Airborne Observation Platform (AOP)

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National Ecological Observatory Network Airborne Observation Platform (AOP) B. Johnson/NEON AOP, PMCS and Project Teams Nov 2009 NEON FDR

AOP Core Staff Dr. Brian Johnson is the Product Team Lead responsible for managing the construction, commissioning and operations of the NEON AOP. Dr. Johnson was formerly at Ball Aerospace & Technology Corp. responsible for managing the Earth Science Advanced Systems group, leading the development of instrument concepts and technologies for future NASA Earth Science space missions, and directing airborne sensor development. He earned his B.S. and M.S. in Electrical Engineering at the University of Wisconsin, and his Ph.D. in Atmospheric and Space Sciences at the University of Michigan. Before joining Ball Aerospace, Dr. Johnson was a research scientist in the Atmospheric Chemistry Division at the National Center for Atmospheric Research in Boulder, Colorado. His research interests include development of new sensor technologies, remote sensing techniques and the application of remotely sensed data to atmospheric, climate, land use and ecosystem studies. Dr. Thomas Kampe is the instrument scientist for the NEON imaging spectrometer and responsible for data algorithm validation. Dr. Kampe has 20+ years of experience in optical instrument design and development. From 1993 to 1996, Dr. Kampe was with Hughes SBRC, where he served as Optics Lead on the MODIS instrument. From 1996 to 2007, he was a Staff Consultant in Electro-Optics with Ball Aerospace & Technologies Corp., working in the Advanced Systems Group. While at Ball, he was PI on several IRADS and the SIRAS-G Instrument Incubator Program, a NASA-funded infrared imaging spectrometer technology development program. On this program, Dr. Kampe had full programmatic and technical responsibility and was instrumental in developing methodologies and apparatus for testing and characterizing imaging spectrometer performance. Dr. Kampe holds a B.S. in Physics from UCLA and M.S. and Ph.D. in atmospheric and oceanic sciences from the University of Colorado-Boulder. Dr. Michele Kuester is the remote sensing scientist for the NEON AOP. Dr. Kuester is responsible for mission operations planning and instrument calibration. She is also the technical lead for the waveform LiDAR and digital camera. Dr. Kuester has 10+ years experience in airborne and field-based earth remote sensing. She came to NEON from Ball Aerospace where she was the lead for the Airborne Sensors Initiative and in charge of their radiometric calibration facilities working on programs such as SBUV, Landsat and OMPS. Prior to Ball, Michele was part of the Remote Sensing Group at the University of Arizona in Tucson, AZ where she was involved in vicarious calibrations of Earth observing instruments such as MODIS, Landsat, and SPOT. Dr. Kuester holds a B.S. in Physics and M.S. in Optical Sciences from the University of Arizona-Tucson and M.S. and Ph.D. in atmospheric and oceanic sciences from the University of Colorado-Boulder. Nov 2009 NEON FDR 2

AOP Management Structure Nov 2009 NEON FDR 3

AOP Nov 2009 NEON FDR 4

AOP Science Objectives AOP will observe invasive species, land use drivers and ecosystem responses surrounding the NEON Core and Relocatable sites land cover vegetation structure Invasive plant species biochemical and biophysical properties ecosystem functioning Bridge scales from organism and stand scales to the scale of satellite based remote sensing Observe unexpected events, targets of opportunity (TOO s) Nov 2009 NEON FDR 5

Airborne Measurement Approach Spectroscopy Vegetation biochemical & biophysical properties Cover type & fraction LiDAR altimetry Vegetation Structure Sub-canopy topography biomass High resolution imagery Land use & land cover Nov 2009 NEON FDR 6

AOP Baseline Design Airborne Instrumentation Optech ATLM Gemini Waveform-LiDAR JPL NEON Imaging spectrometer Applanix 5K x7k DSS 439 airborne digital camera Applanix POS AV 510 GPS/Inertial measurement unit Up-looking Vis/NIR spectrometer (atmos. correction) AOP Sensor Technical Facility Optical calibration lab, and sensor maintenance and support facilities Flight Operation Approach 3 identical instrument payloads De Havilland DHC-6-300 twin turbo prop (Twin Otter) 2 aircraft for cover NEON sites; third for backup & TOO s Crew: 2 NEON personnel for sensor flight operations Nov 2009 NEON FDR 7

Payload Instrumentation Spectrometer design concept Optech ALTM Gemini system Applanix digital airborne camera Applanix GPS/IMU Nov 2009 NEON FDR 8

Integrated Payload camera spectrometer LiDAR Payload Integration mount (PIM) Nov 2009 NEON FDR 9

Sensor Data Products Level-0: raw sensor output data Level-1: geo-located, calibrated sensor data (1-3 meter res) Sensor spectral radiance: 380 to 2500 nm, 10 nm resolution Surface reflectance: 380 to 2500 nm, 10 nm resolution LiDAR vertical waveform Panchromatic imagery (15 to 30 cm resolution) Level-3: mapped 5-meter sensor data Surface reflectance: 380 to 2500 nm, 10 nm resolution nearest neighbor LiDAR waveform 5-meter averaged LIDAR waveform 50-cm resolution imagery (zoom to Level-1 resolution) Nov 2009 NEON FDR 10

AOP Sensor Technical Facility System Requirements Provide operations, logistics and support for sensor maintenance and operations [NEON.SYS.2.640] Provide the adequate facilities for calibration and validation of sensors [NEON.SYS.2.680] Calibration laboratory NIST traceable sources Special test sets & equipment Sensor support facilities repair and maintenance Supporting field equipment NIST Lamp Filter Wheel NI S PIM storage Spectralon Panel Nov 2009 NEON FDR 11

Project Interfaces Facilities and Civil Construction (FCC) FCC responsible for Technical Facility & AOP-specific floor plan AOP responsible for facility requirements, specification, and interior configuration Cyber-infrastructure (CI) Computing hardware, operational software implementation of algorithms Fundamental Sentinel Unit (FSU) Coordinated field sampling during commissioning Fundamental Instrument Unit (FIU) Provide atmospheric measurement data Data Products Group Higher level science data products derived from AOP level-1/-3 data Nov 2009 NEON FDR 12

AOP Operations Science Operations Flight operations planning & support Science data analysis, products and QA/QC External science community support Flight Operations Aviation safety Aircraft lease contract management Flight logistics, operations & field support Instrument Support Instrument calibration Instrument maintenance & repair Aircraft/payload integration Nov 2009 NEON FDR 13

Example Flight Operations 2 aircraft with identical payloads to cover sites 7-months, 1,100 flight hrs flight season 3 rd Payload for backup & new science, TOO s Ship payload to Hawaii AOP-2 Preseason calibration flight AOP-1 Nov 2009 NEON FDR 14

2.15 AOP - WBS WBS Title 2.15 Airborne Observation Platform (AOP) 2.15.10 AOP Management 2.15.20 AOP Commissioning 2.15.20.15 AOP Sensor Field Commissioning 2.15.20.20 AOP Calibration Lab Commissioning 2.15.30 AOP Equipment 2.15.30.10 AOP Spectrometer 2.15.30.20 AOP Waveform Lidar 2.15.30.40 AOP Integrated Payload 2.15.30.50 AOP Sensor Support Facility Nov 2009 NEON FDR 15

2.15 AOP - FTE Spread by FY Nov 2009 NEON FDR 16

Page 1 TASK AOP Schedule 2.15 Airborne Observation Platform (AOP) Construction Phase Schedule 2009 2010 2011 2012 2013 2014 2015 3 4 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4 JPL - Spectrometer Design Verification Unit (NIS DVU) NIS DVU Risk Reduction SRR Kickoff CDR / MRR Project Execution Plan Due Prelim SW Def. Comp. Test Flt #1 Integration Complete FRR Flt. #2 DVU Del. to NEON Test Flt. #2 DVU Reconfigured to NIS-3 Imaging Spectrometer (NIS) Waveform Altimeter Lidar (WALi) #1 Acc Test Del #1 #2 Acc Test WALi-1 Int w/eng Mt. Del #2 Proc/Fab #3 Acc Test Del #3 Int & Test #1 Acc Test Flights & Data Analysis TRR NIS1 Int & Test #2 Test & Cal - #1 #2 Test & Cal TRR #2 HRCR #1 & Del to NEON #2 HRCR & Del to NEON Payload Integration Eng. Mt Del to NEON Inst. Int. w/flt Mt #3 Flt. Mts Del Inst. Int. w/flt Mt #1 Inst. Int. w/flt Mt #2 Pay #1 Int w/plane Comp Pay #3 Int w/plane comp Pay #2 Int w/plane comp Nov 2009 NEON FDR 17

Page 2 TASK Commissioning Flight Payload #1 2.15 Airborne Observation Platform (AOP) Construction Phase Schedule 2009 2010 2011 2012 2013 2014 2015 3 4 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4 Flight Val Sci-Ops Data Val Acc Rev Del to Ops Commissioning Flight Payload #2 Flight Val Sci Ops Data Val Acc Rev Del to Ops Commissioning Flight Payload #3 Flight Val Sci Ops Data Val Acc Rev Del to Ops AOP Facility Specs GSE Procs Test Set Dev Commissioning L2 Milestones Mount Assembly Mt. Assy PDR Mt. Assy FDR Flt. Mt. Delivery Lidar/Camera Build Progress Review WALi-1 Delivery WALi-2 Delivery WALi-3 Delivery Test Flights Test Flt #1 Complete Test Flt #2 Complete Test Flt #3 Complete Nov 2009 NEON FDR 18

AOP PT Risk Register High High Spectrometer Delays mitigation via NIS-DVU effort Fuel costs prioritize annual surveying Nov 2009 NEON FDR 19

Progress Since PDR Completed the JPL spectrometer risk reduction tasks ARRA funds awarded to begin spectrometer DVU development Updated risk mitigation plans Completed internal preliminary design review of the AOP sensor technical facility Established Calibration-Validation working group Addressed PDR recommendations Presented at and participated in science (ESA, LTER, NASA HyspIRI) and engineering (SPIE) conferences, USGS meeting at NEON HQ Nov 2009 NEON FDR 20

Work Over Next 12-months Spectrometer DVU Prototype algorithm development Early aircraft flights for operations and algorithm prototyping, and DVU testing Early AOP sensor technical facility development Prototype PIM design and fabrication Internal design reviews for instrumentation Refinement of AOP operations plan Mature calibration/validation plans and develop procedures Nov 2009 NEON FDR 21

Summary AOP will provide airborne remote sensing data at the local to regional scale bridging scales from organism and stand scale to scale of satellite remote sensing Three identical advanced instrumentation packages: spectrometer, waveform LIDAR and airborne camera Final baseline design and project plan are complete; mitigation of spectrometer and algorithm risks has begun AOP is ready to proceed to construction Nov 2009 NEON FDR 22

The National Ecological Observatory Network is a project sponsored by the National Science Foundation and managed under cooperative agreement by NEON Inc. Nov 2009 NEON FDR 23