C-MORE Schofield Lecture 1

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    Themes-Some of the new technologies your generation will have

    -There are MANY UNKNOWN UNKNOWNS-Automation is coming

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    GSFC, NASA

    Color variability at multiple scalesaround Tasmania from CZCS

    (winds? currents? bottom topography?)

    Simulations of required numbemoorings to predict THE SIGN

    cross shelf carbon transport

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    Sunday, July 1, 12

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    Rumsfeld Unknown unknownsSunday, July 1, 12

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    Scott

    Glenn

    Josh

    Kohut

    Oscar

    Schofield

    HOW WE ARE TRAINED TO GO TO SEA

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    Ocean is hard to sample

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    AutosubSouthampton Oceanography Center UK

    HuginKongsberg Simrad, Norway

    Martin-600

    Maridan, Denmark

    Explorer family,

    ISE research, Canada

    Odyssey,

    Bluefin Robotics,

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    Slocum gliders

    Seaglider

    Spray

    C-Scout

    Mauve

    Gavia

    REMUS

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    Longitude(~2km)

    Dep

    th(m)

    0

    15

    1E10 biolumi

    3E10 biolumi

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    Longitude(~2km)

    Dep

    th(m)

    0

    15

    1E10 biolumi

    3E10 biolumi

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    Longitude(~2km)

    Dep

    th(m)

    0

    15

    1E10 biolumi

    3E10 biolumi

    Depth(m)

    Latitude(~300m)

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    MVCO/CBLAST

    SW06

    LaTT

    E

    ESPr

    eSSO

    /MAR

    COOSDelaware

    NENA

    Cuba

    toGr

    andB

    anks

    (nes

    tedw

    ithin

    HyCO

    M

    orMe

    rcat

    or)

    MAB-

    GoM

    (Hatt

    eras

    toHa

    lifax

    )

    Hudson River

    Nested Ocean Models

    + =

    S4DVAR procedure

    Lagrangefunction

    Lagrangemultiplier

    At extremaof , we require:

    S4DVAR procedure:

    (1) C ho os e an

    (2) Integrate NLROMS and computeJ

    (3) Integrate ADROMS to get

    (4) C om pu te

    (5) Use a descent algorithm to determine a down gradientcorrection to that will yield asmallervalue ofJ

    (6) Back to (2)untilconverged

    ( )

    ( )

    1

    1

    0 ( ) 0

    0 0

    0 (0) (0) 0 &(0)

    0 ( ) 0 . .( )

    ii i

    i

    T

    Tii im m m

    i

    b

    dLNLROMS

    dt

    dLADROMS

    dt

    Lcoupling of NL ADROMS

    Lic of ADROMS

    = =

    = =

    = =

    = =

    xN x F

    N H O Hx y

    x x

    B x x x

    x

    1

    ( ) ( )N

    T ii i i

    i

    dL J

    dt=

    = +

    xx N x F ( )i i t= F F

    ( )i i t x x

    ( ) ( )i it i t

    L

    (0) b=x x

    [0, ]t [ ,0]t (0)

    ( )1 (0) (0)(0)

    b

    J =

    B x x x

    (0)x

    Nested Models Data Assimilation 4-D Forecasts

    + =

    3-D NowcastsRemote SensingRobots

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    Sargasso Sea

    Front Sargasso SeaFront SaFrCold Core

    Eddy Cold CoreEddyCold Core

    EddyWarm Core

    Remnant Warm CoreRemnant WRe

    Lets say you are hunting whales

    Knowledge of the environment will give you a tactical advantageKnowledge of future environment will give you a bigger tactical advanta

    No in situ datainto the model

    BSP in situ datainto the model

    Gliders (4)into the

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    Contributed Assets:

    HF Radar NetworksUSF, USM

    GlidersiRobot, Mote, Rutgers,

    SIO, UDel, USF, Navy

    Drifters & ProfilersHorizon Marine, Navy

    Satellite ImageryCSTARS, UDel

    Ocean ForecastsNavy, NCSU

    Data/Web Services

    ASA, Rutgers, SIO

    USM HFR validation of SABGOM Forecastin region with satellite detected oil slicks

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    Hurricane IreneAugust 2011

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    Get offthe

    damnbeach!!

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    Sunday, July 1, 12

    T Glid

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    Two Gliders

    Deployed by MARACOOS

    in Hurricane Irene

    RU16Deployed for EPA.Map bottom dissolvedoxygen.

    Provided data onmixing during storm.

    RU23Deployed for MARAMap subsurface T/Sstructure for fisheries

    Damaged early - drRecovered by fisherProvided data on inecurrents during storm

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    salinity

    % oxygen

    temperature55

    55

    0

    0

    55

    depth

    depth

    depth

    8/12 date

    0

    Hurricane IrHurricane Irene

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    weather

    mixingactual

    water column

    physicsMean

    water column

    hydrography

    2nd and highertrophic levels

    phytoplankton

    OPTICAL

    PROPERTIES

    sediment

    CDOM

    Detritus

    light

    nutrients

    rivers

    In situ

    Acoustic

    Field

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    weather

    mixingactual

    water column

    physicsMean

    water column

    hydrography

    2nd and highertrophic levels

    phytoplankton

    OPTICAL

    PROPERTIES

    sediment

    CDOM

    Detritus

    light

    nutrients

    rivers

    In situ

    Acoustic

    Field

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    weather

    mixingactual

    water column

    physicsMean

    water column

    hydrography

    2nd and highertrophic levels

    phytoplankton

    OPTICAL

    PROPERTIES

    sediment

    CDOM

    Detritus

    light

    nutrients

    rivers

    In situ

    Acoustic

    Field

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    weather

    mixingactual

    water column

    physicsMean

    water column

    hydrography

    2nd and highertrophic levels

    phytoplankton

    OPTICAL

    PROPERTIES

    sediment

    CDOM

    Detritus

    light

    nutrients

    rivers

    In situ

    Acoustic

    Field

    Sunday, July 1, 12

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    weather

    mixingactual

    water column

    physicsMean

    water column

    hydrography

    2nd and highertrophic levels

    phytoplankton

    OPTICAL

    PROPERTIES

    sediment

    CDOM

    Detritus

    light

    nutrients

    rivers

    In situ

    Acoustic

    Field

    Sunday, July 1, 12

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    CDOM

    Backscatter

    Ed491 (nm) 20

    10

    0

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    weather

    mixingactual

    water column

    physicsMean

    water column

    hydrography

    2nd and highertrophic levels

    phytoplankton

    OPTICAL

    PROPERTIES

    sediment

    CDOM

    Detritus

    light

    nutrients

    rivers

    In situ

    Acoustic

    Field

    Sunday, July 1, 12

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    weather

    mixingactual

    water column

    physicsMean

    water column

    hydrography

    2nd and highertrophic levels

    phytoplankton

    OPTICAL

    PROPERTIES

    sediment

    CDOM

    Detritus

    light

    nutrients

    rivers

    In situ

    Acoustic

    Field

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    Sunday, July 1, 12

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    SST

    CHL

    CHL

    Schofield et al 2002Glenn & Schofield 2003 Glenn & Schofield 2009

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    Hypoxia& Anoxia

    Sunday, July 1, 12

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    Hypoxia& Anoxia

    ScottGlenn

    JoKo

    RobertChant

    JohnWilkin

    Sunday, July 1, 12

    July 6, 98 - AVHRR July 11, 98 - SeaWiFS

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    40N

    74W75W

    39N

    Temperature oC

    19 20 21 22 24

    y ,

    Field

    Station

    LEO

    74W75W

    Field

    Station

    Chlor-a (mg/m3)

    .1 .3 .5 1 2 4

    y ,

    LEO

    Historical

    Hypoxia/Anoxia

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    A)

    1 m s-1

    North

    Barnegat

    deltaCape May

    delta

    LEO

    delta

    T

    wind

    D) 8/5/93CTD Transect

    B)

    C)

    E)

    F) CODAR & SS

    Song et al(JGR) 2002

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    30 X 30 km LEO CPSE

    An Integrated ObservatorySunday, July 1, 12

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    Month Long Experimental Effort

    2001 Real-time Ensemb

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    July, 200118 19 20 21

    2

    4

    6

    8

    10

    12

    Depth(m)

    Thermistor2

    4

    6

    8

    10

    12

    Depth(m)

    July, 200118 19 20 21

    HR COAMPS / ROMS

    KPP

    2

    4

    6

    8

    10

    12

    Depth(m)

    July, 200118 19 20 21

    MY2.5

    -In an observationally richenvironment, ensemble forecas

    can be compared to real-time da

    to assess which model is closer to r

    and try to understand why.

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    Sunday, July 1, 12

    Shipboard surveys

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    p y

    Sunday, July 1, 12

    Adaptive Sampling of Resolved Scales Shipboard & AUV surveys

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    North

    South

    15m

    6

    North

    Fluorometer

    South, offshore flow

    Adaptive Sampling of Resolved Scales- Shipboard & AUV surveys

    North

    Velocity

    Sunday, July 1, 12

    Optical profiler deployed on LEO-15 guest port

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    Depth(m)

    1

    12

    6

    600 30

    Time (hr)

    Absorptiona

    t

    440nm(

    m-1

    )

    1.0

    0

    Tidal cycle Upwelling

    p p p y g p

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    Aug 5, 2012Sunday, July 1, 12

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    r2 = .95

    r2 = .74

    POC represents potentially

    182 mol oxygen/kgUpwelling can account

    For spatially distribution

    of recurrent upwelling eddies

    Sunday, July 1, 12

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    Science focus Land-Ocean: How does the dynamoceanography influence the transport and trans

    particulate and dissolved matter in coastal b

    Geyer and

    Downwelling Upwelli

    Southern flowing

    turbid plume

    Eastern offshore

    shallow turbid

    Sunday, July 1, 12

    Input of organic matter is pulsed to coastal system as floods and punctuat

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    tidal squirts. Example, a tidal bore as it flows past the R/V Cape Hatter

    Salinity

    Sunday, July 1, 12

    HF RADAR tracking and dye labeling of plume

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    Wind data from NOAA NDBC station at Ambrose Light

    g y g

    Sunday, July 1, 12

    HF RADAR tracking and dye labeling of plume

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    Wind data from NOAA NDBC station at Ambrose Light

    Sunday, July 1, 12

    HF RADAR tracking and dye labeling of plume

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    Wind data from NOAA NDBC station at Ambrose Light

    Sunday, July 1, 12

    HF RADAR tracking and dye labeling of plume

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    Wind data from NOAA NDBC station at Ambrose Light

    Sunday, July 1, 12

    HF RADAR tracking and dye labeling of plume

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    Wind data from NOAA NDBC station at Ambrose Light

    Sunday, July 1, 12

    HF RADAR tracking and dye labeling of plume

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    Wind data from NOAA NDBC station at Ambrose Light

    Sunday, July 1, 12

    HF RADAR tracking and dye labeling of plume

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    Wind data from NOAA NDBC station at Ambrose Light

    Sunday, July 1, 12

    HF RADAR tracking and dye labeling of plume

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    Wind data from NOAA NDBC station at Ambrose Light

    Sunday, July 1, 12

    HF RADAR tracking and dye labeling of plume

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    Wind data from NOAA NDBC station at Ambrose Light

    Sunday, July 1, 12

    HF RADAR tracking and dye labeling of plume

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    Wind data from NOAA NDBC station at Ambrose Light

    Sunday, July 1, 12

    HF RADAR tracking and dye labeling of plume

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    Wind data from NOAA NDBC station at Ambrose Light

    Sunday, July 1, 12

    HF RADAR tracking and dye labeling of plume

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    Wind data from NOAA NDBC station at Ambrose Light

    Sunday, July 1, 12

    HF RADAR tracking and dye labeling of plume

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    Wind data from NOAA NDBC station at Ambrose Light

    Sunday, July 1, 12

    HF RADAR tracking and dye labeling of plume

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    Wind data from NOAA NDBC station at Ambrose Light

    Sunday, July 1, 12

    )New Plume Old Plume

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    0

    1

    2

    3

    4

    5

    4/17/2005 4/18/2005 4/19/2005Date

    0

    2468

    101214

    4/10/20054/11/20054/12/20054/13/2005

    Date

    Pr

    oductivity

    (mgC/m^3/hr) Old Plume

    0

    0.2

    0.4

    0.6

    0.8

    1

    %

    carbonfixed

    > 20 um

    2 - 20 um

    < 2 um

    Stephanopyxis sp.

    Thalassiosira

    Lauderia

    Skeletonema

    Sunday, July 1, 12

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    Ocean

    Hudson Bay

    Salinity

    Perce

    ntOxygenSatu

    ration

    undersaturated

    superstaurated

    LATTE April 2005

    Sunday, July 1, 12

    >20 m particulate trace metals and phosphorus - Ag, Al, Cr, Cu, Fe, P, Pb

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    salinity

    50 ng L-1

    (Al, Fe, P g L-1;

    Ag x 10, Al x 5, P x 10)

    Sunday, July 1, 12

    Freshwater Plume Moves Out Across the Shelf

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    Hudson Shelf Valley

    Sunday, July 1, 12

    LaTTE 2005 -Post Injection 2 Final shipboaf l h ff h

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    After luring the Cape Hatteras offshore.

    The survey began on the HigWe were near the glider when

    surfaced. We saw currents rsouthward in a 10 m thick layefreshwater along the highway perhaps the most significantfreshwater transport we saw aweek.

    Perhaps the most perpleme is the Highway and why thhas been a lack of a strong cotrapped flow this week.

    --- Bob Chant aboard the CaHatteras, April 21, 2005

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    Castaleo et al . 2008, 2010

    MAdo

    hydrog

    Tempeextreme

    on

    Salininsh

    Sunday, July 1, 12

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    january december

    EOF2

    january december

    SSTPAR

    Sunday, July 1, 12

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    EOF1: Winter (Nov-Feb)

    EOF2: Spring (March-June)

    EOF 1

    EOF 2

    a

    c

    Yi et

    Sunday, July 1, 12

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    M

    aximum

    winterc

    hlorophyll

    concent ration

    Percent of sto

    5

    020

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    Yi et al su

    Sunday, July 1, 12

    WHERE DO WE GO FROM HERE?

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    WHERE DO WE GO FROM HERE?

    Sunday, July 1, 12

    WHERE DO WE GO FROM HERE?

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    WHERE DO WE GO FROM HERE?

    Machines have improved

    A technicians solutionin integrating the observatory

    components

    Sunday, July 1, 12

    WHERE DO WE GO FROM HERE?

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    O GO O

    Machines have improved

    A technicians solutionin integrating the observatory

    components

    People need to sleepand are fragile

    Humans become thebottle neck for

    collecting data bytes

    Sunday, July 1, 12

    WHERE DO WE GO FROM HERE?

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    Machines have improved

    A technicians solutionin integrating the observatory

    components

    People need to sleepand are fragile

    Humans become thebottle neck for

    collecting data bytes

    Scientiststo t

    Oscar reinteg

    society aftexper

    Sunday, July 1, 12

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    Science Community Workshop 1 5

    Observatory (simulated) data

    Virtual Ocean

    Design, Testing and Deploy

    Models

    Data Assimilatio

    Data

    Analysis

    Science Questions & Drivers

    ~100 m

    ~3 km

    Sensor &

    Platform

    Data Synthesis: Nowcast & Data Impact

    Idea of Test(May 2009)

    Virtual Test(Sep 2009)

    Wet Test(Nov 2009)

    Sunday, July 1, 12

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    Scientists were distributed throughout the country & interacted i

    Community Blog

    Data Portal

    Sunday, July 1, 12

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    Weath

    Sunday, July 1, 12

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    5 differentsatellitesensors

    Sunday, July 1, 12

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    Model A Model B

    Model CModel D

    5 ocean numericalmodels run in

    forecast mode:

    2 versions of ROMS2 versions of HOPs

    1 version of POM

    Sunday, July 1, 12

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    EnsembleModel

    SST Obs.

    Scientists could compare observations (single platform or means) with models (individua

    Sunday, July 1, 12

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    The same for in situ measurements

    Science Community Workshop 1 13

    Model A Model B Model C Model D

    Sunday, July 1, 12

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    Ensemble meanmodel

    Variancecom

    Variancecom

    Sunday, July 1, 12

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    Known constraints (slow0.5 knot, Battery, shippinglanes)

    Uncertain constraints (time-varying 3D currents)

    Operate autonomously &re-plan daily

    From A to B in theshortest time

    Follow a time-varyingfeature (shelf-slopesalinity intrusion)

    Sunday, July 1, 12

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    Scientificcommunity

    Maropera

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    Distributed decisionmaking

    using live webservice tools

    Sunday, July 1, 12

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    Increase model resolution Reduce forecast error

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    Science Community Workshop 1 2626

    Science

    Agents

    Science Event Manager

    Processes alerts andPrioritizes response observations

    ASPEN

    Schedules observations on EO-1

    EO-1 Flight Dynamics

    Tracks, orbit, overflights,

    momentum management

    Science

    Alerts

    Observation

    Requests

    Updates to

    onboard plan

    Science

    Campaigns

    Scientists

    Hyperion

    on EO-1

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    Hyperion on EO-1

    7.5 km by 100 km(30 m resolution)

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