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Vision for the 21 st Century Information Environment in Ecology (Ecoinformatics) Deana Pennington University of New Mexico LTER Network Office Shawn Bowers UCSD San Diego Supercomputer Center. If georeferenced. GIS Moderately large Complex formats. Data Types. - PowerPoint PPT Presentation
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Vision for the 21 Vision for the 21 st st Century Century Information Environment in Information Environment in Ecology (Ecoinformatics) Ecology (Ecoinformatics) Deana Pennington Deana Pennington University of New Mexico University of New Mexico LTER Network Office LTER Network Office Shawn Bowers Shawn Bowers UCSD UCSD San Diego Supercomputer Center San Diego Supercomputer Center
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Page 1: Data Types

Vision for the 21Vision for the 21stst Century Century Information Environment in Information Environment in Ecology (Ecoinformatics) Ecology (Ecoinformatics)

Deana PenningtonDeana PenningtonUniversity of New MexicoUniversity of New Mexico

LTER Network OfficeLTER Network Office

Shawn BowersShawn BowersUCSDUCSD

San Diego Supercomputer CenterSan Diego Supercomputer Center

Page 2: Data Types

Data TypesData Types

Field dataSmallComplex formatsHeterogeneous

ImageryMassiveSimple formatsContinuous spatial

Ground sensorsMassiveSimple formatsContinuous temporal

NEON Observatories: question driven data collection

Ecological Metadata Language (EML) ======

SEEK: large ITR projectSpatial Data Workbench:Small NPACI project

Wireless Sensor Workshop

GISModerately largeComplex formats

If georeferenced

Page 3: Data Types

InformationAcquisition,

Archival & Retrieval

Data Preprocessing

& ProductCreation

IntegratedData

Analysis&

Synthesis

InferenceFrom

Pattern

Information Technologies:

Analytical Analytical Domains:Domains:

Hardware, networksElectronic notebooks

Remote SensingWireless Sensors

MetadataDatabases & Query

Web designGrid technologies

Processing Pipelines

High-throughput processing

Expert systems

Semantic mediation

Data miningExploratory spatial data

analysisPattern

matchingVisualization

Computational Models

Genetic algorithmsCellular automata

Adaptive agents, et al.

Hardware, networksElectronic notebooks

Remote SensingWireless Sensors

MetadataDatabases & Query

Web designGrid technologies

Processing Pipelines

High-throughput processing

Expert systems

Semantic mediation

Data miningExploratory spatial data

analysisPattern

matchingVisualization

Computational Models

Genetic algorithmsCellular automata

Adaptive agents, et al.

SEEK Workflows

Spatial Data Workbench

Hardware, networksElectronic notebooks

Remote SensingWireless Sensors

MetadataDatabases & Query

Web designGrid technologies

Processing Pipelines

High-throughput processing

Expert systems

Semantic mediation

Data miningExploratory spatial data

analysisPattern

matchingVisualization

Computational Models

Genetic algorithmsCellular automata

Adaptive agents, et al.

EML

Wireless Sensors

Page 4: Data Types

Characteristics of Ecological DataCharacteristics of Ecological Data

Complexity/Metadata RequirementsComplexity/Metadata Requirements

SatelliteImages

DataDataVolumeVolume(per(perdataset)dataset)

LowLow

HighHigh

HighHigh

Soil CoresSoil Cores

PrimaryPrimaryProductivityProductivity

GISGIS

Population DataPopulation Data

BiodiversityBiodiversitySurveysSurveys

Gene Sequences

Business Data

WeatherStations

Modified from B. Michener

WirelessSensors

SEEK

Page 5: Data Types

Date Site picrub betpap 31Oct1993 1 13.5 1.6 14Nov1994 1 8.4 1.8

Date Site Species Area Count 10/1/1993 N654 PIRU 2 26 10/3/1994 N654 PIRU 2 29 10/1/1993 N654 BEPA 1 3

Field Data:Semantics

Modified from B. Michener, 2003

Date Site Species Density 10/1/1993 N654 Picea

rubens 13

10/3/1994 N654 Picea rubens

14.5

10/1/1993 N654 Betula papyifera

3

10/31/1993 1 Picea rubens

13.5

10/31/1993 1 Betula papyifera

1.6

11/14/1994 1 Picea rubens

8.4

11/14/1994 1 Betula papyifera

1.8

Page 6: Data Types

Remotely Sensed & Remotely Sensed & Ground DataGround Data

SatelliteSatelliteLandsat since 1972 Landsat since 1972

(multispectral)(multispectral)Ikonos (hyperspatial)Ikonos (hyperspatial)Hyperion (hyperspectral)Hyperion (hyperspectral)

AirborneAirborneAir photos (historical Air photos (historical

reconnaisance) reconnaisance) RadarRadarThermalThermalADAR (multispectral)ADAR (multispectral)Aviris (hyperspectral)Aviris (hyperspectral)

Ground dataGround dataField dataField dataAutomated sensorsAutomated sensorsWireless sensorsWireless sensors

Target

Rem

ote

ly s

en

sed

Page 7: Data Types

Remotely sensed images capture information continuous space, which can then be compared through time to derive events

Wireless sensors capture information at a continuous time, which can then be compared through space to derive spatial patterns

Event

t = 2

t = 1

t

tt

Event A Event A

Event A

Page 8: Data Types

History Repeats Itself…History Repeats Itself…

“…“…use of remotely sensed data…lagged for many use of remotely sensed data…lagged for many years. The reasons for this have little to do with the years. The reasons for this have little to do with the sophistication of remote sensing technology. Rather sophistication of remote sensing technology. Rather it has to do more with the ability to store, manage, it has to do more with the ability to store, manage, access and use the massive data produced by access and use the massive data produced by satellites, radar facilities and other remote sensing satellites, radar facilities and other remote sensing instruments. Without instruments. Without advanced information advanced information processingprocessing, it would take decades , it would take decades to compile and to compile and analyzeanalyze the incredible amounts of information that the incredible amounts of information that produced by many of these instruments.” produced by many of these instruments.”

-Dr. Rita Colwell, Director NSF, 1998-Dr. Rita Colwell, Director NSF, 1998

Page 9: Data Types

SensorsSensors Deployed Sensor NetworksDeployed Sensor Networks MetadataMetadata Security and Error ResiliencySecurity and Error Resiliency Cyberinfrastructure for Sensor NetworksCyberinfrastructure for Sensor Networks Analysis and VisualizationAnalysis and Visualization

EducationEducation OutreachOutreach Collaboration and PartneringCollaboration and Partnering

Environmental Cyberinfrastructure Needs for Distributed Sensor Networks: a Report from a NSF Sponsored Workshop (2003)

InformationAcquisition,

Archival & Retrieval

Data Preprocessing

& Product Creation

Integrated DataAnalysis &Synthesis

InferenceFrom

Pattern

Page 10: Data Types

Incorporating IT Incorporating IT Analytical Advances into Analytical Advances into

EcologyEcology

Grid TechnologiesGrid Technologies

Knowledge Knowledge Representation, Representation,

Semantics and OntologiesSemantics and Ontologies

Page 11: Data Types

The Semantic WebThe Semantic Web

Extend the current web with Extend the current web with “knowledge”“knowledge” and and “meaning”“meaning” for for

Better searchingBetter searching (that is, better answers to current (that is, better answers to current searches)searches)

Automated software toolsAutomated software tools that process web that process web information (comparison shopping, making information (comparison shopping, making appointments, and so on)appointments, and so on)

Proposes a new form of Proposes a new form of web contentweb content,, which uses which uses ontologies ontologies and and knowledge representationknowledge representation techniquestechniques

Page 12: Data Types

The Semantic Web The Semantic Web [Sci. Am., [Sci. Am., May ‘01, Berners-Lee]May ‘01, Berners-Lee]

Semantic-Web Agent

Find physical therapistfor mom using my schedule

get openings

get physicianprescription

get possible providersand availability

get locations

Return provideravailable within 10 miles of location

“Mom needs to see a specialist for a series of physical therapy sessions – can you take her?”

Page 13: Data Types

Semantic Web Semantic Web Architecture (RDF)Architecture (RDF)

The The Resource Description Framework Resource Description Framework (RDF), (RDF), which is a language to:which is a language to:

Define Define standard ontologiesstandard ontologies AnnotateAnnotate web-pages with Semantic-Web web-pages with Semantic-Web

content content

Ultimately, tools … to exploit semantic Ultimately, tools … to exploit semantic mark upmark up

Web-crawlers, search engines, personal agentsWeb-crawlers, search engines, personal agents

Page 14: Data Types

RDF / RDF SchemaRDF / RDF Schema

An RDF Schema (or OWL) An RDF Schema (or OWL) ontologyontology

Serves as a common set of terms (a Serves as a common set of terms (a vocabularyvocabulary) with ) with relationshipsrelationships and and constraintsconstraints

Can be Can be publishedpublished as Web-content using RDF (for as Web-content using RDF (for others to use)others to use)

worksAtcoversInsuranceProvider

InsuranceProvider PhysicanPhysican

PhysicalTherapistPhysicalTherapist

MedicalFacilityMedicalFacility LocationLocation

locatedAt

Page 15: Data Types

RDF / RDF SchemaRDF / RDF Schema

With RDF, this Web-page With RDF, this Web-page can be annotated using the can be annotated using the ontologyontology

worksAtcoversInsuranceProvider

Physican

PhysicalTherapist

MedicalFacility

LocationlocatedAt

BlueCrossBlueCross Dr. HartmanDr. Hartman UniversityHospital

UniversityHospital

555 Univ.Drive …

555 Univ.Drive …

covers worksAt locatedAt

Page 16: Data Types

RDF / RDF SchemaRDF / RDF Schema

Annotations provide access to Annotations provide access to the meaningful, or semantic the meaningful, or semantic content of the Web-pagecontent of the Web-page

worksAtcoversInsuranceProvider

Physican

PhysicalTherapist

MedicalFacility

LocationlocatedAt

BlueCross Dr. HartmanDr. HartmanUniversityHospital

555 Univ.Drive …

covers worksAt locatedAt

Which Physical Therapists workAt a Facility within Location X?

Which Physical Therapists workAt a Facility within Location X?

Page 17: Data Types

SEEK and the Semantic SEEK and the Semantic WebWeb

We want to build technology using Semantic-We want to build technology using Semantic-Web standards to …Web standards to …

… … explore the use of semantics to help explore the use of semantics to help scientists deal with heterogeneityscientists deal with heterogeneity Define standard Define standard ecological ontologiesecological ontologies Automate dataset and analytic-step Automate dataset and analytic-step discoverydiscovery, ,

exchangeexchange, and , and integrationintegration Help researchers construct and reuse Help researchers construct and reuse scientific scientific

workflowsworkflows, for example, for ecological modeling, for example, for ecological modeling

Page 18: Data Types

SEEK SEEK EcoGridEcoGrid

Pipeline

Pipeline

1. Question of interest2. Query EcoGrid for workflows (ontologies)3. Query EcoGrid for data (ontologies & semantic mediation)4. SRB optimizes and runs analysis5. Get results…archive to EcoGrid

Working Groups:1. EcoGrid2. Semantic mediation & KR3. Analysis & Modeling4. Taxon5. BEAM6. EOT

60 Gigabits/second

Resources (data & computational)Managed by Storage Resource Broker (SRB)

Page 19: Data Types

EcoGridEcoGrid

Analytical Services

Matt Jones, 2003Data Services(includes analytical libraries)

Storage Resourc

e Broker

1. Node Registry• Web service: XML standards, SOAP/WSDL protocols• Data: REQUIRES standard metadata (EML and others)• Workflows: standard workflow metadata?

Page 20: Data Types

Overview of Overview of architecturearchitecture

SEEK Components

Page 21: Data Types

Benefits to UsersBenefits to Users ScientistsScientists

Access to high end computing Access to high end computing technologiestechnologies

Better integration of all relevant Better integration of all relevant datadata

Workflow standardization and Workflow standardization and analysisanalysis

Time and resource efficiencyTime and resource efficiency Reusable analytical steps & Reusable analytical steps &

workflowsworkflows

StudentsStudentsImproved access to knowledge baseImproved access to knowledge base

Environmental ManagersEnvironmental ManagersAccessibility to current scientific Accessibility to current scientific

approachapproach

Policy makersPolicy makersTimely input to decision makingTimely input to decision making

Formal documentation of Formal documentation of methods methods

(output in report format)(output in report format)Reproducibility of methodsReproducibility of methodsVisual creation and Visual creation and communication of methodscommunication of methodsVersioningVersioningAutomated data typing and Automated data typing and transformationtransformation

Page 22: Data Types

SEEK: ENM workflowsSEEK: ENM workflows

EcoGridDataBase

EcoGridDataBase

EcoGridDataBase

EcoGridDataBase

Training sample

GARPrule set

Test sample

Species pres. & abs.

points

EcoGridQuery

EcoGridQuery

LayerIntegration

SampleData

+A3+A2

+A1

DataCalculation

MapGeneration

Validation

User

Model qualityparameters

Native range prediction map

Env. layers

GenerateMetadata

ArchiveTo Ecogrid

Selectedprediction

maps

PhysicalTransformatio

n

Scaling

Integrated layers

Integrated layers

GARPrule set

Species pres. & abs.

points

Page 23: Data Types

Analytical Pipelines Analytical Pipelines Sloan Digital Sky Project: Sloan Digital Sky Project:

Mapping the Universe Mapping the Universe

“The raw data…are fed through data analysis software pipelines…to extract about 400 attributes for each celestial object…These pipelines embody much of mankind’s knowledge of astronomy.” Szalay et al., 2001

Page 24: Data Types

Training sample

GARPrule set

Test sampleSpecies

pres. & abs. points

EcoGridQuery

LayerIntegration

SampleData

+A3+A2

+A1

DataCalculation

MapGeneration

Validation

User

Model qualityparameters

Native range prediction map

Env. layers

GenerateMetadata

ArchiveTo Ecogrid

Selectedprediction

maps

PhysicalTransformatio

n

Scaling

Integrated layers

Integrated layers

GARPrule set

Species pres. & abs.

points

Species Distribution Species Distribution PipelinePipeline

AcousticSignal

ProcessingPipeline

Remotely sensed data (land cover class, etc.)Ground sensor data (climate, etc.)

Image Processing

Pipeline

InterpolationPipeline

Page 25: Data Types

Analytical Pipelines: Analytical Pipelines: SDWSDW

SRB/MCAT

HPSS @ SDSCRemotely Sensed

Imagery

Climate

Ground truth

Site Field Observations

Georegistration

DataTransformation

UnsupervisedClassification

BandIndices

Land Cover(Patch) Metrics

Band Selection

SupervisedClassification

Segmentation

Climate/Land Cover Integrated Graphics

Maps

Exploratory analysisVegetation patternsVegetation dynamicsModel parameterization

RadiometricCorrections

Page 26: Data Types

BiomedicBiomedical al

InformatiInformatics cs

Research Research NetworkNetwork

T. Kapur, et al., 1998; Tina Kapur, 1999.

Segmented images

Registration

Statistical Classification

Template Distance Transforms

Brain atlas

PrototypesGrey value images

Surgical Planning Laboratory, 2001

Kikinis et al., 2001

Page 27: Data Types

Society for Industrial and Society for Industrial and Applied Mathematics Applied Mathematics (SIAM) Conference on (SIAM) Conference on Imaging Science, 2004Imaging Science, 2004

CONFERENCE THEMES CONFERENCE THEMES Image acquisition Image acquisition Image reconstruction and Image reconstruction and

restoration restoration Image storage, compression, and Image storage, compression, and

retrieval retrieval Image coding and transmission Image coding and transmission PDEs in image filtering and PDEs in image filtering and

processing processing Image registration and warping Image registration and warping Image modeling and analysis Image modeling and analysis Statistical aspects of imaging Statistical aspects of imaging Wavelets and multiscale analysis Wavelets and multiscale analysis Multidimensional imaging sciences Multidimensional imaging sciences Inverse problems in imaging Inverse problems in imaging

sciences sciences Mathematics of visualization Mathematics of visualization Biomedical imaging Biomedical imaging Applications Applications

“By their very nature, these challenges cut across the disciplines of physics, engineering, mathematics, biology, medicine, and statistics.”

Why not ecology and environmental science?

Page 28: Data Types

OntologiesOntologies

GenericImage/SignalOntologies

AstrophysicsOntology

Digital FilmOntology

And many others…BiomedicalOntology

Ecology Ontology•Landscape Ecology•Land Managers•Soil science•Etc.

Page 29: Data Types

Landscape Ecology Landscape Ecology ExampleExample

Method OntologiesPixel calc

ClassificationSegmentation

StructuralOntologies

PhysicalOntologies

Generic Image Ontologies

Atm CorrLand cover class

Patch ID

Patch metrics

TM EMR 7 bandsHDF Place/date

Calibrations

Domain Ontologies

Modified from Camara et al. (2001)

Page 30: Data Types

So far….So far….

Grid TechnologyGrid TechnologyEcoGrid vs semantic webEcoGrid vs semantic web

Analytical pipelines/WorkflowsAnalytical pipelines/WorkflowsSensors: generic vs domain specificSensors: generic vs domain specificReuse of actors/workflowsReuse of actors/workflowsWorkflow metadata and reportingWorkflow metadata and reporting

Ontologies/Semantic MediationOntologies/Semantic MediationQuery EcoGrid for workflowsQuery EcoGrid for workflowsQuery EcoGrid for data to fit the selected Query EcoGrid for data to fit the selected

workflow(s)workflow(s)Integration of heterogenous data typesIntegration of heterogenous data types

Page 31: Data Types

Data MiningData Mining-finding interesting -finding interesting

patternspatternsVisualizationVisualization

-showing interesting -showing interesting patternspatterns

Exploratory Data Analysis

Page 32: Data Types

NDVI at NDVI at SevilletaSevilleta

TMAVHRRMODIS

1989 90 91 92 93 94 95 96 97 98 99 00 01 2002

AVHRR: 1 x 1 km pixels, 14 years * 26 images/year * 1824 pixels = 663,936 data pointsTM: 30 x 30m pixels, 14 years * 2 images/year * 65,260 pixels = 1,827,280 data points

if 20 images/year => 18,272,800 data points if 30 years => 39,156,000 data points

Page 33: Data Types

Spatiotemporal Analysis & Spatiotemporal Analysis & Vis: Drought EffectsVis: Drought Effects

1999

2000

2001

2002

July 16-29 July 30-12 Aug 13-26 Aug 27-9 Sep 10-23

Page 34: Data Types

Spatiotemporal Analysis & Spatiotemporal Analysis & Vis: Drought EffectsVis: Drought Effects1989 90 91 92 93 94 95 96 97 98 99 00 01 2002

Year

B

A

SpringSummer/Fall

0

20

40

60

80

100

120

140

1609 10 11 12 15 17 19 20 21 9 14 15 16 19 9 15 16 17 10 12 13 14 16 17 16 17 18 19 22 9 11 12 11 19 12 14 18 19 21 9 12

13

14

15

16

17

18

19 20 21 22 9 10 11 12 13 14 15 16 17 18 19

1989 1990 19911993 1994 1995 1996 1999 2000 2001 2002

N

S

Sum of count

year period

group

C

0

160

Count

NorthSouth

Year

1989 90 9193 94 95 96 99 00 01 2002

S F S F SF F S F F S SF S F S F S F

S = SpringF = Summer/Fall

Percentof allcells

Percentof allcells

1989 90 91 92 93 94 95 96 97 98 99 00 01 2002Year

B

A

SpringSummer/FallSpringSummer/Fall

0

20

40

60

80

100

120

140

1609 10 11 12 15 17 19 20 21 9 14 15 16 19 9 15 16 17 10 12 13 14 16 17 16 17 18 19 22 9 11 12 11 19 12 14 18 19 21 9 12

13

14

15

16

17

18

19 20 21 22 9 10 11 12 13 14 15 16 17 18 19

1989 1990 19911993 1994 1995 1996 1999 2000 2001 2002

N

S

Sum of count

year period

group

C

0

160

Count

NorthSouthNorthSouth

Year

1989 90 9193 94 95 96 99 00 01 2002

S F S F SF F S F F S SF S F S F S F

1989 90 9193 94 95 96 99 00 01 2002

S F S F SF F S F F S SF S F S F S F

S = SpringF = Summer/Fall

Percentof allcells

Percentof allcells

Page 35: Data Types

Linking and Linking and BrushingBrushing

Visualization : Investigating cancer incidence and risk factors. From GeoVista Studio, Penn State University.

Page 36: Data Types

Hyperspectral Imagery = Hyperspectral Imagery = 224 bands224 bands

AVIRIS hyperspectral data cube

> 50 gigabytes of raw data per acquisition

Page 37: Data Types

TrueColor

FalseColor

Hyperspectral ExampleHyperspectral ExamplePavement

AgricultureClouds

AridUpland

Riparian

River

300 pixels6 km

300 pixels * 300 pixels * 224 bands = 20,160,000 data points

Page 38: Data Types

192 training pixels, 7 mislabeled, out of 90,000 total pixels

*low % training pixels*errors in training set

Training Samples Testing Samples

Limited Set

Full Set

Legend

Label Error

Land Cover Class

CloudsRiverRiparianArid UplandSemi-arid UplandPavementAgricultureBarren

Limited Set:

Page 39: Data Types

Supervised ClassifiersSupervised Classifiers

Band 1

Ban

d 2

Class 1

Class 2

x

ClassMeans

ProbabilityContours

EuclideanDistance

x Pixel to be classified

Support Vector MachineHyperplane

Page 40: Data Types

Limited Sample SetLimited Sample SetA) ML 89.4%

D) MD 69.4%

B) NBN 83.3%

C) SVM 77.2%

ML = Maximum LikelihoodNBN = Naïve Bayesian NetworkSVM = Support Vector MachineMD = Minimum Distance

CloudsRiverRiparianAgricultureArid UplandBarrenPavement

Page 41: Data Types

Full Sample SetFull Sample SetA) ML 96.4%

D) MD 88.4%

B) NBN 90.9%

C) SVM 72.9%

ML = Maximum LikelihoodNBN = Naïve Bayesian NetworkSVM = Support Vector MachineMD = Minimum Distance

CloudsRiverRiparianAgricultureArid UplandSemi-arid UplandBarrenPavement

Page 42: Data Types

Data Mining ChallengesData Mining ChallengesBiomedical DataBiomedical Data Large sample setsLarge sample sets Few correlates (dozens)Few correlates (dozens) Hard classesHard classes

Ecologic DataEcologic Data Paucity of accurate reference dataPaucity of accurate reference data Spatial autocorrelationSpatial autocorrelation Large number of potential Large number of potential

correlatescorrelates Fuzzy classesFuzzy classes UncertaintyUncertainty

Page 43: Data Types

Basic Research NeedBasic Research Need

Spatiotemporal analysis & Spatiotemporal analysis & visualization techniques that visualization techniques that explicitly deal with these explicitly deal with these challengeschallenges

EcoGrid archive of ground truth EcoGrid archive of ground truth data and the ontologies that will data and the ontologies that will allow us to semantically mediate allow us to semantically mediate the classesthe classes

Page 44: Data Types

Where do we start?Where do we start?

Field data

Imagery

Ground sensors

SEEK: infrastructure

Spatial Data Workbench:Small NPACI project

Wireless Sensor Workshop

Page 45: Data Types

Pipeline

Pipeline

Future Future Systems: Link Systems: Link

with SEEKwith SEEK

EcoGridQuery

LayerIntegration

SampleData

+

DataCalculation

MapGeneration

Validation

User

GenerateMetadata

ArchiveTo Ecogrid

ModelsCompetitionConnectivityClimateUrban expansionEt al.

SRB/MCAT

HPSS @ SDSCRemotely Sensed

Imagery

Climate

Ground truthSite Field Observations

Georegistration

DataTransformation

UnsupervisedClassification

BandIndices

Land Cover(Patch) Metrics

Band Selection

SupervisedClassification

Segmentation

Climate/Land Cover Integrated Graphics

Maps

RadiometricCorrections

Unspecified ground sensor pipeline

Semantic transformationto integrate field data

ImageOntologies

AlgorithmOntologies

GeographicOntologies

Spatial &TemporalOntologies

Signal ProcessingOntologies

DomainOntologies

Page 46: Data Types

We start with you!We start with you!

Metadata

Databases

Data Sharing

Computer savvy

Page 47: Data Types

End!End!

Page 48: Data Types

1.Build a generic image and signal processing knowledge base

2.Develop actors for these functions3.Build knowledge bases for domains of

interest, and relate them to the generic• ENM pipelines• NEON competition• Hazards (fire, flood, drought, disease)

4.Develop processing pipelines5.Identify sensor (image and signal) data and

analytical resources, convert them to web services

6.When EcoGrid is ready, register them as nodes

Incorporating sensor Incorporating sensor processingprocessing

Page 49: Data Types

National Center?National Center?

Multidisciplinary staffMultidisciplinary staff Working groups (4-6 weeks)Working groups (4-6 weeks) Multidisciplinary postdocsMultidisciplinary postdocs Summer school in Summer school in

ecoinformaticsecoinformatics


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