RAPID DEVELOPMENT OF NAVIGATION PAYLOADS FOR GALILEO FULL OPERATIONAL CAPABILITY

Similar documents
Status of European GNSS

Galileo. 7th ITFS, Rome, Italy, 3-5 November Dr. Stefan Bedrich. Kayser-Threde GmbH Wolfratshauser Str Munich

THE GIOVE-A SMALL NAVIGATION MISSION

Development of the Navigation Payload for the Galileo In-Orbit Validation (IOV) Phase

The EU Satellite Navigation programmes status Applications for the CAP

European Geostationary Navigation Overlay Service (EGNOS) Capability on Sirius 5 Satellite for SES

Galileo Programme Update

Cover. DLR-ESA Workshop on ARTES-11. SGEO: Implementation of of Artes-11. Dr. Andreas Winkler

GNSS Programme. Overview and Status in Europe

Galileo signal reflections used for monitoring waves and weather at sea

The Galileo and EGNOS Programmes

Preparation for Flight of Next Generation Space GNSS Receivers

Introduction to Galileo PRS

Global Navigation Satellite Systems (GNSS)

MEMS in Space A New Technology Advancing from Flight Experiment to Proven COTS Product

A Satellite for the Galileo Mission

Galileo Programme Update Market opportunities for E-GNSS

GALILEO Workshop, 26.Sep Marco FALCONE GALILEO System Engineering Manager GALILEO Project Office Tel

Changing the economics of space. STRaND-1 & TDS-1. How the UK does Low Cost TechDemo Missions. Shaun Kenyon Mission Concepts, SSTL

The Mid-term Review of the European Satellite Radio Navigation Programmes Galileo and EGNOS: Questions and Answers

The European Satellite Radio Navigation Programmes Galileo and EGNOS: Questions and Answers

GLONASS PROGRAMME UPDATE

Galileo & EGNOS Programmes Status

Global navigation satellite systems (GNSS) - European Galileo system

Galileo. Development Status. Navigare'09 à Neuchâtel DR. MARTIN HOLLREISER GALILEO PROJECT OFFICE - EUROPEAN SPACE AGENCY

Satellite navigation applications: opportunities from the European GNSS. Fiammetta Diani Deputy Head of Market Development European GNSS Agency

The Triumph of GIOVE-A

Precise Point Positioning with BeiDou

Using COTs components to Reduce Space Mission Costs: Facts, Myths, Advantages & Pitfalls

The EU GNSS Programmes: EGNOS, GALILEO Status & International Cooperation

Challenges and Solutions for GPS Receiver Test

Galileo Aktueller Stand der Entwicklung

ESA/CNES/ARIANESPACE-Service Optique CSG, S. Martin ABUJA, OCTOBER 2018

EGNOS/GALILEO Status. Rafael Lucas Navigation Applications and User Services Office European Space Agency

GALILEO READY TO LINK WITH INSPIRE

Global Navigation Satellite System (GLONASS): Status and Development

Status of the European EGNOS and Galileo Programmes. Frank Udnaes Galileo policy and Infrastructure group EC DG-TREN. June 2008

ORBITAL NAVIGATION SYSTEMS PRESENT AND FUTURE TENDS

RESPONSE TO THE HOUSE OF COMMONS TRANSPORT SELECT COMMITTEE INQUIRY INTO GALILEO. Memorandum submitted by The Royal Academy of Engineering

European GNSS Applications in H2020

SPACE-BASED SOLUTIONS & ANALYTICS

Galileo Space Infrastructure R&D

Nigerian Communications Satellite Ltd. (NIGCOMSAT)

Overview of the global GNSS market and status of Galileo

Future Concepts for Galileo SAR & Ground Segment. Executive summary

Indian Regional Navigation Satellite System (IRNSS) / Navigation with Indian Constellation (NavIC) and GPS Aided Geo Augmented Navigation (GAGAN)

TECHNICAL STATUS OF THE GALILEO SYSTEM DEVELOPMENT

Galileo Information Center for Latin America / Application of the ISMR Query Tool in the analysis of Ionospheric Scintillation from Galileo Satellites

UPDATE ON EGNOS AND GALILEO

GBAS FOR ATCO. June 2017

Radio Navigation Aids Flight Test Seminar

EGNOS GEO Transponder Service Replenishment

A Global System for Detecting Dangerous Seas Using GNSS Bi-static Radar Technology

ICG-12 Kyoto Japan WG-B December Dr. Lisa Mazzuca

King AbdulAziz University. Faculty of Environmental Design. Geomatics Department. Mobile GIS GEOM 427. Lecture 3

DEFINING THE FUTURE OF SATELLITE SURVEYING WITH TRIMBLE R-TRACK TECHNOLOGY

SAMARA Satellite communication system for Atm service

GPS/WAAS Program Update

GALILEO AND EGNOS VALUE PROPOSITION FOR E112

Overview of Galileo & EGNOS

The topic we are going to see in this unit, the global positioning system, is not directly related with the computer networks we use everyday, but it

SNAV: SBAS self-standing Navigation Payload based on Artemis Experience.

GALILEO : Satellite System Design and Technology Developments. J. Benedicto, S.E.Dinwiddy, G. Gatti, R. Lucas, M. Lugert. European Space Agency

The European Satellite Navigation Programmes EGNOS and Galileo

ESA/CNES/ARIANESPACE Service Optique CSG, S. Martin. IGNSS 2018 Sydney

The last 25 years - GPS to multi-gnss: from a military tool to the most widely used civilian positioning solution

Galileo will boost economy and make life of citizens easier

European GNSS Evolution

IMO WORLD-WIDE RADIONAVIGATION SYSTEM (WWRNS) GALILEO receiver performance standards. Submitted by the European Commission

Lecture-1 CHAPTER 2 INTRODUCTION TO GPS

GNSS Programmes and R&D landscape in the EU

GLONASS: Current status and perspectives

Prepared by Dr. Javier Ventura-Traveset

Annex B: HEO Satellite Mission

UPDATE ON GALILEO DEVELOPMENTS AND THE AVAILABLE SERVICES

Satellite Technology for Future Applications

GNSS Modernisation and Its Effect on Surveying

Introduction to Galileo

EGNOS Operations Oper and T and heir T Planned Ev E olution v

Principal Investigator Co-Principal Investigator Co-Principal Investigator Prof. Talat Ahmad Vice-Chancellor Jamia Millia Islamia Delhi

WELCOME TO Galileo: At the Dawn of a New Age of GNSS Services

Developments in GNSS Reflectometry from the SGR-ReSI on TDS-1

What s new in satellite navigation for road. Fiammetta Diani, Deputy Head Market Development Department European GNSS Agency

Prospects for Status and Development of GLONASS System Space Complex

MEOSAR & GPS ICG WG-B Vienna Austria, June 2016

Update on BeiDou Navigation Satellite System

GLOBAL NAVIGATION SATELLITE SYSTEMS (GNSS) ECE 2526E Tuesday, 24 April 2018

world leader in capacity, performance and costefficiency.

35th AIAA ICSSC Colloquium: High Throughput Satellite (HTS) Broadband Opportunities: Orbits, Architectures, Interference and Markets

Current status of Quasi-Zenith Satellite System. Japan Aerospace Exploration Agency QZSS Project Team

International Cospas-Sarsat Programme : From operations to MEOSAR prospects

Dimov Stojče Ilčev. CNS Systems

GNSS: CNS Dependencies

Chapter 2 Modernization of GNSS

BENEFITS OF A SPACE-BASED AUGMENTATION SYSTEM FOR EARLY IMPLEMENTATION OF GPS MODERNIZATION SIGNALS

Innovation Needs Support: Two Examples of German Support Strategy in Satcom

Galileo Performance Update Rafael Lucas European Space Agency

Relative positioning with Galileo E5 AltBOC code measurements

DLR s Optical Communications Program for 2018 and beyond. Dr. Sandro Scalise Institute of Communications and Navigation

Risk Mitigation in the Ground Mission Segment using the Galileo System Test Bed

Transcription:

Changing the economics of space RAPID DEVELOPMENT OF NAVIGATION PAYLOADS FOR GALILEO FULL OPERATIONAL CAPABILITY Alex da Silva Curiel Dubai, January 2011

SSTL - the company UK-based satellite manufacturing company owned by EADS Astrium NV (99%) and the University of Surrey (1%) Formed in 1985, the Company now employs >320 staff and occupies dedicated facilities in Surrey, Kent & Colorado 2

A history of success 34 Satellites completed c.200 satellite years on-orbit experience 10 Further satellites (35-43) - currently being prepared for launch 18 payloads in progress (4 optical, 14 navigation) HERITAGE: RESULTS: Flight proven - low risk All projects fixed price, delivered on-time and on-budget SUCCESS: Very high mission success 100% mission success in last 10 years proven equipment and full redundancy CUSTOMERS: Variety of customers including many blue chip operators as well as 15 successful training programmes 3

What is Galileo? Galileo is a joint initiative of the European Commission (EC) and the European Space Agency (ESA). Galileo will be Europe s own global navigation satellite system, providing a highly accurate, guaranteed global positioning service under civilian control. It will be inter-operable with GPS and GLONASS, the two other global satellite navigation systems 4

Galileo Services Galileo offers 5 services: Open signal, dual frequency, mass market use Commercial signal, better accuracy, service guarantee authenticated data Safety-of-Life signal, high integrity service certified for use in safety related applications Search & Rescue, allows emergency services to locate users in distress Public Regulated signal, for use by government approved users 5

Galileo Signals OS OS/SOL/CS CS PRS PRS OS/SOL/CS E2 -L1 -E1 1559 MHz 1575.42 MHz 1591 MHz Open Service (OS) Commercial Service (CS) Safety-of-Life Service (SOL) Public Regulated Service (PRS) SAR Downlink L1E1E2, E5a, E5b E6 L1E1E2, E5b L1E1E2, E6 1544-1544.2 MHz 6

SSTL s First Role GIOVE-A Satellite GIOVE-A was the first Galileo Satellite Test bed for claiming ITU frequencies, flight testing Galileo equipment, generating representative signals and characterising radiation environment required 2 year life (now operating for >4 years) Delivered in 28months for 28M; launched 28 December 2005, Navigation signals generated 12 January 2006 2008 ESA declares Full Mission Success 7

The System Satellites, Launchers, Ground Systems 10

The Constellation FOC is 30 satellites 27 plus 3 on-orbit spares 11

The Satellites Mass 730kg, 2.5 x 1.2 x 1.1m, Span 14.9m, 12 Year Life 12

Deltas GIOVE-A -> FOC Lifetime: 12 years vs. 2 years Launch: 2x (Soyuz) or 4x (Ariane) Services: All Performance: PHM for better clock stability Interfaces: Standard GCS/GMS interfaces Security: Added Production: Production line required 13

Navigation Payload Delivered as set of 3 panels per satellite: Clock module, Antenna module, Core module Antenna module Galileo Payload Payload Core module Clock module 14

Modular Satellite Design Allows bus and payload to be developed in parallel 15

Payload Equipment Suppliers EGSE Terma FGUU, SART Norspace MISANT RUAG AIT OHB RTU, Harness SSTL LRA PSI CMCU Astrium OMUX COMDEV EGSE Siemens SARANT Rymsa PHM Selex Galileo MISREC Mier MPM Tesat NAVANT Thales Alenie Space RAFS Spectratime NSGU Thales Alenie Space 16

Facilities for Payload AIT New facilities being built next to SSTL HQ building SSTL investment Building work started on 1 st June 2010 Completed spring 2011 Project will start using existing facilities co-located at Uni Surrey 17

Satellite Model Philosophy & Production (AIT) Development Models (2): Structural model & engineering model (SM, EM) Flight Models (14): Protoflight model, flight models (PFM, FM) Payload integration and test in Guildford Island approach to satellite integration and test in Bremen 18

Launch Initial launch contract from ESA to Arianespace using Soyuz-Fregat from French Guyana 5 Soyuz, 2 satellites per launch Possibility of 4 satellites per Ariane-5 for later launches 19

Programmatics 20

Galileo FOC Satellites Current Status SSTL project team in place Major subcontractors kicked-off D-PDR Completed, Autumn 2010 Next major milestone EM Delivery MDF Harness Jig in AIT 21

Changing the economics of space Regional Navigation System Options

SBAS Current Space Based Augmentation Systems Broadcast integrity information and differential corrections to supplement GPS/GLONASS service for safety-of-life users Single-frequency signals at GPS L1 (1575.42 MHz) WAAS in US, EGNOS in Europe, MSAS in Japan SBAS payloads currently leased on Inmarsat GEO satellites Inmarsat-4 satellites have upgraded navigation payload Dual-frequency signals at GPS L1 and L5 (1176.45 MHz) L1 signals will have wider bandwidth Inmarsat satellites positioned over oceans Poor coverage over large land-masses Only one WAAS satellite visible to vast majority of users in continental US Represents single point of failure 23

SBAS Expansion SBAS service providers are eager to expand availability of GEO transponders Piggyback opportunities on commercial GEO sats are expensive, rare, & non-optimal orbital positions Service providers could consider dedicated SBAS satellites Low cost satellite could be good solution if cost competitive with piggyback options Payload can be either bent-pipe or regenerative Bent-Pipe Similar to Inmarsat payload design, directly compatible with WAAS, etc. But bent-pipe configuration uses two independent clock sources (one in ground station, one on satellite), and difficult to maintain code/carrier coherency of broadcast signals Regenerative payload Signals derived from one on-board clock, so coherent Modulators should be programmable, can vary signals 24

GMP - Geostationary modular platform Beyond LEO - designed for MEO, GEO, HEO, Interplanetary Orbits Three variants: GMP-D, Direct Injection GMP-T, GTO Injection GMP-L, Electric Propulsion Key parameters: 12+ year design life Station keeping through hydrazine or bi-prop propulsion system Modular & flexible design Payload accommodation (GMP-T) 200kg, 2.5kW (Typical comms) 260kg, 1.0kW (Other apps) Flight heritage: ESA GIOVE-A (2005-) Development through ESA ARTES-4 25

GMP-D Payload Capability Navigation payloads easily accommodated on GMP-D 26

SBAS Bent-Pipe Payload Based on GMP-D platform (GIOVE-A heritage) Carries Inmarsat-4 type navigation payload Broadcasts dual-frequency signals at GPS L1 and L5 Simple payload Receive C-band uplink signals, downconvert to IF of 450-500 MHz, filter and amplify IF, upconvert to L-band Requires no knowledge of signal modulation or data streams 27

SBAS Regenerative Payload Payload generates SBAS signals onboard the satellite Retrieves integrity and navigation data from uplinked signals Generates SBAS data messages and spreading codes Broadcasts SBAS signals at GPS L1 and L5 Signals compatible with Inmarsat-4 service Directly achieve code/carrier coherency Requires 10.23 MHz Rubidium atomic frequency standard onboard the satellite Some programmability in FPGA-based signal generator 28

Conclusions Galileo FOC Space Segment: 18 satellites now under contract 4 IOV satellites 14 FOC satellites OHB/SSTL FOC satellites build on prior company experience: GIOVE for the payload FOC satellites In design Major subcontractors chosen design for manufacture Satellite production line starting in 2012 SBAS can be cheaply implemented as dedicated satellites Offers low cost rapid way to achieve redundant signals Either Bent-pipe option (as currently implemented) Or regenerative payload 29

Changing the economics of space Thank you SSTL s work on Galileo FOC is funded under a programme of the European Union and executed under a contract with the European Space Agency. The views of the author expressed herein can in no way be taken to reflect the official opinion of the European Union and/or ESA. The OHB project is funded by, and part of, the Galileo programme which is an initiative by the European Union (EU), and where the European Space Agency (ESA) acts in the name of, and on behalf of, the EU. "Galileo" is a trademark subject to OHIM application number 002742237 by EU and ESA. Surrey Satellite Technology Ltd. Tycho House, 20 Stephenson Road, Surrey Research Park, Guildford, Surrey, GU27YE, United Kingdom Tel: +44(0)1483803803 Fax:+44(0)1483803804 Email: info@sstl.co.uk Web:www.sstl.co.uk