The Future of European Flagship Programmes in Space
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Issues Paper on Exploring Space Technologies for Sustainable Development and the Benefits of International Research Collaboration in This Context
United Nations Commission on Science and Technology for Development Inter-sessional Panel 2019-2020 7-8 November 2019 Geneva, Switzerland Issues Paper on Exploring space technologies for sustainable development and the benefits of international research collaboration in this context Draft Not to be cited Prepared by UNCTAD Secretariat1 18 October 2019 1 Contributions from the Governments of Austria, Belgium, Botswana, Brazil, Canada, Japan, Mexico, South Africa, Turkey, the United Kingdom, United States of America, as well as from the Economic and Social Commission for Asia and the Pacific, the Food and Agriculture Organization, the International Telecommunication Union, the United Nations Office for Disaster Risk Reduction and the World Food Programme are gratefully acknowledged. Contents Table of figures ....................................................................................................................................... 3 Table of boxes ......................................................................................................................................... 3 I. Introduction .................................................................................................................................... 4 II. Space technologies for the Sustainable Development Goals ......................................................... 5 1. Food security and agriculture ..................................................................................................... 5 2. Health applications .................................................................................................................... -
Report of the Commission on the Scientific Case for Human Space Exploration
1 ROYAL ASTRONOMICAL SOCIETY Burlington House, Piccadilly London W1J 0BQ, UK T: 020 7734 4582/ 3307 F: 020 7494 0166 [email protected] www.ras.org.uk Registered Charity 226545 Report of the Commission on the Scientific Case for Human Space Exploration Professor Frank Close, OBE Dr John Dudeney, OBE Professor Ken Pounds, CBE FRS 2 Contents (A) Executive Summary 3 (B) The Formation and Membership of the Commission 6 (C) The Terms of Reference 7 (D) Summary of the activities/meetings of the Commission 8 (E) The need for a wider context 8 (E1) The Wider Science Context (E2) Public inspiration, outreach and educational Context (E3) The Commercial/Industrial context (E4) The Political and International context. (F) Planetary Science on the Moon & Mars 13 (G) Astronomy from the Moon 15 (H) Human or Robotic Explorers 15 (I) Costs and Funding issues 19 (J) The Technological Challenge 20 (J1) Launcher Capabilities (J2) Radiation (K) Summary 23 (L) Acknowledgements 23 (M) Appendices: Appendix 1 Expert witnesses consulted & contributions received 24 Appendix 2 Poll of UK Astronomers 25 Appendix 3 Poll of Public Attitudes 26 Appendix 4 Selected Web Sites 27 3 (A) Executive Summary 1. Scientific missions to the Moon and Mars will address questions of profound interest to the human race. These include: the origins and history of the solar system; whether life is unique to Earth; and how life on Earth began. If our close neighbour, Mars, is found to be devoid of life, important lessons may be learned regarding the future of our own planet. 2. While the exploration of the Moon and Mars can and is being addressed by unmanned missions we have concluded that the capabilities of robotic spacecraft will fall well short of those of human explorers for the foreseeable future. -
Lara (Lander Radioscience) on the Exomars 2020 Surface Platform
EPSC Abstracts Vol. 13, EPSC-DPS2019-891-1, 2019 EPSC-DPS Joint Meeting 2019 c Author(s) 2019. CC Attribution 4.0 license. LaRa (Lander Radioscience) on the ExoMars 2020 Surface Platform. Véronique Dehant1,2, Sébastien Le Maistre1, Rose-Marie Baland1, Özgür Karatekin1, Marie-Julie Péters1, Attilio Rivoldini1, Tim Van Hoolst1, Bart Van Hove1, Marie Yseboodt1, and Alexander Kosov3 (1) Royal Observatory of Belgium (ROB), Brussels, Belgium, (2) Université catholique de Louvain, Louvain-la-Neuve, Belgium, (3) Space Research Institute Russian Academy of Sciences (IKI), Moscow, Russia Abstract The surface platform Kazachok will house the radio science experiment LaRa (Lander Radioscience) to support specific scientific objectives of the ExoMars 2020 mission. The LaRa experiment is described and the scientific objectives and strategies are detailed in this presentation. Figure 1. LaRa principle. 1. Introduction 2. The LaRa instrument In the last decade, several missions and observations As LaRa performs a coherent retransmission of the have brought new data on the planet Mars, obtained uplink carrier to the downlink carrier, the downlink by either spacecraft orbiting around Mars or landers frequency is scaled by a constant multiplier, the and rovers on the surface. Among other things, the transponder ratio (880/749). By emitting the uplink information acquired will improve our understanding signal from Earth, the masers in the ground stations of Mars’ interior, evolution and habitability. Data ensure frequency stability of LaRa’s radiosignal. obtained by new space missions are driving further The LaRa instrument is built in collaboration with progress in this field. In 2020, the European Space other Belgian actors under the lead of ESA PRODEX, Agency ESA and the Russian space agency and ROB providing the instrument specifications. -
Secretariat Distr.: General 25 November 2014
United Nations ST/SG/SER.E/733 Secretariat Distr.: General 25 November 2014 Original: English Committee on the Peaceful Uses of Outer Space Information furnished in conformity with the Convention on Registration of Objects Launched into Outer Space Letter dated 30 October 2014 from the Legal Services Department of the European Space Agency addressed to the Secretary-General In conformity with the Convention on Registration of Objects Launched into Outer Space (General Assembly resolution 3235 (XXIX), annex), the rights and obligations of which the European Space Agency (ESA) has declared its acceptance of, the Agency has the honour to transmit information on space objects Sentinel-1A and ATV-5, which were put into orbit within the past seven months (see annex). The Agency has the further honour to note that with effect from 28 October 2014, the date of signature of the Agreement between the European Union, Represented by the European Commission, and the European Space Agency on the Implementation of the Copernicus Programme, Including the Transfer of Ownership of Sentinels, the Agency has transferred the ownership of Sentinel-1A to the European Union. (Signed) Marco Ferrazzani ESA Legal Counsel and Head of the Legal Services Department V.14-07991 (E) 031214 041214 *1407991* ST/SG/SER.E/733 Annex Registration data on space objects launched by the European Space Agency* Sentinel-1A Information provided in conformity with the Convention on Registration of Objects Launched into Outer Space Committee on Space Research 2014-016A international -
SPACE RESEARCH in POLAND Report to COMMITTEE
SPACE RESEARCH IN POLAND Report to COMMITTEE ON SPACE RESEARCH (COSPAR) 2020 Space Research Centre Polish Academy of Sciences and The Committee on Space and Satellite Research PAS Report to COMMITTEE ON SPACE RESEARCH (COSPAR) ISBN 978-83-89439-04-8 First edition © Copyright by Space Research Centre Polish Academy of Sciences and The Committee on Space and Satellite Research PAS Warsaw, 2020 Editor: Iwona Stanisławska, Aneta Popowska Report to COSPAR 2020 1 SATELLITE GEODESY Space Research in Poland 3 1. SATELLITE GEODESY Compiled by Mariusz Figurski, Grzegorz Nykiel, Paweł Wielgosz, and Anna Krypiak-Gregorczyk Introduction This part of the Polish National Report concerns research on Satellite Geodesy performed in Poland from 2018 to 2020. The activity of the Polish institutions in the field of satellite geodesy and navigation are focused on the several main fields: • global and regional GPS and SLR measurements in the frame of International GNSS Service (IGS), International Laser Ranging Service (ILRS), International Earth Rotation and Reference Systems Service (IERS), European Reference Frame Permanent Network (EPN), • Polish geodetic permanent network – ASG-EUPOS, • modeling of ionosphere and troposphere, • practical utilization of satellite methods in local geodetic applications, • geodynamic study, • metrological control of Global Navigation Satellite System (GNSS) equipment, • use of gravimetric satellite missions, • application of GNSS in overland, maritime and air navigation, • multi-GNSS application in geodetic studies. Report -
New Opportunities for Ice Sheet Observations
Remote Sens. 2015, 7, 9371-9389; doi:10.3390/rs70709371 OPEN ACCESS remote sensing ISSN 2072-4292 www.mdpi.com/journal/remotesensing Article The Sentinel-1 Mission: New Opportunities for Ice Sheet Observations Thomas Nagler 1,*, Helmut Rott 1,2, Markus Hetzenecker 1, Jan Wuite 1 and Pierre Potin 3 1 ENVEO IT GmbH, Technikerstrasse 21a, A-6020 Innsbruck, Austria; E-Mails: [email protected] (H.R.); [email protected] (M.H.); [email protected] (J.W.) 2 Institute for Meteorology and Geophysics, University of Innsbruck, A-6020 Innsbruck, Austria 3 European Space Agency/ESRIN, via Galileo Galilei, I-00044 Frascati, Italy; E-Mail: [email protected] * Author to whom correspondence should be addressed; E-Mail: [email protected]; Tel.: +43-512-507-48300; Fax: +43-512-507-48319. Academic Editors: Nicolas Baghdadi and Prasad S. Thenkabail Received: 28 May 2015 / Accepted: 14 July 2015 / Published: 22 July 2015 Abstract: The Sentinel satellite constellation series, developed by the European Space Agency, represents the dedicated space component of the European Copernicus program, committed to long-term operational services in a wide range of application domains. Here, we address the potential of the Sentinel-1 mission for mapping and monitoring the surface velocity of glaciers and ice sheets. We present an ice velocity map of Greenland, derived from synthetic aperture radar (SAR) data acquired in winter 2015 by Sentinel-1A, the first satellite of the Copernicus program in orbit. The map is assembled from about 900 SAR scenes acquired in Interferometric Wide swath (IW) mode, applying the offset tracking technique. -
ODQN 10-1.Indd
National Aeronautics and Space Administration Orbital Debris Quarterly News Volume 10, Issue 1 January 2006 Collision Avoidance Maneuver Performed by NASA’s Terra Spacecraft Inside... The Terra spacecraft, often referred to as the ignator 1983-063C, U.S. Satellite Number 14222) fl agship of NASA’s Earth Observing System (EOS), would come within 500 m of Terra on 23 October, successfully performed a small collision avoidance GSFC and SSN personnel undertook a more de- Large Area Debris maneuver on 21 October 2005 to ensure safe passage tailed assessment of the coming conjunction. Collector (LAD-C) by a piece of orbital debris two days later. This ac- The Scout debris was in an orbit with an alti- Update ........................2 tion demonstrated the effectiveness of a conjunction tude similar to that of Terra (approximately assessment procedure implemented in 2004 680 km by 710 km), but its posigrade Revision of Space by personnel of the NASA Goddard inclination of 82.4° and different orbit Shuttle Wing Leading Space Flight Center (GSFC) and the plane meant that a collision would have Edge Reinforced U.S. Space Surveillance Network occurred at a high velocity of near- (SSN). The trajectories of Terra ly 12 km/s. By 21 October Carbon-Carbon Failure and its companion EOS space- refi ned analysis of the Criteria Based on craft are frequently com- future close approach Hypervelocity Impact pared with the orbits of indicated that the miss and Arc-Jet Testing ...3 thousands of objects distance was only ap- tracked by the SSN proximately 50 m with Object Reentry to determine if an an uncertainty that Survivability Analysis accidental collision yielded a probability Tool (ORSAT) – is possible. -
Outline of Aurora Funding
Outline of Aurora funding The £3 million from the Aurora Science Programme has gone to the following 17 academics and individual scientists working at UK research organisations: 1. An improved understanding of Mars photochemistry using NOMAD and ACS measurements – Professor Paul Palmer, Edinburgh University - £73,442 The proposal aims to develop the existing photochemistry (the chemistry effects of light) to prepare for measurements collected by the NOMAD and ACS instruments aboard the Trace Gas Orbiter. They will develop the chemical mechanism so it can be used to interpret observed variations of atmospheric gases on Mars. 2. Dust storms and the dust transport cycle: their impact on the Martian climate in a multi annual reanalysis of MCS, THEMIS and TGO/ACS data – Professor Peter Read, Oxford University - £346,592 The proposal aims to improve our understanding of the Martian dust cycle, its impact on climate and the physical features of the Martian surface. Using a new approach towards analysing daily variations in the Martian atmosphere it is proposed to extend this dataset using measurements of the Martian atmosphere from the Mars Reconnaissance Orbiter and Mars Odyssey missions in orbit around Mars, and from the Atmospheric Chemistry Suite (ACS) on ESA's Trace Gas Orbiter mission when they become available. This may be useful for future spacecraft operations at the Martian surface, as well as to improve our understanding of both the present and past states of the Martian climate. 3. ExoMars TGO Guest Investigator Support – Dr Matt Balme, Open University - £56,367 This proposal seeks funding for a Guest Investigator position on ESA's ExoMars Trace Gas Orbiter mission. -
Satellite Systems
Chapter 18 REST-OF-WORLD (ROW) SATELLITE SYSTEMS For the longest time, space exploration was an exclusive club comprised of only two members, the United States and the Former Soviet Union. That has now changed due to a number of factors, among the more dominant being economics, advanced and improved technologies and national imperatives. Today, the number of nations with space programs has risen to over 40 and will continue to grow as the costs of spacelift and technology continue to decrease. RUSSIAN SATELLITE SYSTEMS The satellite section of the Russian In the post-Soviet era, Russia contin- space program continues to be predomi- ues its efforts to improve both its military nantly government in character, with and commercial space capabilities. most satellites dedicated either to civil/ These enhancements encompass both military applications (such as communi- orbital assets and ground-based space cations and meteorology) or exclusive support facilities. Russia has done some military missions (such as reconnaissance restructuring of its operating principles and targeting). A large portion of the regarding space. While these efforts have Russian space program is kept running by attempted not to detract from space-based launch services, boosters and launch support to military missions, economic sites, paid for by foreign commercial issues and costs have lead to a lowering companies. of Russian space-based capabilities in The most obvious change in Russian both orbital assets and ground station space activity in recent years has been the capabilities. decrease in space launches and corre- The influence of Glasnost on Russia's sponding payloads. Many of these space programs has been significant, but launches are for foreign payloads, not public announcements regarding space Russian. -
Foi-R--5077--Se
Omvärldsanalys Rymd 2020 Fokus på försvar och säkerhet Sandra Lindström (red.), Kristofer Hallgren, Seméli Papadogiannakis, Ola Rasmusson, John Rydqvist och Jonatan Westman FOI-R--5077--SE Januari 2021 Sandra Lindström (red.), Kristofer Hallgren, Seméli Papadogiannakis, Ola Rasmusson, John Rydqvist och Jonatan Westman Omvärldsanalys Rymd 2020 Fokus på försvar och säkerhet FOI-R--5077--SE Titel Omvärldsanalys Rymd 2020 – Fokus på försvar och säkerhet Title Global Space Trends 2020 for Defence and Security Rapportnr/Report no FOI-R--5077--SE Månad/Month Januari Utgivningsår/Year 2021 Antal sidor/Pages 127 ISSN 1650-1942 Kund/Customer Försvarsmakten Forskningsområde Flygsystem och rymdfrågor FoT-område Sensorer och signaturanpassningsteknik Projektnr/Project no E60966 Godkänd av/Approved by Lars Höstbeck Ansvarig avdelning Försvars- och säkerhetssystem Bild/Cover: Tre gröna lasrar från Starfire Optical Range på Kirtland Air Force Base i New Mexico, USA. Anläggningen används bland annat för inmätning av objekt i låga satellitbanor. Den allmänna uppfattningen (men ej officiell) är att lasern även kan användas som ASAT-vapen. Källa: Directed Energy Directorate, US Air Force. Detta verk är skyddat enligt lagen (1960:729) om upphovsrätt till litterära och konstnärliga verk, vilket bl.a. innebär att citering är tillåten i enlighet med vad som anges i 22 § i nämnd lag. För att använda verket på ett sätt som inte medges direkt av svensk lag krävs särskild överenskommelse. This work is protected by the Swedish Act on Copyright in Literary and Artistic Works (1960:729). Citation is permitted in accordance with article 22 in said act. Any form of use that goes beyond what is permitted by Swedish copyright law, requires the written permission of FOI. -
Atmospheric Dynamics Mission. the Phase-A Studies Were All Completed in June 1999
ESA SP-1233 (4) July 1999 Reports for Mission Selection THE FOUR CANDIDATE EARTH EXPLORER CORE MISSIONS Atmospheric Dynamics Mission ESA SP-1233 (4) – The Four Candidate Earth Explorer Core Missions – ATMOSPHERIC DYNAMICS _________________________________________________________________ Report prepared by: Earth Sciences Division Scientific Co-ordinator: Paul Ingmann Earth Observation Preparatory Programme Technical Co-ordinator: Joachim Fuchs Cover: Richard Francis & Carel Haakman Published by: ESA Publications Division c/o ESTEC, Noordwijk, The Netherlands Editor: Bruce Battrick Copyright: © 1999 European Space Agency ISBN 92-9092-528-0 Price: 70 DFl CONTENTS 1 INTRODUCTION................................................................................................................................5 2 BACKGROUND AND SCIENTIFIC JUSTIFICATION...............................................................9 2.1 GLOBAL WIND PROFILE MEASUREMENTS FOR CLIMATE AND NWP........................................9 2.2 THE NEED FOR ATMOSPHERIC WIND FIELDS FOR ATMOSPHERIC ANALYSES .........................10 2.3 POTENTIAL IMPROVEMENT OF NWP BY ENHANCED WIND OBSERVATIONS ...........................14 2.4 THE NEED FOR ATMOSPHERIC WIND FIELDS FOR CLIMATE STUDIES......................................22 2.5 FUTURE STUDIES AND PERSPECTIVES AIMING AT IMPROVING THE WIND FIELD KNOWLEDGE IN THE POST-2000 TIME FRAME ................................................................................................31 2.6 CONCLUSIONS ON NWP AND CLIMATE STUDIES ......................................................................33 -
Territorial Satellite Technologies the NEREUS Network’S Italian Partners’ Experiences
Territorial satellite technologies The NEREUS Network’s Italian partners’ experiences December 2011 1 Contents 1. FOREWORD .............................................................................................................. 5 1.1. Reasons behind and object of this document ........................................................... 5 1.2. Activities conducted for the monitoring procedure .................................................. 6 PART I – THE SATELLITE APPLICATIONS CHART ........................................................... 9 2. SUPPLY AND DEMAND RELATING TO SATELLITE SERVICES IN THE CONTEXT OF THE NEREUS NETWORK’S ITALIAN PARTNERS .................................................................................. 10 2.1. Criteria adopted for the survey on the supply of and demand for satellite services 10 2.2. The chart of the Italian NEREUS partners’ satellite applications ............................. 12 PART III – ANALYSES AND PROPOSALS ...................................................................... 70 3. ELEMENTS EMERGING FROM THE SUPPLY AND DEMAND CHART ........................................ 71 3.1. Quantitative outline of the supply and demand chart ............................................ 71 3.2. Schemes identified as a demand needing to be met ............................................... 72 3.3. Projects in the “pre‐operational” stage and close to “end‐user needs” .................. 76 4. CONCLUSIONS ...................................................................................................