ARIANEGROUP ORBITAL PROPULSION ROBERT-KOCH-STRASSE TAUFKIRCHEN GERMANY

Similar documents
ARIANEGROUP ORBITAL PROPULSION ROBERT-KOCH-STRASSE TAUFKIRCHEN GERMANY

ARIANEGROUP ORBITAL PROPULSION ROBERT-KOCH-STRASSE TAUFKIRCHEN GERMANY

ARIANEGROUP ORBITAL PROPULSION ROBERT-KOCH-STRASSE TAUFKIRCHEN GERMANY

Development of Low-thrust Thruster with World's Highest Performance Contributing to Life Extension of Artificial Satellites

ARCHIVED REPORT. For data and forecasts on current programs please visit or call

AMBR* Engine for Science Missions

esoc CLASSIFICATION OF GEOSYNCHRONOUS OBJECTS Produced with the DISCOS Database

A Stable Liquid Mono-Propellant based on ADN

Appraisal of initiated ESA propulsion developments for Exploration Missions

Back to. Communication Products Group. Technical Notes. Ku- and C-Band Satellites Uplink, Downlink and Translation Frequencies

SMALLSAT PROPULSION. Pete Smith, Roland McLellan Marotta UK Ltd, Cheltenham, and Dave Gibbon SSTL, Guildford, UK.

Enabling High Performance Green Propulsion for SmallSats

Space Propulsion. An Introduction to.

LUNAR INDUSTRIAL RESEARCH BASE. Yuzhnoye SDO proprietary

RDT&E BUDGET ITEM JUSTIFICATION SHEET (R-2 Exhibit) June 2001

ENERGIA 1. IDENTIFICATION. 1.1 Name. 1.2 Classification Family : K Series : K-1/SL-17 Version : 4 strap-ons

QinetiQ Electric Propulsion

HYDROS Development of a CubeSat Water Electrolysis Propulsion System

Electric propulsion Activities at ESA

High Performance Green Propulsion (HPGP): A Flight-Proven Capability and Cost Game-Changer for Small and Secondary Satellites Aaron Dinardi

AN OPTIMIZED PROPULSION SYSTEM FOR Soyuz/ST

POWER PROCESSING UNIT ACTIVITIES AT THALES ALENIA SPACE BELGIUM (ETCA) SPC-2014

Space Propulsion. An Introduction to. Stephen Hevert Visiting Assistant Professor Metropolitan State College of Denver

OLEV AN ON-ORBIT SERVICING PROGRAM FOR COMMERCIAL SPACECRAFTS IN GEO

6. The Launch Vehicle

The 1 N HPGP thruster is designed for attitude and orbit control of small-sized satellites. FLIGHT-PROVEN. High Performance Green Propulsion.

Development and Testing of a Small Hybrid Rocket Motor for Space Applications

EPIC Workshop 2017 SES Perspective on Electric Propulsion

CHAPTER 2 GENERAL DESCRIPTION TO LM-2E

The 1 N HPGP thruster is designed for attitude and orbit control of small-sized satellites. FLIGHT-PROVEN.

THE FIRST IN-SPACE DEMONSTRATION OF A GREEN PROPULSION SYSTEM

VACCO ChEMS Micro Propulsion Systems Advances and Experience in CubeSat Propulsion System Technologies

Lunar Cargo Capability with VASIMR Propulsion

OMOTENASHI. (Outstanding MOon exploration TEchnologies demonstrated by NAno Semi-Hard Impactor)

CONTENTS Duct Jet Propulsion / Rocket Propulsion / Applications of Rocket Propulsion / 15 References / 25

In-Space Demonstration of HighPerformance Green Propulsion (HPGP) and its Impact on Small Satellites

Closed-loop thrust control in a MEMS-based micro propulsion module for CubeSats

r bulletin 96 november 1998 Figure 1. Overall ATV configuration (ESA/D. Ducros)

AFRL Rocket Lab Technical Overview

Prototype Development of a Solid Propellant Rocket Motor and an Electronic Safing and Arming Device for Nanosatellite (NANOSAT) Missions

ELECTRIC PROPULSION MISSION TO GEO USING SOYUZ/FREGAT LAUNCH VEHICLE M.S. Konstantinov *, G.G. Fedotov *, V.G. Petukhov ±, G.A.

Philae : A made to measure battery. Richard Hague ESTEC AIM Workshop 22/23 Feb 2016

CHAPTER 2 GENERAL DESCRIPTION TO LM-3C

Subjects: Thrust Vectoring ; Engine cycles; Mass estimates. Liquid Bipropellant rockets are usually "gimballed" to change the thrust vector.

H-IIA Launch Vehicle Upgrade Development

Lunar Surface Access from Earth-Moon L1/L2 A novel lander design and study of alternative solutions

VEGA SATELLITE LAUNCHER

The GHOST of a Chance for SmallSat s (GH2 Orbital Space Transfer) Vehicle

Electric Propulsion Electronics Activities in Astrium Germany

POWER PROCESSING UNIT ACTIVITIES AT THALES ALENIA SPACE BELGIUM (ETCA) SPACE PROPULSION 2016 MARRIOTT PARK HOTEL, ROME, ITALY / 2 6 MAY 2016

EuLISA. <Chemical Propulsion> Internal Final Presentation ESTEC, 8 July Prepared by the ICPA / CDF* Team. (*) ESTEC Concurrent Design Facility

SPACE LAUNCH SYSTEM (SLS)

Typical Rocketry Exam Questions

Fluid Propellant Fundamentals. Kevin Cavender, Franco Spadoni, Mario Reillo, Zachary Hein, Matt Will, David Estrada

Development of a Nitrous Oxide Monopropellant Thruster

Proton Launch System Mission Planner s Guide APPENDIX A. Proton Launch System Description and History

LOGOTYPE TONS MONOCHROME

LOW-COST TANKAGE PROVIDED FOR RECENT DISCOVERY MISSIONS

An Overview of Electric Propulsion Activities in China

SDO YUZHNOYE S CAPABILITIES IN SPACE DOMAIN

Resistojet Thrusters for Auxiliary Propulsion of Full Electric Platforms

IAC-04-IAF-S.2.06 NEW PROPELLANT IGNITION SYSTEM IN LV SOYUZ ROCKET ENGINE CHAMBERS

U.S. Leadership in Electric Propulsion

CHAPTER 1 INTRODUCTION

Rocketry and Spaceflight Teleclass Webinar!

apply to all. space because it is an air-breather. Although from the atmosphere to burn its fuel. This limits

Unlocking the Future of Hypersonic Flight and Space Access

Suitability of reusability for a Lunar re-supply system

Additively Manufactured Propulsion System

Adrestia. A mission for humanity, designed in Delft. Challenge the future

The Mars Express Mission A Continuing Challenge. Erhard Rabenau, NOVA Space Associates Ltd Mars Express Senior Mission Planner

Study and Development of Throttleable Hybrid Rocket Motors

An Update on SKYLON. Alan Bond Managing Director & Chief Engineer Reaction Engines Ltd. REACTION ENGINES LTD

Liquid Rocket Propulsion for Atmospheric Flight in the Proposed ARES Mars Scout Mission

Low Cost Propulsion Systems for Launch-, In Space- and SpaceTourism Applications

Monopropellant Micro Propulsion system for CubeSats

EPIC Gap analysis and results

Innovative Small Launcher

How Does a Rocket Engine Work?

Access to Space. ISRO s Current Launch. & Commercial Opportunities. S Somanath Project Director, GSLV Mk III VSSC, ISRO

Supersonic Combustion Experimental Investigation at T2 Hypersonic Shock Tunnel

Next Steps in Human Exploration: Cislunar Systems and Architectures

Challenges of Designing the MarsNEXT Network

Program update February, 2017

All-Electric CubeSat Propulsion Technologies

Alternative technologies and possible competitors in the satellite business

Performance and Thermal Characteristics of High-Power Hydrogen Arcjet Thrusters with Radiation-Cooled Anodes for In-Space Propulsion

Copyright 2016 Boeing. All rights reserved.

SOLUTIONS OUR EXPERTISE YOUR SPECS SOLENOID VALVES FOR YOUR APPLICATION MINIATURE PILOTING GREAT. The Lee Company. Innovation in Miniature

USA FALCON 1. Fax: (310) Telephone: (310) Fax: (310) Telephone: (310) Fax: (310)

DEVELOPMENT OF A 250 lbfv KEROSENE 90% HYDROGEN PEROXIDE THRUSTER

Leading the Way to Electric Propulsion in Belfast

TPS Portfolio Status and Recent Developments

USA DELTA DELTA Mc DONNELL DOUGLAS SPACE SYSTEMS

VACCO ChEMS. Micro Propulsion Systems

Rocket 101. IPSL Space Policy & Law Course. Andrew Ratcliffe. Head of Launch Systems Chief Engineers Team

Development of Internationally Competitive Solid Rocket Booster for H3 Launch Vehicle

Transportation Options for SSP

BIMODAL NUCLEAR THERMAL ROCKET (BNTR) PROPULSION FOR FUTURE HUMAN MARS EXPLORATION MISSIONS

BIMODAL NUCLEAR THERMAL ROCKET (BNTR) PROPULSION FOR FUTURE HUMAN MARS EXPLORATION MISSIONS

Transcription:

www.ariane.group ARIANEGROUP ORBITAL PROPULSION ROBERT-KOCH-STRASSE 1 82024 TAUFKIRCHEN GERMANY SUSANA CORTÉS BORGMEYER SUSANA.CORTES-BORGMEYER@ARIANE.GROUP PHONE: +49 (0)89 6000 29244 WWW.SPACE-PROPULSION.COM

10N, 200N, 400N CHEMICAL BI-PROPELLANT THRUSTER FAMILY

CHEMICAL BIPROPELLANT THRUSTER FAMILY For over 40 years, our bipropellant thrusters have been used in a diverse range of missions, including boost and on-orbit maneuvering of geostationary satellites and deep space probes. The provided thrust ranges from 10N up to 400N. The 10N and the 400N thrusters are part of our chemical propulsion systems mainly flying in commercial GEO program. Also recent science missions like Rosetta and Gaia and future challenging missions like Bepi Colombo, Lisa Pathfinder and Solar Orbiter rely on our 10N and 400N workhorse thrusters. The 200N thruster was developed for the Automated Transfer Vehicle (ATV) where it demonstrated flawlessly its performance on several missions. It has been selected to fly in the future Multi Purpose Crew Vehicle (MPCV). 10N 200N

400N

10N BI-PROPELLANT THRUSTER DESIGNED FOR PRECISION ATTITUDE, TRAJECTORY AND ORBIT CONTROL OF SATELLITES. The 10N bipropellant thruster is a small rocket engine that uses the storable propellants monomethylhydrazine MMH as fuel and pure di-nitrogen-tetroxide N2O4, or mixed oxides of nitrogen (MON-1, MON-3) as oxidizer. It is designed for both, long term steady state and pulse mode operation. It operates in a wide pressure range at regulated pressure as well as in system blow down mode with flight heritage down to 6 bar inlet condition. Combustion chamber and nozzle are made of platinum alloy that does not need any surface coating. It allows operational temperatures up to 1.500 C (2700 F) and thus maximum thruster performance. The uncoated surface is absolutely resistant against oxidization and thus is invulnerable to mishandling, micrometeoroid impact as well as to application of test sensors and to millions of pulse cycles. Trimming orifices between valve and injector provide for individual adjustment of the propellant flow according to the designed system pressure. Two types of propellant flow control valves may be applied: single seat or dual seat equipped with torque or linear motors. 10N Bi-Propellant Thruster Key Technical Characteristics Thrust Nominal Thrust Range Specific Impulse at Nominal Point Flow Rate Nominal Flow Rate Range 10 N (2.2 lbf) 6.0 12.5 N 292 s 3.50 g/s 2.30 4.20 g/s Mixture Ratio Nominal 1.60 1.65 Mixture Ratio Range 1.20 2.10 Chamber Pressure Nominal Inlet Pressure Range Throat Diameter (inner) Nozzle End Diameter (inner) 9 bar 10 23 bar 2.85 mm 35 mm Nozzle Expansion Ratio (by area) 150 Mass, Thruster with Valve Chamber Nozzle Material Fuel Oxidizer 350 g (single seat) 650 g (dual seat) Platinum/Rhodium Alloy MMH N 2 O 4, MON-1, MON-3 10N Bi-Propellant Thruster with Single Seat Valve 10N Bi-Propellant Thruster with Dual Seat Valve Valve Single Seat Valve Dual Seat Mounting I/F to S/C Tubing I/F Valve Lead Wires Thruster Heater and Thermal Sensor Qualified longest single burn Qualified accumulated burn life Qualified cycle life Bi-propellant torque motor valve Bi-propellant torque or linear motor valves Valve flange with 3 through-holes of 6.4 mm (1/4 ) diameter Per SAE AS4395E02 or welded 24 AWG per MIL-W-81381 On request 8 hours 69 hours 1.100.000 cycles 10N Bi-Propellant Thruster with Dual Seat Airbus Valve

10N Bi-Propellant Thruster Heritage and Future Missions Our 10N Thrusters are flying since 1974. The Table below starts with launch year 2010. For earlier satellites please contact ArianeGroup (contact details on last page). Spacecraft Launch Year Spacecraft Launch Year Spacecraft Launch Year Arabsat 5A 2010 YAHSAT 1B 2012 DirecTV 15 2015 Arabsat 5B 2010 AMOS 4 2013 Hispasat 1 AG 2015 Astra 3B 2010 Alphasat PFM 2013 TELSTAR 12V 2015 COMS 2010 Astra 2E 2013 AMU-1 2015 KA-SAT 2010 W3D 2013 Eutelsat 8WB 2015 MILSAT-B 2010 SES-6 2013 AMOS 6 2015 Nilesat 201 2010 GAIA 2013 SkyBrasil 2015 Rascom-2 2010 AthenaFidus 2014 AMOS 6 R 2016 W3B 2010 Astra 2G 2014 Bepi Colombo 2016 Arabsat 5C 2011 Astra 5B 2014 EDRS-C 2016 Astra 1N 2011 ARSAT 1 2014 SES-10 2016 Atlantic Bird 7 2011 Ekspress-AM4R 2014 SGDC 2016 Ekspress AM4 2011 Eutelsat 3B 2014 Koreasat 7 2016 W3C 2011 MEASAT 3B 2014 Exomars Orbiter 2016 Yahsat 1A 2011 Arabsat 6B 2015 Echostar 105 2017 Apstar7 2012 ARSAT 2 2015 Eutelsat 172B 2017 Astra 2F 2012 Eutelsat 9B 2015 SES-12 2017 MSG FM3 2012 LISA-Pathfinder 2015 Solar Orbiter 2017 SK5D 2012 MSG FM4 2015 MTG 2019 W5A 2012 Ekspress-AM7 2015 W6A 2012 Sicral2 2015

200N BI-PROPELLANT THRUSTER DESIGNED FOR ATTITUDE, ORBIT CONTROL AND RE-ENTRY MANEUVRES OF MAN-RATED HEAVY SPACECRAFT. The 200N bipropellant engine was developed and qualified for application as attitude control, maneuvering and braking thruster of ESA s ATV. The engine is designed to be capable of both steady-state and pulse mode in a very broad regimes of inlet conditions and exhibits outstanding thermal and combustion stability even at extreme conditions. To meet the specific FDIR needs of man rated missions, the engine is equipped with several flight temperature sensors for e.g. in-flight leak detection and a combustion pressure transducer. OX-Side FCV FU-Side FCV Chamber pressure sensor (PC-Sensor) Titanium Injector / Housing Figure 1: 200N Thruster firing test in high-altitude chamber 3 Thermistors Thermal Control & Leak Detection Platinum Thermal Resistor (TC-Sensor) Figure 2: Infrared camera image Niobium C-103 Chamber/Nozzle & R512E oxidation protective coating

200N Bi-Propellant Thruster Key Technical Characteristics Thrust Nominal 216N ± 10N Thrust Range 180N ± 15N to 270N ± 15N Specific Impulse at Nominal Point > 2650 Ns/kg (> 270s) Flow Rate Nominal 78 g/s Flow Rate Range 60 to 100 g/s Mixture Ratio Nominal 1.65 ± 0.035 Mixture Ratio Range 1.2-1.9 Chamber Pressure Nominal 8 bar Inlet Pressure Range 17 ± 7 bar Minimum on time 28 ms Minimum off time 28 ms Minimum impulse bit < 8 Ns at 28 ms Pulse frequency 1 to 5 Hz 200N Bi-Propellant Thruster Heritage and Future Missions Spacecraft ATV - 1 Jules Verne 2008 ATV - 2 Johannes Kepler ATV - 3 Edoardo Amaldi ATV - 4 Albert Einstein ATV - 5 Georges Lemaître Orion MPCV-ESM EM-1 Orion MPCV-ESM EM-2 Launch Year 2011 2012 2013 2014 2018 2021 Throat Diameter (inner) Nozzle End Diameter (inner) 12 mm 95 mm Nozzle Expansion Ratio (by area) 50 Injector type Mass, Thruster with Valves and instrumentation Chamber / Nozzle Material Fuel Oxidizer Valve Cumulated on time Impingement with film cooling 1,9 kg SiCrFe coated niobium alloy MMH (qualified ) / UDMH (demonstrated) MON-3 (qualified) / N2O4 (demonstrated) Monostable dual coil solenoids, 32 W 46500 s Cumulated number of pulses 320.000 Number of full thermal cycles 250 Max. t_on (single burn) 7600 s

400N BI-PROPPELLANT APOGEE MOTOR RELIABLE APOGEE AND DEEP SPACE MANEUVERS. The 400N bipropellant thruster is designed for apogee orbit injection of geostationary satellites and for trajectory and planetary orbit maneuvers of deep space probes. The 400N engine uses the storable propellants Monomethylhydrazine MMH as fuel and pure Dinitrogen Tetroxide N2O4 or Mixed Oxides of Nitrogen (MON-1, MON-3) as oxidizer. It is designed for long term steady state operation. It operates in a wide pressure range at regulated pressure mode. The combustion chamber and a part of the nozzle are made of platinum alloy. That does not require surface coating, thereby allowing operational wall temperature up to 1.600 C (2.900 F) and thus maximum engine performance. The engine can be provided with supporting structure and thermal shield as completely assembled module on customer request. 400N Bi-Propellant Apogee Motor Key Technical Characteristics Thrust Nominal Thrust Range Specific Impulse at Nominal Point Flow Rate Nominal Flow Rate Range 425 N 340 450 N 321 s 135 g/s 110 142 g/s Mixture Ratio Nominal 1.65 Mixture Ratio Range 1.50 1.80 Chamber Pressure Nominal Inlet Pressure Range Throat Diameter (inner) Nozzle End Diameter (inner) 10.35 bar 12.5 18.5 bar 16.45 mm 296 mm Nozzle Expansion Ratio (by area) 330 Mass, Thruster with Valve Chamber Throat Material Nozzle Material Injector Type Cooling Concept Fuel Oxidizer Valve 4.30 kg Platinum Alloy Nimonic Double Cone Vortex Film & Radiative MMH N 2 O 4, MON-1, MON-3 Solenoid Single Seat, Double Coil Voltage 21 to 27 V Power 35W per coil Bi-Stable

400N Bi-Propellant Apogee Motor Heritage and Future Missions The 400N Apogee Engine can look back on more than 40 years use in space. The thruster has experienced multiple refinements in the course of its 40 years life. And innovation for further product improvement still continues. The Table below starts with launch year 2000. For earlier satellites please contact ArianeGroup (contact details on last page). Spacecraft Launch Year Spacecraft Launch Year Spacecraft Launch Year AMSAT 2000 CLUSTER II 2000 EUTELSAT W4 2000 HISPASAT 1C 2000 ARTEMIS 2001 Atlantic Bird 2 2001 EURASIASAT 2001 Eurobird 2001 SICRAL 2001 ASTRA 1K 2002 Atlantic Bird 1 2002 EUTELSAT W5 2002 Hispasat 1D 2002 HOT BIRD 6 2002 MSG FM1 2002 Stellat 2002 STENTOR 2002 AMC-9, GE-12 2003 AMOS 2 2003 MARS EXPRESS 2003 Apstar 6 2005 FM01, GEi1 2005 GEi2 2005 MSG FM2 2005 Syrakus 3A 2005 Venus Express 2005 HB7A, APA2 2006 Koreasat 5 2006 Syrakus 3B FM2 2006 THAICOM 5 2006 Chinasat 6B 2007 FM02, RC1 2007 Galaxy 17 2007 Star One C1 2007 Chinasat 9 2008 CIEL 2 2008 Star One C2 2008 Turksat 3A 2008 W2A 2009 MILSAT-A 2009 Palapa D 2009 SICRAL 1B 2009 Thor-6 2009 W7 2009 MILSAT-B 2010 Nilesat 201 2010 RASCOM-2 2010 W3B 2010 W3C 2011 Apstar 7A 2012 Apstar 7B 2012 MSG FM3 2012 W6A 2012 Yamal 402 2012 Alphasat PFM 2013 AMOS 4 2013 W3D 2013 Athena Fidus 2014 ARSAT 1 2014 ARSAT 2 2015 Hispasat 1 AG 2015 MSG FM4 2015 Sicral 2 2015 Exomars Orbiter 2016 Apogee Motor with integrated heat shield and thrust frame

FUTURE SPACE AMBITIONS ArianeGroup is pride of it s extensive and flawless heritage. Customers worldwide rely on the chemical bipropellant thruster family to achieve their missions. ArianeGroup is continuously improving it s product portfolio to support future space ambitions.