data Assimilation RecommendationsOver
arching Issues
  • It may more cost effective to sample only the
    boundary layer with denser coverage than to
    similarly enhance observations in the upper
    troposphere for improving mesoscale analysis and
    prediction.
  • It may be cost effective to deploy intermittent,
    targeted observations at high resolution.
    Testbeds built around prototype observing
    networks need to be in place to provide real-data
    tests of proposed strategies

9
Modeling Data Assimilation Recommendations
Remedy Deficiencies in Current Observational
Networks
  • Most desirable additional measurements
  • Lower tropospheric measurements
  • Mass, winds, moisture fields (3D) 10 km
    horizontal 200 m vertical 1-3 hrs
  • PBL turbulent fluxes, PBL heights
  • Turbulent flow and stability 2 km 15 min
  • Aerosols, chemical tracers, emissions data
  • Quantitative precipitation estimate
  • Better accuracy, good and consistent quality
    control
  • Upper tropospheric measurements
  • State variable measurements at 100 km spacing
    (0.5 km vertical), 1-3 hours
  • improved winds from satellite and regional
    aircraft
  • vertical profiling of state variables and
    hydrometeors in cloudy regions
  • increased vertical resolution from satellite
  • ozone profiling
  • tropopause topology
  • Land surface properties
  • Soil moisture and temperature profiles, snow
    cover and depth, SST, vegetation type/state
    updated daily
  • Inputs to radiative transfer model Ozone, CO2,
    water vapor, clouds

10
Presentation Outline
  • Workshop goals and background
  • Recommendations of the Modeling Data
    Assimilation Workgroup
  • Recommendations of the Nowcasting Workgroup
  • Recommendations of the Testbed Workgroup
  • Existing and Planned Testbeds -- Domestic and
    International
  • Recommendations of the Implementation Workgroup
  • Synergies with the NWS Strategic Plan and STIP
  • Four Overarching Recommendations

?
11
Advanced Operational Nowcasting Scope
  • Forecast Period 0-6 hr
  • Forecast High Impact Events
  • Winter weather heavy precipitation
    (precipitation type major challenge), high
    winds, icing
  • Summer weather high winds, heavy rain,
    lightning, hail
  • Air quality dispersion of airborne toxins
  • Forecast Techniques
  • Extrapolation
  • Statistical
  • Numerical (process models)
  • Expert systems
  • Observing Systems - All
  • Important parameters to measure low-level
    moisture detection of
  • sharp gradients boundary-layer height
    strength of capping
  • inversion energy potentially available for
    convection

12
Nowcasting Recommendations
  • Top priority Establish a national mesonetwork
    of surface stations.
  • NOAA should take the lead to establish this
    network, and set standards for data quality.
    Resolution needed 10-25km and 5min.
  • Radar recommendations
  • NWS should proceed without delay with the
    (approved) addition of dual polarization
    capability to the WSR-88D network.
  • Pursue the National Research Council Study
    recommendation to integrate other radars into the
    WSR-88D network.
  • Support studies to investigate means for
    improving boundary-layer coverage in the future
    through the use of closely spaced X-band radars.
  • NWS should pursue vigorously plans for a national
    expansion of the NOAA Profiler Network with
    emphasis on boundary-layer observations.
  • A research field project should be conducted that
    tests the utility of radar refractivity
    measurements to improve nowcasting.

13
Nowcasting Recommendations
  • Other priority recommendations
  • Continue support for collaborative research
    projects aimed at using total lightning data to
    improve severe weather warnings and nowcasts.
  • Products detailing near-surface water vapor
    fields should be provided in real time to
    forecasters and assimilated into models to
    demonstrate how high-resolution water vapor
    fields can improve nowcasting.
  • Establish testbeds for very short period
    forecasting (0-6 hr, nowcasting) of high impact
    weather.

14
Presentation Outline
  • Workshop goals and background
  • Recommendations of the Modeling Data
    Assimilation Workgroup
  • Recommendations of the Nowcasting Workgroup
  • Recommendations of the Testbed Workgroup
  • Existing and Planned Testbeds -- Domestic and
    International
  • Recommendations of the Implementation Workgroup
  • Synergies with the NWS Strategic Plan and STIP
  • Four Overarching Recommendations

?
15
Mesoscale Weather Forecasting -- Testbeds
  • Testbed Definition A working relationship in
    quasi-operational framework among forecasters,
    researchers, private-sector, and government
    agencies aimed at solving operational and
    practical regional problems with a strong
    connection to end-users.

16
Testbed Recommendations
  • Testbed considerations and attributes
  • Yield improvements in services, products,
    economics and public safety
  • Accelerate transition of RD to better
    operations, services, and decision making.
  • Testbeds require a long-term (multi-year)
    commitment, probably at multiple locations
  • With a view toward improving operational weather
    services, the observing systems deployed within
    testbeds should be reliable, cost-effective,
    commercial off-the-shelf (COTS) where possible,
    and capable of sustained, continuous operation.
  • Some redundancy in the observational capability
    of testbeds is needed to make informed decisions
    about which sites and instruments are needed for
    long-term operational purposes.

17
Testbed Recommendations
  • Testbeds are crucial in transitioning observing
    and modeling research into operations a
    successful testbed must satisfy the following
    criteria
  • Address the detection, monitoring, and prediction
    of regional phenomena of particular interest.
  • Engage experts in the phenomena of interest.
  • Involve stakeholders in planning, operation, and
    evaluation of the testbeds.
  • Define expected outcomes, including transition to
    operations, strategies for achieving them, and
    measures of success.
  • Provide special observing networks (and people,
    communications, and databases) needed for pilot
    studies and research
  • Provide resources for the generation and delivery
    of experimental products based upon these
    observations.

18
Testbed Observing System Perspectives
  • Obs. System Priorities
  • Reliability
  • Cost Effectiveness
  • Commercial Availability
  • Continuity
  • Obs. System Priorities
  • Proof of Concept
  • Early demonstration
  • Higher Resolution
  • Multiple Sensors
  • New Variables

Testbed Domain
RD
Operations
Improved User Decisions
Basic RD
19
Presentation Outline
  • Workshop goals and background
  • Recommendations of the Modeling Data
    Assimilation Workgroup
  • Recommendations of the Nowcasting Workgroup
  • Recommendations of the Testbed Workgroup
  • Existing and Planned Testbeds -- Domestic and
    International
  • Recommendations of the Implementation Workgroup
  • Synergies with the NWS Strategic Plan and STIP
  • Four Overarching Recommendations

?
20
Mesoscale observing programs are proliferating
How can we build on them?
  • x

Coastal Storms
  • Mesowest
  • ARM CART
  • Oklahoma Mesonet
  • Texas Mesonet
  • AIRMAP
  • Hi-res temperature
  • forecasts for energy sector
  • Land-falling storms
  • (PACJET)
  • Air Quality
  • Fire Weather
  • Energy, Water, Air
  • Quality Issues

Coastal Storms
North American Monsoon Experiment
21
A New England Testbed for Improved Temperature
Forecasting for Electric Power Industry
22
A National Testbed for Hydrometeorological and
Severe Storm Research and Development
  • The National Severe Storms Laboratory in
    collaboration with the NWS Office of Hydrologic
    Development is currently establishing a national
    hydrometeorological testbed for the research and
    development of multi-sensor applications.
  • A key component of the testbed is the National
    Mosaic and Quantitative precipitation estimation
    (NMQ) system for the creation and deployment of
    high-resolution quantitative precipitation
    estimation applications over North America for
    flash flood detection and prediction, fresh water
    resource management, and severe weather detection
    and prediction.
  • The NMQ project will function as a
    community-based RD program that integrates
    multiple observational data streams and technique
    development environment, and real-time
    verification and performance assessments on a
    national scale across small time and space
    resolutions.

23
Helsinki Testbed 2005-2006
  • Mesoscale weather research
  • Forecast and dispersion models development and
    verification
  • Observing systems and strategies test and
    design
  • Information systems and technology integration
  • End-user product development and demonstration
  • Data distribution for public and research
    community

Observing Facilities (preliminary) 1 dual-pol
Doppler radar 4 C-band Doppler radars 101
surface wx stations 191 road weather stations
42 two-level AWS masts 3 shipboard weather
stations 11 backscatter lidars 1 UHF wind
profiler 3 RAOB sounding stations 34
precipitation sites (part of 101)
satellite obs. (GS and PO) COSMIC RI
soundings EUCOS operational network
24
Helsinki Testbed
Radars and Precipitation Stations
All HTB Stations
20km
R60km
dual-pol Doppler C-band
25
Beijing Testbed 2006-2008
770km
150km
26
BMMB Observational Network Development Plan
(eff. July 2003)
150km
Source CMA, July 2003
27
Presentation Outline
  • Workshop goals and background
  • Recommendations of the Modeling Data
    Assimilation Workgroup
  • Recommendations of the Nowcasting Workgroup
  • Recommendations of the Testbed Workgroup
  • Existing and Planned Testbeds -- Domestic and
    International
  • Recommendations of the Implementation Workgroup
  • Synergies with the NWS Strategic Plan and STIP
  • Four Overarching Recommendations

?
28
Implementation of Integrated Mesoscale
Observing-Forecasting Systems
  • Focus Explore the potential for forming a
    consortium of public-private partners to
    implement a national mesoscale observing network
    based on the needs of the user communities,
    including
  • Modeling community
  • General public
  • Commercial markets
  • Drivers What are the major drivers of
    partnerships for mesoscale observing networks?

29
Stakeholders for observational data and forecasts
30
Business Model Framework
  • Entry conditions of the consortium
  • Intellectual property ownership
  • Ownership of data (data rights)
  • Ownership of equipment
  • Maintenance operational responsibilities
  • Cost sharing
  • Revenue sharing
  • Liability/Indemnification of the partners
  • Exit strategy

31
Strengths of a Successful Partnership
32
Implementation recommendations
  • A partnership arrangement was proposed for
    creation of consortia to develop, maintain and
    support regional mesoscale networks or even a
    composite national network.
  • The proposed network(s) would consist of a mix of
    privately owned measurement systems, publicly
    owned systems and newly acquired systems supplied
    by the consortia.
  • Each consortium collects and quality-controls the
    data, and supports the real-time dissemination of
    data and information products (e.g. analyses and
    forecasts).
  • Consortium members share rights, costs and
    revenues according to a participation formula
    (tbd)
  • Typical member roles
  • The public sector members access the data for the
    public good i.e. public safety.
  • The private-sector consortium members (and
    possibly academic partners) use the data to
    create and sell various value-added products.
  • Academia and non-profit research centers have
    access to the data for educational and research
    purposes.

33
Presentation Outline
  • Workshop goals and background
  • Recommendations of the Modeling Data
    Assimilation Workgroup
  • Recommendations of the Nowcasting Workgroup
  • Recommendations of the Testbed Workgroup
  • Existing and Planned Testbeds -- Domestic and
    International
  • Recommendations of the Implementation Workgroup
  • Synergies with the NWS Strategic Plan and STIP
  • Four Overarching Recommendations

?
34
Synergies with NWS Strategic Plan and STIP
  • Close fit with three of the five NOAA goals
  • Serve societys needs for weather and water
    information.
  • Support U.S. commerce with info for safe,
    efficient, environmentally sound transportation.
  • Provide critical support (infrastructure) for
    NOAAs mission. (Testbeds build infrastructure.)
  • Testbeds are vehicles to
  • Monitor and observe emphasis on new observing
    technologies / strategies in critical weather
    situation
  • Assess and predict observations used in
    real-time by line forecasters and tested in
    prediction models
  • Engage, advise, and inform products (warnings,
    watches, advisories, numerical forecast guidance)
    disseminated and used
  • Understand and describe risk reduction and
    product improvement resulting from tests of new
    data as applied to specific problems in
    operational setting

continued
35
Synergies with NWS Strategic Plan and STIP
(concluded)
  • Recurring theme in workshop recommendations is
    need for
  • Boundary layer observations
  • Moisture observations
  • Testbeds that gauge efficacy of new or extended
    observing systems in operational setting
  • Fully consistent with most NWS GPRA goals for FY
    2010 as expressed in Strategic Plan,
    specifically
  • Lead time, accuracy, false alarm rate for severe
    weather warnings
  • Accuracy of Day 1 precipitation forecast
  • Lead time for winter storm warnings
  • Accuracy and false alarm rate for ceiling and
    visibility forecasts
  • Accuracy of forecast for low-level winds

36
Presentation Outline
  • Workshop goals and background
  • Recommendations of the Modeling Data
    Assimilation Workgroup
  • Recommendations of the Nowcasting Workgroup
  • Recommendations of the Testbed Workgroup
  • Existing and Planned Testbeds -- Domestic and
    International
  • Recommendations of the Implementation Workgroup
  • Synergies with the NWS Strategic Plan and STIP
  • Four Overarching Recommendations

?
37
Four Overarching Recommendations to NWS
  • Adopt the testbed concept as a priority mechanism
    for transitioning mesoscale observing and
    modeling advances from research to operations
  • Form a multi-sector tiger team to develop a
    functional design for a working testbed, and
    recommend one or more testbeds for the most
    pressing unmet requirements.
  • Take the lead in developing alliances with other
    public agencies who have complementary mesoscale
    needs (e.g. Dept. of Homeland Security EPA DoD)
    to leverage resources and minimize costs.
  • Take the lead in developing a partnership among
    the public, academic and private sectors that
    will facilitate the establishment and ongoing
    support of mesoscale testbeds and, subsequently,
    operational mesoscale observing-forecasting
    enterprises

38
Mesoscale Networks Observational needs
vs. Applications
39
  • ..end..end..end..end..end..
  • fcarr_at_ou.edu
  • walter.dabberdt_at_vaisala.com
  • tom.schlatter_at_noaa.gov
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