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GAO-10-799 Geostationary Operational Environmental Satellites
United States Government Accountability Office Report to Congressional Committees GAO September 2010 GEOSTATIONARY OPERATIONAL ENVIRONMENTAL SATELLITES Improvements Needed in Continuity Planning and Involvement of Key Users GAO-10-799 September 2010 Accountability Integrity Reliability GEOSTATIONARY OPERATIONAL Highlights ENVIRONMENTAL SATELLITES Highlights of GAO-10-799, a report to Improvements Needed in Continuity Planning and congressional committees Involvement of Key Users Why GAO Did This Study What GAO Found The Department of Commerce’s NOAA has made progress on the GOES-R acquisition, but key instruments National Oceanic and Atmospheric have experienced challenges and important milestones have been delayed. Administration (NOAA), with the The GOES-R program awarded key contracts for its flight and ground aid of the National Aeronautics and projects, and these are in development. However, two instruments have Space Administration (NASA), is to experienced technical issues that led to contract cost increases, and procure the next generation of significant work remains on other development efforts. In addition, since geostationary operational environmental satellites, called 2006, the launch dates of the first two satellites in the series have been Geostationary Operational delayed by about 3 years. As a result, NOAA may not be able to meet its policy Environmental Satellite-R (GOES- of having a backup satellite in orbit at all times, which could lead to a gap in R) series. The GOES-R series is to coverage if GOES-14 or GOES-15 fails prematurely (see graphic). replace the current series of satellites, which will likely begin to Potential Gap in GOES Coverage reach the end of their useful lives in approximately 2015. -
Early Contributions to Today's JPSS Initiatives As Seen from the First
TIROS-1 Established the Foundation for Today’s Remarkable JPSS and GOES-R Satellite Systems Gerald J. Dittberner* CIRA, Colorado State University, Fort Collins, CO and Thomas H. Vonder Haar Colorado State University, Fort Collins, CO *[email protected] Presented at the 16th Annual Symposium on New Generation Operational Environmental Satellite Systems, 100th American Meteorological Society Annual Meeting, Boston, MA, January 13, 2020 1 Outline JPSS TIROS ✦ The Path to Polar and Geostationary Systems th ✦ Celebrate the 60 anniversary of TIROS-1 ✦ The first operational weather satellite (1 Apr 1960) ✦ Satellites and Instruments ✦ Milestones ✦ Meteorology: Early initiatives for Operational Applications Dittberner and Vonder Haar, CIRA, Colorado State University 2 First Color Image from Space - JPSS TIROS Aerobee Rocket (1954) Source: Hubert and Berg, 1944 Dittberner and Vonder Haar, CIRA, Colorado State University 3 Diverse Collaborators Initiated Weather Satellites JPSS TIROS IGY Satellites TIROS Satellites 1955 - 1958 1958+ National Academies NASA* Designated to Coordinate Planning: Sponsor & Coordinate Execution - Army Signal Corps Rsrch Lab (Payload) - US Weather Bureau (Data Handling) - Naval Rsrch Lab (Vanguard Team) - Army Signal Corps Rsrch Lab (Payload) - Army Corps of Engineers - Naval Rsrch Lab (Vanguard Team) - Army Ballistic Missile Agency (Explorer) - Industries (esp. RCA) - Industries (esp. RCA) - Universities (Univ Iowa esp) - Universities (esp. Univ Iowa) - WWW (International Cooperation) - ARPA* Office of Naval Research* National Science Foundation* *sponsor transferring from ONR and NSF during IGY Source: A. Callahan, 2013 Dittberner and Vonder Haar, CIRA, Colorado State University 4 TIROS-1 JPSS TIROS Equipped with two TV cameras and two video recorders, the spacecraft orbited 450 miles above Earth, relaying nearly 20,000 images of clouds and storm systems moving across our planet. -
Gao-13-597, Geostationary Weather Satellites
United States Government Accountability Office Report to the Committee on Science, Space, and Technology, House of Representatives September 2013 GEOSTATIONARY WEATHER SATELLITES Progress Made, but Weaknesses in Scheduling, Contingency Planning, and Communicating with Users Need to Be Addressed GAO-13-597 September 2013 GEOSTATIONARY WEATHER SATELLITES Progress Made, but Weaknesses in Scheduling, Contingency Planning, and Communicating with Users Need to Be Addressed Highlights of GAO-13-597, a report to the Committee on Science, Space, and Technology, House of Representatives Why GAO Did This Study What GAO Found NOAA, with the aid of the National The National Oceanic and Atmospheric Administration (NOAA) has completed Aeronautics and Space Administration the design of its Geostationary Operational Environmental Satellite-R (GOES-R) (NASA), is procuring the next series and made progress in building flight and ground components. While the generation of geostationary weather program reports that it is on track to stay within its $10.9 billion life cycle cost satellites. The GOES-R series is to estimate, it has not reported key information on reserve funds to senior replace the current series of satellites management. Also, the program has delayed interim milestones, is experiencing (called GOES-13, -14, and -15), which technical issues, and continues to demonstrate weaknesses in the development will likely begin to reach the end of of component schedules. These factors have the potential to affect the expected their useful lives in 2015. This new October 2015 launch date of the first GOES-R satellite, and program officials series is considered critical to the now acknowledge that the launch date may be delayed by 6 months. -
NOAA NESDIS Independent Review Team Final Report 2017 Preface
NOAA NESDIS Independent Review Team Final Report 2017 Preface “Progress in understanding and predicting weather is one of the great success stories of twentieth century science. Advances in basic understanding of weather dynamics and physics, the establishment of a global observing system, and the advent of numerical weather prediction put weather forecasting on a solid scientific foundation, and the deployment of weather radar and satellites together with emergency preparedness programs led to dramatic declines in deaths from severe weather phenomena such as hurricanes and tornadoes.“ “The Atmospheric Sciences Entering the Twenty-First Century”, National Academy of Sciences, 1998. 2 Acknowledgements ▪ The following organizations provided numerous briefings, detailed discussions and extensive background material to this Independent Review Team (IRT): – National Oceanic and Atmospheric Administration (NOAA) – National Aeronautics and Space Administration (NASA) – Geostationary Operational Environmental Satellite R-Series (GOES-R) Program Office – Joint Polar Satellite System (JPSS) Program Office – NOAA/National Environmental Satellite, Data, and information Service (NESDIS) IRT Liaison Support Staff • Kelly Turner Government IRT Liaison • Charles Powell Government IRT Liaison • Michelle Winstead NOAA Support • Kevin Belanga NESDIS Support • Brian Mischel NESDIS Support ▪ This IRT is grateful for their quality support and commitment to NESDIS’ mission necessary for this assessment. 3 Overview ▪ Objective ▪ NESDIS IRT History ▪ Methodology -
Nos. 13-1231 & 13-1232 Washington, D.C. 20530
USCA Case #13-1231 Document #1472126 Filed: 12/23/2013 Page 1 of 98 ORAL ARGUMENT NOT YET SCHEDULED BRIEF FOR RESPONDENTS IN THE UNITED STATES COURT OF APPEALS FOR THE DISTRICT OF COLUMBIA CIRCUIT NOS. 13-1231 & 13-1232 SPECTRUM FIVE LLC, APPELLANT, V. FEDERAL COMMUNICATIONS COMMISSION, APPELLEE. SPECTRUM FIVE LLC, PETITIONER, V. FEDERAL COMMUNICATIONS COMMISSION AND UNITED STATES OF AMERICA, RESPONDENTS. ON APPEAL FROM AND PETITION FOR REVIEW OF AN ORDER OF THE FEDERAL COMMUNICATIONS COMMISSION WILLIAM J. BAER JONATHAN B. SALLET ASSISTANT ATTORNEY GENERAL ACTING GENERAL COUNSEL ROBERT B. NICHOLSON JACOB M. LEWIS ROBERT J. WIGGERS ASSOCIATE GENERAL COUNSEL ATTORNEYS MATTHEW J. DUNNE UNITED STATES COUNSEL DEPARTMENT OF JUSTICE WASHINGTON, D.C. 20530 FEDERAL COMMUNICATIONS COMMISSION WASHINGTON, D.C. 20554 (202) 418-1740 USCA Case #13-1231 Document #1472126 Filed: 12/23/2013 Page 2 of 98 CERTIFICATE AS TO PARTIES, RULINGS, AND RELATED CASES Pursuant to D.C. Circuit Rule 28(a)(1), Appellee/Respondent the Federal Communications Commission (“FCC”) and Respondent the United States certify as follows: 1. Parties. The parties appearing before the FCC were DIRECTV Enterprises, LLC; EchoStar Satellite Operating Corporation; the Government of Bermuda; Radiocommunications Agency Netherlands; SES S.A.; and Spectrum Five LLC. The parties appearing before this Court are Appellant/Petitioner Spectrum Five LLC; Appelle/Respondent the FCC; Respondent the United States in No. 13-1232 only; and Intervenor EchoStar Satellite Operating Corporation. 2. Ruling under review. The ruling under review is Memorandum Opinion and Order, EchoStar Satellite Operating Company; Application for Special Temporary Authority Relating to Moving the EchoStar 6 Satellite from the 77° W.L. -
SPACE APPLICATIONS **DB Chap 2 (09-56) 1/17/02 2:15 PM Page 11
**DB Chap 2 (09-56) 1/17/02 2:15 PM Page 9 CHAPTER TWO SPACE APPLICATIONS **DB Chap 2 (09-56) 1/17/02 2:15 PM Page 11 CHAPTER TWO SPACE APPLICATIONS Introduction From NASA’s inception, the application of space research and tech- nology to specific needs of the United States and the world has been a pri- mary agency focus. The years from 1979 to 1988 were no exception, and the advent of the Space Shuttle added new ways of gathering data for these purposes. NASA had the option of using instruments that remained aboard the Shuttle to conduct its experiments in a microgravity environ- ment, as well as to deploy instrument-laden satellites into space. In addi- tion, investigators could deploy and retrieve satellites using the remote manipulator system, the Shuttle could carry sensors that monitored the environment at varying distances from the Shuttle, and payload special- ists could monitor and work with experimental equipment and materials in real time. The Shuttle also allowed experiments to be performed directly on human beings. The astronauts themselves were unique laboratory ani- mals, and their responses to the microgravity environment in which they worked and lived were thoroughly monitored and documented. In addition to the applications missions conducted aboard the Shuttle, NASA launched ninety-one applications satellites during the decade, most of which went into successful orbit and achieved their mission objectives. NASA’s degree of involvement with these missions varied. In some, NASA was the primary participant. Some were cooperative mis- sions with other agencies. In still others, NASA provided only launch support. -
User's Guide for Building and Operating Environmental Satellite Receiving Stations
National Oceanic and Atmospheric Administration User's Guide for Building and Operating Environmental Satellite Receiving Stations Updated: February 2009 U.S. DEPARTMENT OF COMMERCE National Oceanic and Atmospheric Administration National Environmental Satellite, Data, and Information Service FORWARD This is an update of the User's Guide for Building and Operating Environmental Satellite Receiving Stations, which was published in document form in July of 1997. There have been several changes in the technology and availability of receiving equipment as well as changes to the NOAA operated satellites since the previous publication. This has made a new User's Guide necessary to maintain the National Oceanic and Atmospheric Administration's commitment to serve the public by providing for the widest possible dissemination of information based on its research and development activities. The previous version of this User's Guide was a major update of NOAA Technical Report 44, Educator's Guide for Building and Operating Environmental Satellite Receiving Stations, originally published in 1989, and reprinted in 1992. The environmental/weather satellite program has its origins in the early days of the U.S. Space program and is based on the cooperative efforts of the National Oceanic and Atmospheric Administration (NOAA) and the National Aeronautics and Space Administration (NASA) and their predecessor agencies. A portion of this publication is devoted to examining inexpensive methods of directly accessing environmental satellite data. This discussion cites particular items of equipment by brand name in an attempt to identify examples of readily available items. This information should not be construed to imply that these are the only sources of such items, nor an advertisement or endorsement of such items or their manufacturers. -
Spacecraft System Failures and Anomalies Attributed to the Natural Space Environment
NASA Reference Publication 1390 Spacecraft System Failures and Anomalies Attributed to the Natural Space Environment K.L. Bedingfield, R.D. Leach, and M.B. Alexander, Editor Neutral ThermosphereNeutral Thermal Environment Solar EnvironmentSolar ll SSppaacc Plasma rraa ee uu EE tt nn v aa v Ionizing i Ionizing i r Meteoroid/ N N r Radiation o Orbital Debris o Radiation e e n n h h m m T T e e n n t t s s Geomagnetic Field Gravitational Field August 1996 NASA Reference Publication 1390 Spacecraft System Failures and Anomalies Attributed to the Natural Space Environment K.L. Bedingfield Universities Space Research Association • Huntsville, Alabama R.D. Leach Computer Sciences Corporation • Huntsville, Alabama M.B. Alexander, Editor Marshall Space Flight Center • MSFC, Alabama National Aeronautics and Space Administration Marshall Space Flight Center • MSFC, Alabama 35812 August 1996 i PREFACE The effects of the natural space environment on spacecraft design, development, and operation are the topic of a series of NASA Reference Publications currently being developed by the Electromagnetics and Aerospace Environments Branch, Systems Analysis and Integration Laboratory, Marshall Space Flight Center. This primer provides an overview of seven major areas of the natural space environment including brief definitions, related programmatic issues, and effects on various spacecraft subsystems. The primary focus is to present more than 100 case histories of spacecraft failures and anomalies documented from 1974 through 1994 attributed to the natural space environment. A better understanding of the natural space environment and its effects will enable spacecraft designers and managers to more effectively minimize program risks and costs, optimize design quality, and achieve mission objectives. -
NASA Is Not Archiving All Potentially Valuable Data
‘“L, United States General Acchunting Office \ Report to the Chairman, Committee on Science, Space and Technology, House of Representatives November 1990 SPACE OPERATIONS NASA Is Not Archiving All Potentially Valuable Data GAO/IMTEC-91-3 Information Management and Technology Division B-240427 November 2,199O The Honorable Robert A. Roe Chairman, Committee on Science, Space, and Technology House of Representatives Dear Mr. Chairman: On March 2, 1990, we reported on how well the National Aeronautics and Space Administration (NASA) managed, stored, and archived space science data from past missions. This present report, as agreed with your office, discusses other data management issues, including (1) whether NASA is archiving its most valuable data, and (2) the extent to which a mechanism exists for obtaining input from the scientific community on what types of space science data should be archived. As arranged with your office, unless you publicly announce the contents of this report earlier, we plan no further distribution until 30 days from the date of this letter. We will then give copies to appropriate congressional committees, the Administrator of NASA, and other interested parties upon request. This work was performed under the direction of Samuel W. Howlin, Director for Defense and Security Information Systems, who can be reached at (202) 275-4649. Other major contributors are listed in appendix IX. Sincerely yours, Ralph V. Carlone Assistant Comptroller General Executive Summary The National Aeronautics and Space Administration (NASA) is respon- Purpose sible for space exploration and for managing, archiving, and dissemi- nating space science data. Since 1958, NASA has spent billions on its space science programs and successfully launched over 260 scientific missions. -
GOES X-Ray Sensor (XRS)
GOES X-ray Sensor (XRS) Measurements Janet Machol, NOAA National Centers for Environmental Information (NCEI) and University of Colorado, Cooperative Institute for Research in Environmental Science (CIRES) Rodney Viereck, NOAA Space Weather Prediction Center (SWPC) 10 June 2016, Version 1.4.1 Important notes for users Scaling factors: For GOES 8-15, the archived fluxes have had SWPC scaling factors applied. To get true fluxes, these factors must be removed. To get true fluxes from the archived data, users must divide short channel fluxes by 0.85 and divide the long channel fluxes by 0.7. Similarly, to get true fluxes for pre-GOES-8 data, users should divide the archived fluxes by the scale factors. No adjustments are needed to use the GOES 8-15 fluxes to get the traditional C, M, and X alert levels. (See Section 2.) Time stamps: The raw data time stamps are offset 1.024 s after the integration periods. The timestamps for averaged data have a 1-3 s offset from the start of the data. (See Section 3.) Version Date Description of major changes author 1.4.1 9 June 2016 3 s data for GOES 8-12 added to archive. Revised table of Machol chronology of primary and secondary satellites. Added references and discussion of digitization. 1.4 4 March 2015 original Machol Contents 1. GOES X-ray Sensor (XRS) ........................................................................................................................... 3 2. Data issues ............................................................................................................................................... -
General Assembly Distr.: General 17 December 1999
United Nations A/AC.105/734 General Assembly Distr.: General 17 December 1999 Original: English Committee on the Peaceful Uses of Outer Space Disposal of satellites in geosynchronous orbit Report by the Secretariat Contents Paragraphs Page I. Introduction ....................................................... 1-2 2 II. Standards and recommendations on geosynchonous satellite disposal ........ 3-8 2 III. Examples of the GSO disposal policy .................................. 9-15 3 A. Intelsat....................................................... 10 3 B. Canadian Space Agency ......................................... 11-12 4 C. Centre National d’Etudes Spatiales................................ 13 4 D. European Space Agency ........................................ 14 4 E. EUMETSAT.................................................. 15 4 IV. Situation near the geostationary orbit................................... 16-20 4 V. Conclusions ....................................................... 21 5 Annex. Statistical data....................................................................... 6 V.99-91115 (E) A/AC.105/734 I. Introduction (b) Every reasonable effort should be made to shorten the lifetime of debris in the transfer orbit; 1. At its forty-second session, the Committee on the (c) A geostationary satellite at the end of its life Peaceful Uses of Outer Space agreed1 that the Scientific should be transferred, before complete exhaustion of its and Technical Subcommittee, at its thirty-seventh session, propellant, to a supersynchronous -
CLASSIFICATION of GEOSYNCHRONOUS OBJECTS ISSUE 13 Produced with the DISCOS Database
EUROPEAN SPACE AGENCY EUROPEAN SPACE OPERATIONS CENTRE GROUND SYSTEMS ENGINEERING DEPARTMENT Space Debris Office GEN-DB-LOG-00074-OPS-GR CLASSIFICATION OF GEOSYNCHRONOUS OBJECTS ISSUE 13 by T. Flohrer, R. Choc, and B. Bastida Produced with the DISCOS Database February 2011 ESOC Robert-Bosch-Str. 5, 64293 Darmstadt, Germany 3 Abstract This is a status report on geosynchronous objects as of the end of 2010. Based on orbital data in ESA’s DISCOS database and on orbital data provided by KIAM the situation near the geostationary ring (here defined as orbits with mean motion between 0.9 and 1.1 revolutions per day, eccentricity smaller than 0.2 and inclination below 30 deg) is analysed. From 1202 objects for which orbital data are available, 397 are controlled inside their longitude slots, 622 are drifting above, below or through GEO, 172 are in a libration orbit and 11 whose status could not be determined. Fur- thermore, there are 72 uncontrolled objects without orbital data (of which 66 have not been catalogued). Thus the total number of known objects in the geostationary region is 1274. During 2010 at least sixteen spacecraft reached end-of-life. Eleven of them were reorbited following the IADC recommendations, of which one spacecraft was reorbited with a perigee of 241 km - it is not yet clear if it will enter the 200-km protected zone around GEO or not -, four spacecraft were reorbited too low and at least one spacecraft did not or could not make any reorbiting manouevre at all and is now librating inside the geostationary ring.