Ecosystem Structure Working Group Report to the Terrestrial Ecology Business Meeting October 6, 2011 Ralph Dubayah University of Maryland, College Park.

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Presentation transcript:

Ecosystem Structure Working Group Report to the Terrestrial Ecology Business Meeting October 6, 2011 Ralph Dubayah University of Maryland, College Park Forrest Hall University of Maryland, Baltimore Campus & NASA/GSFC 1

Outline ■ Overview of ESWG ■ Mission Development and Support ■ Field Activities ■ Publications on Ecosystem Structure Requirements and Science ■ Potential Activities with European Scientists ■ Upcoming Meetings 2

Overview of ESWG ■ ESWG meets on as needed basis ■ Teleconferences about once per month (with large gaps)  Membership comprised mostly of TE scientists actively engaged in remote sensing of structure ■ Provides community guidance and input to TE program manager  Guidance on mission science requirements  Assistance developing and executing field experiments in support of TE goals  Ad hoc analyses in support of specific TE objectives as asked  e.g. effects of off-nadir pointing on lidar ■ Updates to TE program on funded and unfunded activities of relevance to ecosystem structure ■ Forum for interchange of ideas 3

DESDynI Status and Activities ■ ESWG and DESDynI Science Steering Group (DSSG) undertook many activities for DESDynI  Evaluation of one vs. two platforms  Evaluation of combined ICESAT-2/DESDynI lidar (LIVEx)  Planning and execution of airborne field experiments and algorithm assessment  Development of Level 1 Science requirements  Publication of two special issues (RSE & JGR-A)  Publication of two papers on requirements (biomass & biodiversity ■ President’s FY12 Budget Proposal (February 2011) reset DESDynI  Lidar segment deleted (NASA should seek contribution)  Radar mission to be implemented more affordably ■ Mission now called DESDynI-R 4

NASA’s Proposed DESDynI* Mission *DESDynI - Deformation, Ecosystem Structure, and Dynamics of Ice Radar designs for proposed DESDynI mission being studied in pre-Phase A L-band 5-80 MHz BW Quad-pol Radar 9-15 m mesh reflector element transmit and receive array dual-pol receive channels km swath, full res, full-pol Better than -25 dB NES0 at 20 MHz BW TDRSS downlink Pre-decisional – for Planning and Discussion Purposes Only

January 2011 MCR DESDynI Concept Biomass Canopy Height Surface Deformation Geo-Hazards Water Resource Management Ice velocity, thickness Response of ice sheets to climate change & sea level rise Biomass, Vegetation Structure, Effects of changing climate on habitats and CO 2,, disturbance Pass 2Pass 1 Multibeam Profiling LIDAR L-band Polarimetric SAR L-band Repeat Pass InSAR 13 day repeat ~600 km orbit m orbit control 220 km swath Full resolution over swath 5,20+5,40,80 MHz modes SP, DP, QQP, QP modes 91-day repeat ~370 km orbit 25 m spot 5 beams Ecosystem Structure Cryosphere Solid Earth Two spacecraft not at same scale 3 -6 ? ? ? ? Must be Re-thought Due to Current OMB Direction ? ? ? ? ? ? ? ? ? ? ? ?

Outlook for DESDynI NASA continues to invest in DESDynI – Competing a Science Definition Team – Continuing trade studies at JPL NASA currently exploring options for reducing cost – Reducing number and scope of science requirements levied on DESDynI + DESDynI in combination with other satellites to approach DESDynI requirements – Find international partners interested in the science and technology + Ongoing Tandem-L studies with DLR + Ongoing discussions with several potential partners – Find domestic partners that would increase utility of DESDynI data 7

ICESat-2 Measurement Concept Original Concept “Analog” Pulsed Laser 50 Hz laser repetition rate 70 m footprint 140 m between footprints Now  MicroPulsed Laser 10 KHz laser repetition rate 1 (or more) photon from 10 m footprint 70 cm between adjacent footprints ■ Current Configuration:  Single laser pulse, split into 6 beams, 3 km spacing between pair

ICESat-2 Ecosystems Application Sigma Space, Smithsonian Environmental Research Center, September 2009 Airborne data: Level 1 Requirement: ICESAT-2 shall produce elevation measurements that enable independent determination of global vegetation height with a ground track spacing of less than 2 km over a 2-year period SDT conducting tests and simulations to determine what ICESat-2 will meet the ecosystem science objective. 1)Using low altitude airborne Photon Counting flights over Pine Barrens and SERC in October 2009 and High altitude flights (MABEL) are planned for Fall )Data down-sampled to “ICESat-2 like” spacing and solar background noise was added to simulate various noise conditions 3)Develop algorithms to extract ground surface and canopy height in presence of noise

ICESat-2 Simulated Data Algorithm Results Sigma Space, Smithsonian Environmental Research Center, September 2009 Airborne data: U. Texas – Hybrid Kalman filter Ground RMS 1.9 m Canopy Height RMS 3.9 m Col. State – Multiscale Curvature Ground RMS 1.8m Canopy Height RMS 4.0 m Results from two different methodologies. Residuals were computed between simulated “ICESat-2” (i.e. down- sampled) ground/canopy height estimates (RED) and full-rate micropulse data (i.e. truth) (BLUE). SERC –Line 5

ICESat-2 Moving Forward ICESat-2 launch date currently targeted as April 2016 The ICESat-2 satellite will be off-nadir pointed over non- polar areas (~60S  60N) to increase the spatial density of measurements in terrestrial ecosystems. The ICESat-2 SDT team will soon develop the Algorithm Theoretical Basis Documents (ATBDs) for the Vegetation/Land data products

Publications: RSE Special Issue on DESDynI ■ 18 papers: Biomass, Veg Structure, Biodiversity  Overview, 5 Lidar, 6 Radar, 4 sensor fusion, 2 in situ methods 12 Slope effects on lidar Biomass Requirements Structure & Stress A Few Highlights From DESDynI RSE Special Issue A Few Highlights From DESDynI RSE Special Issue

Publications: JGR-A DESDynI Special Issue ■ 12 Papers  Biomass, biodiversity and vegetation structure  4 review papers  (remote sensing, biomass, structure, disturbance and regrowth)  8 papers lidar, radar, fusion, requirements, etc  Biodiversity requirements, biomass dynamics, radar/lidar fusion, waveform validation, GLAS/Landsat fusion, etc 13

Field Activities: California & East Coast ■ California Sierra Nevada (2008)  Revisit of 1 ha plots (1999/2000)  ~25 1 ha biomass plots (2008)  Stem-maps for 30 m plots  UAVSAR, LVIS, discrete return lidar (DRL) ■ East Coast (2009)  Legacy sites with existing field and remotely-sensed data  Hubbard Brook and Bartlett EF, Howland, Harvard, etc  Additional PI-led activity in Quebec & Costa Rica (Simard)  New 1 ha and prism plots  UAVSAR, LVIS, DRL at sites  Time-series of lidar data at some sites ■ Data archived and available 14

Hubbard Brook Remote Sensing 15 DESDynI LVIS Waveform Lidar Small Footprint Discrete Return Lidar UAVSAR

Echidna ® and DWEL Echidna ® Full Waveform Lidar 1064nm, 4 mrad resolution US Deployments with NASA support Harvard, Howland, and Bartlett Forests (2007, 2009, 2010) Sierra National Forest (2008) DWEL: Dual Wavelength Echidna ® Lidar Full Waveform Echidna Heritage 1064 and 1550nm (separation of foliage and woody returns) Improved angular resolution (2mrad) Under development at BU with NSF support In collaboration with CSIRO Currently undergoing integration and testing

Potential Activities with Europeans ■ Joint Ecosystem Structure Science Meeting  Planning to begin this fall  Exchange of ideas and mutual understanding on:  Existing research activities and advances  Potential mission development and deployment  E.g. TANDEM-L & BIOMASS  Applications and science requirements of each community ■ Joint Ecosystem Structure Field Experiment  Europeans promoting potential of PolInSAR  Lack of published studies, availability of field and aircraft data hinder mutual advancement  Suggest development of joint field experiment to test efficacy of remote sensing techniques for derivation of ecosystem structure  Potentially help inform DESDynI-R partnerships (BIOMASS & TANDEM-L) 17 Please attend the PolInSAR meeting tomorrow morning

Upcoming Meetings: ForestSat ■ Promote scientifically-based understanding of how remote sensing describes and monitors forested systems  Fifth conference, first outside of western Europe  Contact Warren Cohen

Upcoming Meetings: SilviLaser ■ Premier conference on remote sensing of forest structure  Held in conjunction with ForestSat (immediately follows)  Contact Mike Wulder or Nicholas Coops