GOES-R Instrument Operations Hal Bloom GOES-R Program January 2009 AMS Conference.

Slides:



Advertisements
Similar presentations
GOES-R Instrument Operations Tim Walsh GOES-R Flight Project January 2008 GOES User’s Conference.
Advertisements

Lightning Imager and its Level 2 products Jochen Grandell Remote Sensing and Products Division.
NOAA Satellite and Information Service GOES-R Program Status Greg Mandt System Program Director, GOES-R National Oceanic and Atmospheric Administration.
NOAA Satellite and Information Service GOES NOAA Satellite and Information Service GOES OVERVIEW Cindy Hampton Office of Satellite and Product Operations.
PLATO Phase A/B1 Status TOU Meeting Catania 28 Feb 2011 PLAnetary Transits and Oscillation of stars.
PHEOS PSRR Concept of Operations. 2 Scope The purpose of the PCW-UVI Concept of Operations (ConOps) is to communicate how mission systems will operate,
1 Scott Gudes Vice President, Legislative Affairs Space Systems & Operations Interdepartmental Hurricane Conference March 2, 2011 W A S H I N G T O N O.
Greg Mandt GOES-R System Program Director 2011 Satellite Direct Readout Conference April 5, 2011.
Agency, version?, Date 2012 Coordination Group for Meteorological Satellites - CGMS Add CGMS agency logo here (in the slide master) Coordination Group.
Geostationary Operational Environmental Satellite (GOES) R Series Anthony Comberiate System Program Director April 2006 Program Overview.
Greg Mandt GOES-R System Program Director 2011 GOES-R Proving Ground Annual Meeting Boulder, CO May 17, 2011.
An Overview of the GOES-R Program
GLAST LAT ProjectISOC CDR, 4 August 2004 Document: LAT-PR-04500Section 4.11 GLAST Large Area Telescope: Instrument Science Operations Center CDR Section.
Page 1HMI Team Meeting – January 26, 2005 HMI Mission Operations Rock Bush HMI Stanford Program Manager Stanford University
Mission Operations in Small Satellite Projects Making Mission Operations Effective J. Burkert Colorado Space Grant Consortium.
Hyperspectral Satellite Imaging Planning a Mission Victor Gardner University of Maryland 2007 AIAA Region 1 Mid-Atlantic Student Conference National Institute.
May 15, 2013 Space Weather Product Team (SWPT) Making Sense of the Nonsensical.
NOAA’s GOES-R Spacecraft Jamison Hawkins Lockheed Martin Corporation.
Design & Operation of ABI for PCW 11GOESRJPSS J19.2, 8 January 2015 This document is not subject to the controls of the International Traffic in Arms Regulations.
GOES-8 to GOES-12 Transition Direct Readout Conference Cindy Hampton NESDIS/Office of Satellite Operations.
1 Rapid Scan Operations for GOES 5 th GOES Users Conference AMS Conference January 24, 2008 Presented by Chris Wheeler, NOAA/NESDIS/OSO Co-authors Cynthia.
1 GOES-R Update Greg Mandt System Program Director GOES User Conference 3 Nov 2009.
GOES-R highlights Bernie Connell Cooperative Institute for Research in the Atmosphere Colorado State University December 2013.
Robin Pfister (GOES-R Ground Segment Deputy Project Manager)
Coordination Group for Meteorological Satellites - CGMS NOAA Response to Action Presented to CGMS-41 plenary session.
NASA’s Goddard Space Flight Center LRO Operations Concept Richard Saylor Jr. HTSI/Code 444 August 16-17, 2005.
20a - 1 NASA’s Goddard Space Flight Center Attitude Control System (ACS) Eric Holmes, Code 591 Joe Garrick, Code 595 Jim Simpson, Code 596 NASA/GSFC August.
GOES Instrument CONOPS Considerations
1 National Satellite and Information Service Geostationary Operational Environmental Satellites (GOES) Mary E. Kicza Deputy Assistant Administrator for.
Gene Legg Office of Satellite Data Processing and Distribution Asia Pacific Satellite Data Exchange and Utilization Meeting Honolulu, HI, September 20-22,
GOES-R ABI PROXY DATA SET GENERATION AT CIMSS Mathew M. Gunshor, Justin Sieglaff, Erik Olson, Thomas Greenwald, Jason Otkin, and Allen Huang Cooperative.
Final Version Micro-Arcsecond Imaging Mission, Pathfinder (MAXIM-PF) Mission Operations Tim Rykowski Jeffrey Hosler May 13-17, 2002.
1 Requirements Gathering, Validation, and Concept Studies GOES Users’ Conference Boulder, CO October 1-3, 2002.
PLANS FOR THE GOES-R SERIES AND COMPARING THE ADVANCED BASELINE IMAGER (ABI) TO METEOSAT-8 UW-Madison James J Gurka, Gerald J Dittberner NOAA/NESDIS/OSD.
Breakout Session Topic: Atmosphere A and B 1.During the GOES-R era, NOAA/NESDIS hopes to move away from system “stovepipes” and into the realm of integrated.
US BENEFITS. It Addresses Priorities The US and Canada have common scientific, economic and strategic interests in arctic observing: marine and air transportation.
GSFC GOES-R Notional End-To-End Architectures Satellite Direct Readout Conference for the Americas December 9 – 13, 2002 Miami, Florida Sandra Alba Cauffman.
Survey of OSPO Efforts to Improve Operational GOES Imagery S. Hadesty*, K. Ludlum**, N. Sanders*, C. Thomas* * ASRC Federal Contractor – Engineering and.
Investigating the use of Deep Convective Clouds (DCCs) to monitor on-orbit performance of the Geostationary Lightning Mapper (GLM) using Lightning Imaging.
2015 AMS Annual Meeting Non Export-Controlled Information Progress in Development and Integration of the Product Generation Capabilities of the GOES- R.
2015 OCONUS Meeting Non Export-Controlled Information Progress in Development and Integration of the Product Generation Capabilities of the GOES-R Ground.
Improvements of the Geostationary Operational Environmental Satellites (GOES)-R series for Climate Applications GOES-R data and products will support applications.
The GOES-10 Overview UW-Madison Tim Schmit and Gary Wade Research Satellite Meteorologist NOAA/NESDIS/ORA(STAR) Advanced Satellite Products Branch (ASPB)
GOES-R Recommendations from past GOES Users’ Conference: Jim Gurka Tim Schmit Tom Renkevens NOAA/ NESDIS Tony Mostek NOAA/ NWS Dick Reynolds Short and.
Future Integrated Satellite Architecture Brief to Third GOES-R Users Workshop Broomfield, Colorado Michael Crison NOAA Satellites and Information Service.
As components of the GOES-R ABI Air Quality products, a multi-channel algorithm similar to MODIS/VIIRS for NOAA’s next generation geostationary satellite.
GOES Program October 1, 2002 Steven P. Kirkner GOES Program Manager, NOAA/NESDIS.
Studies of Advanced Baseline Sounder (ABS) for Future GOES Jun Li + Timothy J. Allen Huang+ W. +CIMSS, UW-Madison.
1 GOES R Introduction and Overview: The Requirements Process Satellite Direct Readout Conference for the Americas Miami, FL December 12, 2002.
Mary Beth, Zach, Landris. The Geostationary Satellite system (GOES) supports weather forecasting, severe storm tracking, and meteorology research. The.
Final Version Kequan Luu May 13-17, 2002 Micro-Arcsecond Imaging Mission, Pathfinder (MAXIM-PF) Flight Software.
1 Recommendations from the 2 nd GOES-R Users’ Conference: Jim Gurka Tim Schmit NOAA/ NESDIS Dick Reynolds Short and Associates.
1 RFI Attachments January 13, General Assumptions Satellite Constellation: –Geostationary Earth Orbit –East Position – 75 o W Longitude (Sat A.
P. Mokashi IES Team Meeting, SwRI 29 May IES (SwRI) Develop sequences (flight and EQM test) Develop tables, macros and patches if necessary Test.
What does it cover? This session addresses “Why?”, “When?”, and “What Sensors?” will be on GOES- R, and presents examples of what to expect. If is a look.
GOES Program Review Satellite Direct Readout Conference for the Americas Miami, Florida December 9, 2002 Gerald Dittberner Advanced Systems Planning.
1 Creating Situational Awareness with Data Trending and Monitoring Zhenping Li, J.P. Douglas, and Ken. Mitchell Arctic Slope Technical Services.
Page 1 NPOESS Preparatory Project (NPP) VIIRS Calibration Maneuvers May 15, 2008 Ocean PEATE Team.
Belgian User Support and Operations Centre B.USOC SOLAR Operations Concept and Services SOLSPEC Workshop 10 March 2015 BIRA/IASB.
NWA Annual Meeting Joint Satellite Workshop
GOES-R Resources from NOAA, NASA & CIMSS
I&T&C Organization Chart
VIRTIS Operations at Lutetia
GOES-R Hyperspectral Environmental Suite (HES) Requirements
SDO Flight Dynamics Subsystem
Jesper Schou Instrument Scientist
LRO Mission Operations Concept
Launch and On-orbit Checkout
goes-16/17 abi lunar calibration
GLAST Large Area Telescope:
Presentation transcript:

GOES-R Instrument Operations Hal Bloom GOES-R Program January 2009 AMS Conference

2 Agenda The GOES-R Instrument Suite Changes in the Last Year Nadir Sensor Operations ABI and GLM Non-Nadir Sensor Operations SUVI, EXIS, SEISS and MAG Operational Considerations

3 Advanced Baseline Imager (ABI) Implementation phase (2 years post-CDR) Contractor: ITT Corporation, Ft Wayne, IN Solar Ultra Violet Imager (SUVI) Implementation phase (PDR in Fall 2008) Contractor: Lockheed-Martin Advanced Technology Corp, Palo Alto, CA Extreme Ultra Violet /X-Ray Irradiance Sensor (EXIS) Implementation phase (PDR in Fall 2008) Contractor: Laboratory for Atmospheric and Space Physics, Boulder, CO Geostationary Lightning Mapper (GLM) Implementation phase (PDR in Spring 2009) Contractor: Lockheed-Martin Advanced Technology Corp, Palo Alto, CA Space Environmental In-Situ Suite (SEISS) Implementation phase (PDR in Fall 2008) Contractor: Assurance Technology Corporation, Carlisle, MA Magnetometer (MAG) Procured as part of spacecraft contract GOES-R Sensors Operational Complexity

4 Changes in the Last Year Five Sensors are in implementation Four of five Sensors are past PDR GLM PDR scheduled for Spring 2009 ABI Prototype Model integration begins this month Sensor interfaces remain mature Defined and controlled for over two years Spacecraft acquisition activities continue

5 GOES R Solar Instruments GOES N Spacecraft - (GOES R may have a similar Solar Panel mount configuration) EXIS (LASP) Sun Pointing Platform SUVI (LM ATC) Non Nadir Sensor Operations: SUVI Note: Notional sun pointing platform mounting concept shown; actual mounting TBD

6 Nominal Operations Nominal operations begin immediately after end of on-orbit storage phase Control and health monitoring performed at SOCC Data processed Forcasting and Alerts at SWPC Eclipse Operations Recovery from periodic eclipses of the GOES-R orbit is 4 hours, and is minimized by active thermal control of the telescope SUVI is capable of operating through eclipse, though the image data and Guide Telescope signals will register low levels (dark levels) Weekly Calibrations A weekly set of images is taken to monitor instrument and CCD performance Sequence runs for a few minutes; scheduled as part of the nominal observing timeline Sequence provides measurements of the mechanism characteristics Monthly Calibrations Guide Telescope calibration sequence Frequency may decrease to quarterly after the first operational year Performance Tracking and Anomaly Resolution Trending of instrument performance is an integral part of mission operations Anomalies in subsystem operation are documented and resolved Non Nadir Sensor Operations: SUVI

7 On-board EEPROM table will hold an observing sequence set Operational sequences defined by the NWS/Space Weather Prediction Center (SWPC) Reconfigurable on-orbit During a normal “patrol” sequence, one SUVI image is anticipated each 15 seconds (TBD) SUVI is capable of one image every 10 seconds Ground command will initiate the observing sequence which will continue indefinitely SUVI can transition to different sequences by: Ground command Spacecraft command (stored command/relative time sequence) Non Nadir Sensor Operations: SUVI

8 Generally speaking, EXIS, SEISS and MAG are not operationally complex Upon completion of post-launch testing and initial configurations, the instruments operate continuously once in normal operations mode No special scheduling operations expected No moving mechanisms during normal operations Limited post-launch, post-storage and periodic calibration sequences will be defined The in-situ instruments (SEISS and MAG) are capable of operation during storage Attitude independent Non Nadir Sensor Operations

9 GOES-R instrument outages due to spacecraft activities such as momentum management, stationkeeping and yaw flip maneuvers will be greatly reduced from GOES-NOP Cumulative time for interface outage limited to 120 minutes per year per instrument Outages are limited to one outage per day with a max duration of 40 minutes Today’s I/M and NOP series spacecraft have scheduled daily science outages due to housekeeping periods and extended outages due to maneuvers The GOES-R spacecraft will be able to operate autonomously within specification without ground contact for a period of 7 days Sensor Operational Considerations

10 Summary ABI and SUVI are operationally flexible instruments Timelines and sequences may be defined to meet user needs All operational changes will be coordinated with the GORWG (ABI) and the SWPC (SUVI) SUVI, EXIS, SEISS and GLM are at the PDR phase SUVI CONOPS discussions are being refined with the NWS/Space Weather Prediction Center Calibration operations and impacts for all instruments are under review GOES-R spacecraft-to-instrument interfaces will experience fewer science data outages A tremendous improvement over the current operational series (GOES- I/M and GOES-NOP)

11 Acknowledgments Thanks to Tim Schmit (CIMSS), Jun Li (CIMSS), Paul Griffith (ITT) and Mons Morrison (LM ATC) for their contributions to this presentation

12 Backup Slides

13 ABI Ops Terminology Swath(s) Scene(s)Timeline Swath: sub-area collected in a single scan Defined by start and end coordinates; straight line, any angle Scene: Area to be observed (e.g. CONUS) Ordered set of swaths; need not be contiguous Timeline: Defines what to observe when (e.g. Mode 3) Time sequenced set of scene swaths and durations

14 ABI Scene Definitions Rectangular scenes: E.g. CONUS = 6 swaths, equal length, spaced uniformly North-to-South, parallel to equator Arbitrary shapes: E.g. Full Disk = 22 swaths, staggered lengths (piecewise fit to circle), spaced uniformly North-to- South, parallel to equator Stares: E.g. Blackbody; same start & end coordinates Arbitrary angles: E.g. NS scan for detector element uniformity checks

15 30 seconds ABI Scan Mode 3 Timeline B: blackbody observation L: space look

16 Single ABI GOES-East CONUS coverage Note: CONUS scene sizing is under review. Interactions with the GOES-R Operational Requirements Working Group (GORWG) are underway to refine East and West scenarios. Current Mode 3 CONUS Sector ( deg x deg) projected up over CONUS (5000 km x 3000 km at nadir)

17 CONUS West and CONUS East views This view utilizes current Mode 3 CONUS sizing; actual size TBD Today’s western PACUS is ~30% larger than the Mode 3 CONUS

18 Possible ABI Scan Strategies Mode 3 [FD+CONUS+MESO] Combination of Mode 4 and Mode 3 :45 :00 Full hour in severe weather situations Routine hourly operations mode, allows full disk winds each hour. Mode 4 To be evaluated: What are the best combinations of scan scenes and timelines? Discussions will be facilitated by the GOES-R Operational Requirements Working Group (GORWG) Mode 3