Low Cost Spacelift to LEO, GTO, and Beyond Using the OSP-2 Minotaur IV Space Launch Vehicle. Scott Schoneman, Lou Amorosi, Ron Willey, and Dan Cheke

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Low Cost Spacelift to LEO, GTO, and Beyond Using the OSP-2 Minotaur IV Space Launch Vehicle Scott Schoneman, Lou Amorosi, Ron Willey, and Dan Cheke Orbital Sciences Corporation Launch Systems Group Chandler, AZ Page 1

Agenda Program Overview Baseline Vehicle Description, Heritage, and Manifest GTO Configurations and Performance Summary Page 2

OSP-2 Organizational Structure US Govm t Customer / Sponsored Payload USAF SMC Det 12/RP Det 12 Technical & Ops Support Minuteman-based Launch Vehicles OSP-2 Contractor Peacekeeper-based Launch Vehicles Commonality Avionics Subsystems GSE Processes Page 3

Minotaur Launch Vehicle Family Page 4

Minotaur IV Is A Combination of Flight Proven Subsystems Page 5

OSP Flight History Prior to First Minotaur IV Page 6

Minotaur IV Uses Largely Flight Proven Components Page 7

All But Three Components Have Direct Flight Heritage Page 8

Common Object Oriented Software Supports Minotaur IV Page 9

Minotaur IV Processing Flow Based on Taurus Experience Launch Site Processing Derived from Minotaur and Taurus Operations Payload Integration Independent of Booster Crane Lift Emplacement Of Boosters and GCA/Stage 4 Payload Integration & Encapsulation Transport to Launch Pad Crane Lift Final Emplacement Pre-Launch Of Payload/ Verification Fairing Assembly Tests Page 10

Minotaur IV Performance 1735 kg to 185 km (3826 lbm to 100 nm) Page 11

OSP Provides Consistent, Realistic Low Cost Performance Minotaur Cost Has Increased Only at About 5% Per Year Mission 'Fly-Away' Cost, M$ 19 17 15 13 11 9 7 5 1997 1998 1999 2000 2001 2002 2003 2004 Demonstrated 1 st Year Mission Schedule and Technical Performance Minotaur I: 27 Months from ATP to First Launch OSP TLV: 21 Months from ATP to First Launch Range AF Mgmt A&AS Booster Refurb LV - Reserve LV - Fixed Price OSP-2 LV Costs Locked-in through 2013 for Minotaur I, Minotaur II, and Minotaur IV Page 12

OSP-2 Mission Development Process 1st PK-based LV (SLV or TLV) mission: 24 month Schedule Subsequent Minotaur missions 18 months Mission Initiation via SMC Det 12/RP Program Office Page 13

High Energy Minotaur V Configuration Options Page 14

Minotaur V Front End Configuration (Option 1) Page 15

Minotaur V Also Provides Translunar Performance Potential Lunar Missions Lunar flyby, orbit, impact/lander, free-return, other? Minotaur V (Option 3) Capabilities Option 3 Configuration (PK1/PK2/PK3/Star48V/Star37FM) Direct Ascent Trajectory Lunar Inclination, Relative to the Equator Payload Capability 28 deg 1140 23 deg 1013 18 deg 901 Page 16

Summary Minotaur IV is a New Launch Vehicle With an Extensive Flight Heritage Minotaur IV Prices and Performance Are Well Understood and Solid Based on the Long Experience With the Constituent Subsystems and Organizations (RSLP, Northrup Grumman, and Orbital) Minotaur IV Mission Prices Include All Fly-Away Costs Concepts Have Been Developed for a Minotaur V Vehicle Capable of Supporting High Energy GTO and Translunar Small Spacecraft Missions Page 17

Backup Page 18

Minotaur IV Based on Robust Heritage Systems Peacekeeper Boosters Built to ICBM Weapon System Rigor Front-Line Strategic Deterrent for the USA Safety and Reliability for Nuclear Weapon Systems Regular Aging And Surveillance Testing and Inspections 50 Total Launches and At Least 18 Static Fire Tests Orbital Flight Proven Avionics and Subsystems Avionics with Flight Heritage of 2 to 25 Launches Uses Standardize OSP Avionics Configuration Which Has Seven Total Launches (100% Successful) Orion-38 Stage 4 Booster with 46 Total Launches OSP-Standard Object Oriented Software With Seven Total Launches Also Used as Common Core Code for GMD Orbital Boost Vehicle With Three Total Flights Integration and Test Processes and Procedures from OSP, Taurus, and PK Directly Apply Existing, Demonstrated Processes with Quality Assurance Approval Mitigate Risk Page 19

All Minotaur IV Motors Have Extensive Flight Histories Peacekeeper Motors Pedigree Static Fire Tests 20 Stage 1 18 Stages 2 18 Stage 3 50 PK Launches 3 PK Taurus Launches (Stage 1) No Motor Related Failures Orion 38 Motor Pedigree One Static Fire Test 46 Launches 35 Pegasus 6 Taurus 2 Minotaur 3 OBV No Motor Related Failures Page 20

Minotaur IV Fairing and Envelope Proven Orbital 92 Taurus Fairing Vertical Integration Aft Shield Isolates Payload Envelope S/C Encapsulated Independent of LV Page 21

Minotaur IV Can Launch from All US Space Launch Facilities Flat Pad Stool Launch Portable Control Consoles Minimal Infrastructure and Portable GSE Allows Operations from Multiple Ranges Page 22

Minotaur V GTO Nominal Mission Timeline (Option 3) Page 23