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Invasive Species Science Team Meeting

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Title: Invasive Species Science Team Meeting


1
Invasive SpeciesScience Team Meeting
  • John L. Schnase
  • NASA Goddard Space Flight Center
  • Greenbelt, Maryland
  • Thomas J. Stohlgren
  • USGS National Institute of Invasive Species
    Science
  • Fort Collins, Colorado
  • 9 July 2003

2
Agenda
  • Wednesday, 9 July 03
  • NASA Status Report (ESTO/CT Milestones, F,O1, C
    G Carbon Years 2 3)
  • USGS Status Report (ESTO/CT Milestones, F,O1, C
    G Carbon Years 2 3)
  • NASA HQ Report (Program Plans, NASA/USDA, )
  • -----
  • Big Problem (Priorities, issues, strategies,
    )
  • MSU Collaboration (Opportunities, overlaps, )
  • REASoN CAN (Initial project overview, HQ
    guidance )
  • Thursday, 10 July 03
  • Big Problem (Discussion, next steps, task
    assignments)
  • MSU Collaboration (Discussion, next steps, task
    assignments)
  • REASoN CAN (Discussion, next steps, task
    assignments)

3
NASA Status Report
  • John Schnase
  • NASA Goddard Space Flight Center

4
Invasive SpeciesA Top Environmental Issue of the
21st Century
  • Economic Costs
  • 137 Billion / Yr
  • (Pimentel, et al. 1999 NISRC Management Plan,
    2001)
  • Environmental Costs
  • Decreased biodiversity, ecological services, etc.
  • Human-Health Costs
  • West Nile Virus, Malaria, etc.
  • Agricultural Costs
  • Crop pathogens, hoof-and-mouth, mad cow disease
  • Notorious examples include
  • Dutch elm disease, chestnut blight, and purple
    loosestrife in the northeast kudzu, Brazilian
    peppertree, water hyacinth, nutria, and fire ants
    in the southeast zebra mussels, leafy spurge,
    and Asian long-horn beetles in the Midwest salt
    cedar, Russian olive, and Africanized bees in the
    southwest yellow star thistle, European wild
    oats, oak wilt disease, Asian clams, and white
    pine blister rust in California cheatgrass,
    various knapweeds and thistles in the Great
    Basin whirling disease of salmonids in the
    northwest hundreds of invasive species from
    microbes to mammals in Hawaii and the brown tree
    snake in Guam.
  • As many as 50,000 now,hundreds new each year ...

5
Federal Government Response
  • National Invasive Species Council (EO 13122 -
    1999)
  • Co-Chaired by Departments of Agriculture,
    Commerce, and Interior
  • USGS has a lead role in dealing with invasive
    species science in natural and semi-natural areas
  • Responsible for measurement, management, and
    control on all Department of Interior and
    adjacent lands ...

6
USGS National Institute of Invasive Species
Science
USGS Biological Resources Division (BRD)
laboratory Located at USGSs Ft. Collins Science
Center New facilities opened Aug 02 Director,
Tom Stohlgren Many current / future partners ...
Grand Challenge Biodiversity and Ecosystem
Functioning with special emphasis on invasive
species ... NRC Committee on Grand Challenges
in Environmental Sciences, 2001
Needed A National Center For Biological
Invasions Don Schmitz and Dan
Simberloff Issues in Science and Technology,
Summer 2001
7
USGS Science / Client Needs
  • On-demand, predictive landscape- and
    regional-scale models and maps for biological
    invasions
  • Pick any point, land management unit, county,
    state, or region and determine the current
    invasion, and vulnerability to future invasion by
    species.
  • Pick any species or group of species, and get
    current distributions, potential distributions,
    potential rates of change, and levels of
    uncertainty.
  • Data integration and sharing
  • Comprehensive information on control efforts and
    cost. Share early detection data, control
    strategies, local expertise. Help public and
    private land managers.

8
National Invasive Species Forecasting System
(ISFS)
  • NASA / USGS Partnership
  • Chip Groat, Kathie Olsen early promoters
  • Goal Develop an operational DSS capability for
    USGS DOI
  • Research topic adopted by YO
  • Carbon Cycle Science Applications Program
  • Predicting Regional-Scale Exotic Plant Invasions
    in Grand Staircase-Escalante National Monument
    (NASA YS/YO NRA - Schnase, Smith, Stohlgren)
  • ESTO/Computational Technologies Program
  • Biotic Prediction Building the Computational
    Technology Infrastructure for Public Health and
    Environmental Forecasting (NASA YS CAN -
    Schnase, Smith, Stohlgren)
  • Ref. EOM Article / NRC Report /
    http//ct.gsfc.nasa.gov/milestones.schnase.html

9
C Objectives
  • Adapt a suite of multi-phase, multi-scale early
    detection and monitoring protocols to use new
    types of EOS and commercial data
  • Extend a suite of predictive models to enable
    their use in regional-scale assessments of
    invasive species patterns and vulnerable habitats
  • Integrate science and technology results into a
    community-developed, high-resolution,
    regional-scale application system for invasive
    species management in Utahs Grand
    Staircase-Escalante National Monument
  • Make the resulting application system broadly
    available through the USGS National Biological
    Information Infrastructure program
  • Evaluate its potential as an operational system
    for managing all Department of Interior lands.

10
CT Objectives
  • Create a high-performance, parallel
    implementation of the PlantDiversity modeling
    code for invasive species
  • Document the use of software engineering
    techniques that foster reproducibility and
    community-wide software process improvements in
    this domain
  • Engage an extended community of scientists
    through the National Biological Information
    Infrastructure program
  • Empower the ecological, environmental, and public
    health communities by expanding their
    participation in high-performance computing and
    broadening their use of NASA ESE data

11
Modeling Approach
Output GIS - Spatial Statistical Dynamic Models
and Maps
Trend Surface Analysis With Stepwise Multiple
Regression Using OLS, GLS, SAR, or Exhaustive
Regression
Input Variables (150) Remotely Sensed
data (ETM, SPOT, MTI, EO1, etc.) Derived Remote
Sensing (Vegetation Indices, PCA Tasseled Cap,
other) Biotic/Abiotic Data Topographic
Data Species Data Vegetation- Forest Data Soils
Characteristics Cryptobiotic Crusts Wildfire
Severity Biodiversity Air Pollution Geology,
Other Environmental Data
Hot spots of native biodiversity Distribution
of non-native species Potential spread
of invasive species. Barriers to rapid
invasions. Corridors that may accelerate
invasions. Economic and environmental risk
assessments, vulnerability of habitats to
invasion. Priorities for control and
containment.
Testing if There Is Spatial Auto-Correlation In
the Residuals
No
Final Trend Surface Map Large - Small Scale
Variability
Yes
Testing if Residuals Cross-Correlated with Other
Variables
Yes
Yes
No
Model Residuals Using Co-Kriging
Regression Trees Classifications
Model Residuals Using Kriging (Universal,
Ordinary, other)
12
CT/C Milestones (YR 1)
  • Software Engineering Plan Completed (4/15/02)
    (5/13/02)Deliver Software Engineering /
    Development Plan, Configuration Management Plan,
    Quality Assurance Plan, Risk Management Plan
  • Code Baseline Completed (7/15/02) (1/6/03)
  • Document performance characteristics and
    time/space complexity of existing PlantDiversity
    code and modeling process for three canonical
    examples Cerro Grande Fire Site (CGFS), Rocky
    Mountain National Park (RMNP), and Grand
    Staircase-Escalante National Monument (GSENM).
    Determine appropriate multipliers, m and n, to be
    used in Milestones F and G respectively. Deliver
    initial version of Requirements, Software Design,
    and Concept of Operations Documents. Documented
    source code made publicly available via the Web.
    (7/15/02) (1/6/03)
  • First Annual Report (8/15/02) (1/6/03)

13
CT/C Milestones (YR 2)
  • F. First Code Improvement Completed (7/15/03) gt
    (8/15/03)Improve implementation of
    PlantDiversity to deliver canonical products from
    Milestone E mX faster than the baseline
    implementation. Provide code scaling curves.
    Provide preliminary evaluation of EOS data
    extensions. Deliver updates to Requirements and
    Design Documents. Deliver initial version of Test
    Plan / Procedures Document. Documented source
    code made publicly available via the Web.
  • O1. Install Linux Cluster (7/15/03) gt (9/15/03)
  • Install Linux clusters at USGS/CSU and
    NASA/GSFC. System configurations will be based on
    recommendations from CT at the time of purchase.
  • C. Second Annual Report (8/15/03) gt (9/15/03)

14
CT/C Milestones (YR 3)
  • Second Code Improvement Completed
    (7/15/04)Improve implementation of
    PlantDiversity to accommodate 10X more input data
    over Milestones E and F at nX the time required
    in the baseline implementation.  (Depending on
    the science problem, this enhanced capability may
    be used to increase spatial resolution, temporal
    resolution, or coverage.) Provide code scaling
    curves.  Deliver updates to Requirements, Design,
    and Test Documents. Deliver initial User's Guide.
    Documented source code made publicly available
    via the Web.
  • Third Annual Report (8/15/04)
  • Customer Delivery Accomplished (12/15/04)
  • Achieve sustained, evaluative use of
    PlantDiversity by NIIS, GSENM, and 8 additional
    customers. Deliver updated Test Plan / Procedures
    Document and User's Guide. Deliver updated
    Requirements and Design Documents. Deliver
    Maintenance Manual for as-built system.  
    Documented source code made publicly available
    via the Web.
  • D. Final Report Delivered (3/15/05)

15
Interdisciplinary Team
  • USGS NIISS
  • Tom Stohlgren NIISS Director
  • USGS HQ
  • Gladys Cotter BRD Assoc. Chief Biologist
  • Bill Gregg IS Program Manager
  • Chip Groat USGS Director
  • CSU NREL
  • Robin Reich
  • Mohammed Kahlkan
  • SSAI
  • Rob Baker
  • Dave Kendig
  • Nick Pell
  • Rob Simmon
  • David Obler

16
Interdisciplinary Team
  • NASA GSFC
  • Jim Smith Code 920
  • Jeff Pedelty Code 923
  • Jeff Morisette Code 920
  • Curt Tilmes Code 922
  • John Dorband Code 935
  • Jacqueline LeMoigne Code 935
  • Jim Fischer Code 931
  • John Schnase Code 930
  • NASA HQ
  • Ron Birk Code YO
  • Ed Sheffner Code YO
  • Alex Tuyahov Code YO
  • Woody Turner Code YS
  • Diane Wickland Cody YS

17
Parallel Kriging
  • Jeff Pedelty
  • NASA Goddard Space Flight Center

18
MODIS NDVI Time-Series
  • Jeff Morisette
  • NASA Goddard Space Flight Center

19
Public InterfaceCurrent Deliverables
  • Rob Baker and David Kendig
  • SSAI
  • John Schnase
  • NASA Goddard Space Flight Center

20
Public InterfaceMilestones F, O1, C Delivery
Schedule
  • By 8/15/03
  • New website
  • SWE documentation
  • Ability to run canonical examples from website
    using user-set parameters
  • By 9/15/03
  • 16-node (?) cluster bundled with Milestone F
    software and delivered to USGS / NREL

21
USGS Status Report
  • Tom Stohlgren
  • USGS National Institute of Invasive Species
    Science

22
NASA HQApplications Update
  • Ed Sheffner
  • NASA Office of Earth Science, Code YO

23
Lunch
24
Big Problem
  • The ISFS Team

25
Big ProblemChallenge
  • Could go something like this
  • Produce a comprehensive, continental-scale
    assessment of habitats vulnerable to invasive by
    Cheat Grass over the next five years
  • Or
  • Produce a wall-to-wall distribution map for Salt
    Cedar in the United States
  • Or
  • Document the - 30 to 5 year continental-scale
    invasion trend for _____

26
Big ProblemRationale
  • Part of our strategy for operational scaling
  • Cerro Grande gt RMNP gt GSENM gt ???
  • Milestone F requirements
  • Public demand
  • IS hot topic!
  • Our project needs to respond AND shape
    expectations
  • Good politics
  • Were ahead of the curve, but its a large and
    fast moving wave
  • For invasive species, its location, location,
    location AND timing, timing, timing
  • Good science
  • Need to continue to ground our national goals in
    real understanding
  • Short-term need for brute-force, enumerative
    approaches
  • Relative merits of an autecological approach

27
Big ProblemQuestions Round 1 Brainstorming
  • What are the priority DOI / USGS invasives?
  • How do we scope a national goal?
  • What are the appropriate modeling techniques?
  • What field data are available to support the
    effort?
  • What remote sensing data are needed?
  • What are the computational issues?
  • What the steps toward iterative improvements in
    fidelity?
  • Are the necessary partnerships in place for this?
  • Are the politics in place? Who else do we involve
    within USGS?
  • How do we implement this? Next years steps? Out
    years?
  • How do we get the word out? Publication, PR
    strategy?

28
Mississippi State University
  • Jon Arvik, Lori Bruce, John Madsen
  • GeoSpatial Sciences Institute

29
REASoN CANThe Invasive Species Data
ServiceToward Operational Use of NASA ESE Data
in the USGS Invasive Species Decision Support
System
  • John Schnase
  • NASA Goddard Space Flight Center

30
Rationale
  • A central challenge to meeting the invasive
    species threat is the problem of searching and
    aggregating data across heterogeneous and often
    domain-specific repositories.
  • The essential task of bringing together the
    georegistered satellite data and biological data
    required for invasive species work is a
    fundamental bottleneck to developing new
    applications and pursuing new science questions
    in this area.

31
Modeling Approach
Output GIS - Spatial Statistical Dynamic Models
and Maps
Trend Surface Analysis With Stepwise Multiple
Regression Using OLS, GLS, SAR, or Exhaustive
Regression
Input Variables (150) Remotely Sensed
data (ETM, SPOT, MTI, EO1, etc.) Derived Remote
Sensing (Vegetation Indices, PCA Tasseled Cap,
other) Biotic/Abiotic Data Topographic
Data Species Data Vegetation- Forest Data Soils
Characteristics Cryptobiotic Crusts Wildfire
Severity Biodiversity Air Pollution Geology,
Other Environmental Data
Hot spots of native biodiversity Distribution
of non-native species Potential spread
of invasive species. Barriers to rapid
invasions. Corridors that may accelerate
invasions. Economic and environmental risk
assessments, vulnerability of habitats to
invasion. Priorities for control and
containment.
Testing if There Is Spatial Auto-Correlation In
the Residuals
No
Final Trend Surface Map Large - Small Scale
Variability
Yes
Testing if Residuals Cross-Correlated with Other
Variables
Yes
Yes
No
Model Residuals Using Co-Kriging
Regression Trees Classifications
Model Residuals Using Kriging (Universal,
Ordinary, other)
32
Data Ingest
33
Project Overview
  • We propose to build an Invasive Species Data
    Service (ISDS) to provide customized, easily
    accessible data products and tools to support
    invasive species management and policy
    decision-making.
  • The ISDS will be a networked service that
    integrates a suite of NASA ESE data providers
    with the data resources of the National
    Biological Information Infrastructure (NBII).
  • Aggregated ISDS data will feed directly into the
    National Invasive Species Forecasting System,
    which is a core component of an invasive species
    decision support capability being developed
    jointly by the USGS and NASA.
  • In building the ISDS, we will refine the notion
    of Web-based service interoperability using SEEDS
    principles to specialize EOS Clearing House
    (ECHO) technologies.

34
Project Overview
  • The result will be a tailored interface that
    combines biological and earth science data to
    meet the specific needs of a large and expanding
    community of ecologists and natural resource
    managers who deal with invasive species.
  • A broadly representative users group will help
    shape development of the ISDS and align its
    activities with current and future needs.
  • The work will contribute to NASA's plans for
    future ESE data systems by engaging a new client
    community that has a focused, thematic, and
    interdisciplinary data integration problem of
    national importance.
  • The ISDS will be made available through NBII and
    the USGS National Institute of Invasive Species
    Science.
  • This work will lead to a fully operational
    capability of national scope vital to
    understanding and managing the effects of
    invasive species on human health, the economy,
    native biodiversity, and ecosystem processes.

35
ISDS Objectives
  • Create a capability to combine ESE data products
    from selected satellite missions with selected
    biological field, experimental, and collections
    data of the National Biological Information
    Infrastructure to produce thematic,
    interdisciplinary data products for invasive
    species management and policy decision-making
  • Use SEEDS guiding principles to create an
    extensible technology framework for
    interdisciplinary data subsetting and aggregation
    which will result in easily-accessible, merged
    products tailored to the needs of future invasive
    species decision support systems
  • Contribute to the SEEDS formulation effort by
    engaging a new community of users with an urgent,
    focused, national-scale data integration need

36
ISDS Objectives
  • Integrate these new capabilities into a coherent
    and comprehensive solution of national scope the
    Invasive Species Data Service Integrate the
    Invasive Species Data Service into the emerging
    National Invasive Species Forecasting System
  • Expand and consolidate a broad coalition of users
    from across the invasive species research,
    education, and applications communities
  • Make the resulting capability broadly available
    on a sustainable basis through the USGS National
    Institute of Invasive Species Science

37
Modeling WorkflowApplication Layer
Output GIS - Spatial Statistical Dynamic Models
and Maps
Trend Surface Analysis With Stepwise Multiple
Regression Using OLS, GLS, SAR, or Exhaustive
Regression
Input Variables (150) Remotely Sensed
data (ETM, SPOT, MTI, EO1, etc.) Derived Remote
Sensing (Vegetation Indices, PCA Tasseled Cap,
other) Biotic/Abiotic Data Topographic
Data Species Data Vegetation- Forest Data Soils
Characteristics Cryptobiotic Crusts Wildfire
Severity Biodiversity Air Pollution Geology,
Other Environmental Data
DSSProducts
Modeling
Hot spots of native biodiversity Distribution
of non-native species Potential spread
of invasive species. Barriers to rapid
invasions. Corridors that may accelerate
invasions. Economic and environmental risk
assessments, vulnerability of habitats to
invasion. Priorities for control and
containment.
Testing if There Is Spatial Auto-Correlation In
the Residuals
No
Final Trend Surface Map Large - Small Scale
Variability
Yes
Testing if Residuals Cross-Correlated with Other
Variables
Yes
Yes
Ingest
No
Model Residuals Using Co-Kriging
Regression Trees Classifications
Model Residuals Using Kriging (Universal,
Ordinary, other)
38
ISFS Architecture
39
ISFS Architecture
Carbon
ISDS
???
CT
REASoN
40
ECHO
  • ECHO (The Earth Observing System (EOS) Clearing
    HOuse) implements a notion of service
    interoperability that appears to be well suited
    to the Invasive Species Data Service (Pfister et
    al., 2002).
  • ECHO specifications define a way to publish and
    discover information about Web services.
  • The term Web service describes specific
    business functionality exposed by an
    organization, usually through an Internet
    connection, for the purpose of providing a way
    for other organizations or software programs to
    use the service.
  • ECHO is being developed to provide flexibility to
    NASAs EOS Data and Information System to better
    meet the needs of the science community. This
    flexibility includes providing (Application
    Program Interfaces) APIs for alternate user
    interfaces to support special needs in data
    access, providing APIs for brokering data
    services so specialized data services can be
    shared across the user community, and providing
    APIs for easy participation by a broad data
    provider community.
  • Another major goal of ECHO is to support new data
    access paradigms that are not supported by
    todays EOSDIS architecture.

41
ECHOArchitecture
  • The core component of ECHO is its clearinghouse
    into which providers can place a copy of their
    metadata and clients can perform geospatial,
    temporal and keyword based searches of those data
    using an open set of XML-based APIs.
  • Data providers can register with ECHO and provide
    copies of their metadata through an XML file used
    to describe a business entity and its Web
    services.
  • Programs and programmers use the ECHO registry to
    locate information about services and, in the
    case of programmers, to prepare systems that are
    compatible with advertised Web services or to
    describe their own Web services for others to
    call.
  • XML provides a cross-platform approach to data
    encoding and formatting. SOAP, which is built on
    XML, defines a simple way to package information
    for exchange across system boundaries. SOAP
    bindings for HTTP are built on this packaging
    protocol and define a way to make remote
    procedure calls between systems in a manner that
    is independent of the programming language or
    operating system choices made by individual
    organizations.
  • This cross-language, cross-platform approach
    simplifies the problem of making systems at two
    organizations compatible with each other.

42
ECHOPartners
  • ECHO Data Partners participate with ECHO to
    provide Earth science data in the form of their
    metadata holdings.
  • These metadata are cached within the
    clearinghouse and available for search and
    retrieval as well as navigation and discovery.
  • Data Partners also provide a mechanism to allow a
    client (user or machine interface) to access data
    holdings. Partners have complete control over
    what metadata is represented in ECHO on their
    behalf. They can insert new metadata, modify
    existing metadata and remove old metadata .
  • Current ECHO Data Partners include the Goddard
    Earth Science (GES) and EROS Data Center (EDC)
    Distributed Active Archive Centers (DAACs). The
    GES DAAC, with its long time-series vegetation
    and thermal infrared brightness temperature data
    sets and MODIS data support will be particularly
    important as will the Landsat and land processes
    collections of the EDC DAAC.

43
NBII
  • The biological holdings of the National
    Biological Information Infrastructure are
    currently not a part of the ECHO framework, but
    will be integrated through this project.
  • NBII is a broad, collaborative program to provide
    increased access to data and information on the
    Nation's biological resources in much the same
    way that the ESIP Federation works to broaden
    access to Earth science data.
  • The NBII links diverse, high-quality,
    non-proprietary biological databases, information
    products, and analytical tools maintained by NBII
    partners and other contributors in government
    agencies, academic institutions, non-government
    organizations, and private industry.
  • NBII partners and collaborators also work on new
    standards, tools, and technologies that make it
    easier to find, integrate, and apply biological
    resources information. Resource managers,
    scientists, educators, and the general public use
    the NBII to answer a wide range of questions
    related to the management, use, or conservation
    of this Nation's biological resources.
  • Additional information about NBII and its many
    partners can be found at the NBII website at
    www.nbii.gov.

44
Implementation Plan
  • (Task 1) Software Engineering Plan We will
    employ software engineering best practices
    throughout the project. We will produce and work
    to a comprehensive Software Engineering /
    Development Plan, Configuration Management Plan,
    Quality Assurance Plan, Requirements Document,
    and Test Plan and Procedures Document. All source
    code will documented and made publicly available
    on the projects website.
  • (Task 2) Build ECHO Lite at USGS The
    Invasive Species Data Service will be based on
    ECHO technologies and encapsulate a subset of its
    capabilities for tailored use by the invasive
    species community. The first step is to host the
    ECHO clearinghouse framework at the USGS National
    Institute for Invasive Species Science. We refer
    to this version as ECHO Lite.

45
Implementation Plan
  • (Task 3) Make NBII an ISDS Data Partner An
    ECHO (or ECHO Lite / ISDS) data partner is an
    entity that participates with ECHO to provide
    data in the form of its metadata holdings. These
    metadata are then available for search and
    retrieval as well as navigation and discovery
    along with the aggregated metadata from other
    ECHO data partners. We will build mappings
    between appropriate elements of the ECHO data
    model and the data models used by NBII. We will
    develop translation routines that allow NBIIs
    XML metadata to be formatted according to ECHOs
    DTDs for both collections and lower-level data
    granules where possible. We will also create an
    automated mechanism for updating the clearing
    house as new information arrives at NBII.

46
Implementation Plan
  • (Task 4) Build an ISFS System Client An ECHO
    client is an entity that has a user or
    machine-to-machine interface that communicates
    with ECHO via its APIs in order to perform
    operations on ECHO holdings. As shown in Figure
    6, we will develop a client that allows the
    Invasive Species Forecasting System to draw on
    the ECHO Lite services of the Invasive Species
    Data Service. We will use various ECHO tools,
    APIs, and DTDs to develop the client.

47
Implementation Plan
  • (Task 5) Build an ISDS Public Client We also
    want to develop a mechanism whereby users can
    conveniently register their personal or project
    data sets with the ISDS and access the services
    of the ISDS directly without having to use the
    Invasive Species Forecasting System. To do this,
    we will build a general mechanism for data
    partnering based on that used for institutional
    partners.
  • (Task 6) Deploy into Operational Use In
    concert with the development components of the
    project, we will be producing documentation and
    providing the training necessary to create the
    expertise needed within the USGS to deploy these
    capabilities operationally and maintain the
    service into the future. We will design and
    implement a comprehensive transition protocol to
    guide the hand-off.

48
SEEDS
  • NASAs Strategy for the Evolution of Earth Data
    Systems (SEEDS) starts from the premise that
    systems and services must be informed by, and
    supportive of, key science concerns and
    questions.
  • It also recognizes that individual scientists and
    disciplinary communities of scientists are key
    consumers and producers of data products and
    therefore must be key partners.
  • To insure community engagement, we will use SEEDS
    principles to guide an iterative approach in
    which various stakeholders will be deeply
    involved in the effort.
  • Ecologists and land managers who already have
    established collaborations with the National
    Institute of Invasive Species Science will be
    part of the development team.

49
SEEDS
  • The main objective is to foster community-wide
    participation in the development and use of these
    new services, and specify as clearly as possible
    the types and levels of services needed to make
    it useful, strategies for technological infusion.
  • Wherever possible, we will attempt to exploit the
    first-mover rule, which advocates faster
    development of high-priority features that will
    encourage the commitment and continued engagement
    of the end-user community.
  • At all stages, we will actively seek community
    feedback on the usage experience of the service
    and the information products produced by the
    ISDS. We will then develop refinements based on
    this feedback and fold these experiences back
    into the SEEDS formulation process.

50
Preliminary Time Line
51
Budget
  • Ref. Proposal Cost Plan (p. 22) and Cooperative
    Agreement Payment Schedule (p. 29) for details
  • Staffing
  • 0.25 FTE Senior Analyst / Technical Manager
  • 0.25 FTE Professional clerical
  • 2.00 FTE Programmer / Analysts
  • Travel, Administrative Fees, USGS Subcontract for
    managing community / advisory group meetings.

52
Discussion
53
Invasive SpeciesScience Team Meeting
  • John L. Schnase
  • NASA Goddard Space Flight Center
  • Greenbelt, Maryland
  • Thomas J. Stohlgren
  • USGS National Institute of Invasive Species
    Science
  • Fort Collins, Colorado
  • 10 July 2003

54
Agenda
  • Wednesday, 9 July 03
  • NASA Status Report (ESTO/CT Milestones, F,O1, C
    G Carbon Years 2 3)
  • USGS Status Report (ESTO/CT Milestones, F,O1, C
    G Carbon Years 2 3)
  • NASA HQ Report (Program Plans, NASA/USDA, )
  • -----
  • Big Problem (Priorities, issues, strategies,
    )
  • MSU Collaboration (Opportunities, overlaps, )
  • REASoN CAN (Initial project overview, HQ
    guidance )
  • Thursday, 10 July 03
  • Milestone F (Discussion, next steps, task
    assignments)
  • Big Problem (Discussion, next steps, task
    assignments)
  • MSU Collaboration (Discussion, next steps, task
    assignments)
  • REASoN CAN (Discussion, next steps, task
    assignments)
  • Misc. (Discussion, next steps, task
    assignments)

55
(No Transcript)
56
Milestones F, O1, B
  • By 8/15/03
  • New, finished website (Baker)
  • SWE documentation (Baker)
  • Ability to run canonical examples from website
    using user-set parameters (Kendig, Pedelty)
  • By 9/15/03
  • n-node (50K) cluster bundled with Milestone F
    software and documentation and delivered to USGS
    / NREL(SSAI, Dorband)

57
Big Problemor Problem, Large
  • Challenges
  • Produce a comprehensive distribution map for
    tamarisk on the Colorado watershed
  • Produce a comprehensive distribution map for
    cheat grass in Colorado and California
  • Task (Team) - Initial steps to be completed by
    12/31/03
  • Field data assessment acquisition (Crosier,
    Graham, Madsen)
  • RS data assessment acquisition (Morisette,
    Pedelty, Bruce)
  • Temporal / hyperspectral signature assessments
    (Morisette, Pedelty, Bruce)
  • Model assessment development (Stohlgren, Reich,
    Madsen, Moristte, Pedelty, Smith, Schnase)
  • Parallel algorithm/code assessment development
    (Pedelty, Morisette, Reich)
  • Problem definition, refinement, outreach, PR
    (Stohlgren, Smith, Schnase)
  • NASA/USGS Coordination (Groat, Birk, Sheffner,
    Cotter, Hazeltine, Gregg, Posson, Stohlgren,
    Schnase)
  • Fall geospatial modeling class at GSFC (Reich,
    Morisette)
  • Big Problem White Paper / Strategic Plan
    (Schnase, Stohlgren, Sheffner)

58
REASoN
  • Next steps
  • Negotiations?
  • When do we start?
  • Planning Meeting No. 1
  • (Schnase, Stohlgren, Smith, Pedelty, Morisette,
    Pfister, Frame, Graham, ???)
  • Staffing

59
Miscellaneous
  • Contact info
  • PPTs
  • Maui
  • ESA
  • USDA
  • NISC
  • Pubs

60
Invasive SpeciesScience Team Meeting
  • John L. Schnase
  • NASA Goddard Space Flight Center
  • Greenbelt, Maryland
  • Thomas J. Stohlgren
  • USGS National Institute of Invasive Species
    Science
  • Fort Collins, Colorado
  • 10 July 2003
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