AN OPTIMIZED PROPULSION SYSTEM FOR Soyuz/ST

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1 RD-0124 AN OPTIMIZED PROPULSION SYSTEM FOR Soyuz/ST Versailles, May 14,2002

Starsem Organization 2 35% 25% 15% 25% 50-50 European-Russian joint venture providing Soyuz launch services for the commercial market

ISO 9001 Certification 3 Starsem has been certified ISO 9001:2000 since November 2001

Soyuz Milestones 4 1999: Globalstar - First Starsem flights 1975: Apollo- Soyuz mission 2000: Cluster II flights 2000: First Crew to ISS 2001: Flight qualification of upgraded FG engines 1961: Y. Gagarin - First man in space 1957: Sputnik - First Satellite 1669 launches Sustained production Stepwise performance enhancements Unmatched reliability

Overview 5 FG engines for 1 st and 2 nd stages: flight proven Digital control system: first flight mid-03 Soyuz-2-1a ST fairing ( 4.11m, L 11.4m) Fregat upper stage upgrades Third stage engine upgrade available 3Q04 Soyuz-2-1b

Soyuz/ST Development schedule 6 2001 2002 2003 2004 Q3 Q4 Q1 Q2 Q3 Q4 Q1 Q2 Q3 Q4 Q1 Q2 Q3 Q4 Q1 2005 Q2 RD 107/108 upgrade (FG Engines) Avionics (Digital Control System) Soyuz 3rd stage structures upgrade Soyuz 3rd stage engine upgrade Fregat upgrades ISS / Progress (FG flight #2) ISS / Progress (FG flight #3) ISS / Manned Soyuz (FG flight #4) Soyuz-2-1a qualification flight Soyuz-2-1a qualification flight Mars Express Soyuz-2-1b qualification flight Soyuz 4-m fairing Launch vehicle production MetOp

7 Third Stage Presentation

Third Stage Engine 8 RD-0124 engine will replace the currently used RD-011O: Staged combustion cycle (compared to open cycle) 4 gimbaled (1 axis) combustion chambers Kerosene derivation for actuators feeding Sequenced shut-down to reduce transient loads on the stage

Engine Principles and Heritage 9 Development by KBxhA Company, located in Voronezh with a strong backing experience: LOX/Kerosene (RD-0110 for existing Soyuz third stage) UDMH/N2O4 (RD-0210 & RD-0212 for Proton second stage) LOX/Hydrogen (RD-120 for Energia first stage) Staged combustion cycle based on LOX/LH2 & UDMH/N2O4 engines: Two stage fuel pump and single stage oxygen pump High pressure fuel pump Feeding pumps for kerosene and liquid oxygen Oxygen rich preburner

Engine Layout 10

Engine Main Characteristics 11 Chamber pressure: 15,69 Mpa LOX pump pressure: 36,3 MPa Fuel pump pressure: 36,3 Mpa / 47,1 MPa Turbine inlet pressure: 319 bar Turbine outlet pressure: 185 bar Turbine temperature: 973 K LOX mass flow rate: 56,7 kg/s Fuel mass flow rate: 23,9 kg/s Mixture ratio: 2,34 Specific impulse: 357 sec Thrust: 294,2 kn Shut-down regime: 146,9 kn

Engine Qualification (1/2) 12 Qualification philosophy based both on progressive element testing with a large number of engines and extensive hotfire test program: Combined main turbine and preburner tests without combustion chambers Addition of feed pumps Stepped introduction of combustion chambers (up to 4) As of April 2002, 62 tests were performed: 4 complete engines fired (with 4 chambers) 7273 s cumulative firing duration 742 s with same engine (300 s continuous) 49 tests still to be performed: Nominal duration/nominal parameters Increased duration Parameter deviation

Engine Qualification Qualification (2/2) 13 Final qualification test by manufacturer based on 2 engines manufactured according to final definition 4 firing tests using nominal condition parameters Independent ground qualification (Flight authorization): based on 3 more similar engines 6 firing tests using nominal condition parameters Performed under the control of Keldysh Russian Academy Once qualified, production will be monitored through permanent sampling of production engines: to confirm design reliability to consolidate statistic database for manufacturing quality control

Driving Parameters for Stage Design (1/3) 14 Interchangeability with RD-0110 engine identical thrust (294.2 kn with shut-down regime at 146,9 kn) identical mechanical interfaces with third stage identical tank pressurization level (LOX = 4,75 bar, K = 2,5 bar) Specific impulse = 357 s (compared to 325 s) leads to increased burn duration (274 s, compared to 254 s) Mixture ratio = 2.34 (compared to 2,22) tanks volume modification: increased cylindrical section for LOX tank (850 to 1046 mm) hemispherical vessel replaces Ø2660 spherical tank for kerosene

Driving Parameters for Stage Design (2/3) 15 Fuel and oxidizer tank pressurization: RD-0110: cooled gases derived from gas generator RD-0124: based on 5 helium vessels located into the LOX tank Control system identical to RD-0110 version: RD-0110: managed through digital control system RD-0124: identical to RD-0110 with S/W adaptations and upgraded command units Attitude control: RD-0110: rotation of 4 exhaust nozzles ( 45 around one axis) RD-0124: rotation of each main chamber ( 3.5 around one axis)

Driving Parameters for Stage Design (3/3) 16 RD-0110 RD-0110 RD-0124 Current Soyuz Upgraded Soyuz

Structures and Stage Layout Qualification 17 Qualification of tanks and stage modifications is made using current engine version to authorize 2Q03 first launch: Static test sequence completed Dynamic tests with equipment mass mock-ups & RD-0110 engine completed Stage upper skirt reinforcement for 4.11 m fairing design loads (2 testing stages) : Dynamic test sequence with new engine and components (RD- 0124, helium tanks, ) Limited static test sequence on a new reinforced third stage Reinforced design applied for 2Q03 launch Integration tests with new engine and components: validation of equipment overall layout (actuators, harness, etc )

Stage Functional Qualification Qualification 18 Cold test sequence to qualify ground preparation and procedures: Tank filling and drainage, Helium pressurization system, Stage and engine mock-up are available. Hot test sequence to qualify third stage overall performance: 3 firing tests of assembled stage with engine and sub-systems, Nominal flight duration (274 s), Utilization of live control system, Utilization of on-board pressurization system, Utilization of on-board engines activation units. Final stage readiness for launch will be authorized after successful completion of the 3 hot-fire tests

19 Mission Profile and Performance

Soyuz Ascent Profile (Baïkonur) 20

Soyuz Performance (Baïkonur) 21 SSO Orbit (98,1 /700 km) Soyuz-2-1a: 4500 kg Soyuz-2-1b: 4800 kg GALLILEO (56 /23616 km) Soyuz-2-1a: 1420 kg Soyuz-2-1b: 1570 kg MOLNYA 12 hours (63,4 / 39100 x 1200 km) Soyuz-2-1a: 1990 kg Soyuz-2-1b: 2410 kg MOLNYA 24 hours (63,4 / 46340 x 25230 km) Soyuz-2-1a: 1120 kg Soyuz-2-1b: 1410 kg

Soyuz Performance Soyuz for performance GTO for (Baïkonur) Super GTO 22 2700 2500 S/C separated Separated mass, kg 2300 Baseline Soyuz version Improved Soyuz version 2100 1900 1600 1700 1800 1900 2000 2100 2200 SC delta-v, m/s (two burn capability)

23 Conclusion

Conclusion 24 The installation of the RD-0124 engine on the third stage minimizes the impact on the Soyuz launch system design: no modification of first and second stages limited number of adaptation of the third stage no modification of the launch pad available mid 2004 The RD-0124 extends the Soyuz capability on all type of orbit Thorough ground qualification provides excellent opportunity for first flight