Air & Missile Defense Radar (AMDR) AN-SPY-6(V)

Transcription

1 Air & Missile Defense Radar (AMDR) AN-SPY-6(V) Tad Dickenson Director / Program Manager 21 May 2015 DISTRIBUTION A: Public Release Copyright 2015 Raytheon Company. All rights reserved. Customer Success Is Our Mission is a registered trademark of Raytheon Company.

2 A Critical Need An Enduring Program $400M EMD Program $1.2B in LRIP Options DDG-51 FLT III ( ) $3.2B in FRP 24 DDG-51 FLT III ( ) $4.1B in FRP 31 DDG-51 FLT IV ( ) 40 year sustainment life 2082

3 Vision 2012 Technology Demonstration Raytheon, McKinney TX 2020 Low Rate Initial Production (LRIP) In-Yard Need Date Gallium Nitride (GaN) based Active Electronically Scanned Array (AESA) Low Cost x86 back-end processing Radar Qualification May 2017 DISTRIBUTION A: Approved for Public Release Reference [1] DDG 51 Flight III Destroyer Aegis Combat System Advanced Capability Build (ABB-20) Ship Delivery 2021 Initial Operating Capability

4 AMDR Operational View Simultaneous Multi-mission Capability BMD BMTC ASuW NSFS MSL COM ENV AAW EP ASW DISTRIBUTION A: Approved for Public Release Reference [4] 4

5 AMDR Scalability 1

6 DDG-51 Flight III 2 nd FY16 Ship AN/SPQ-9B Radar (FY14) [3] Replaces AN/SPS-67 (part of FLT IIA) ACB20 / TI-16 Upgrade to AWS [3] Remaining obsolescence and roll-down impact changes as required ACB Advanced Capability Build HES-C High Efficiency Small Capacity MCS Machinery Control System MFM Multi-Function Monitor SSGTG Ship s Service Gas Turbine Generator DISTRIBUTION A: Approved for Public Release Reference [1] and [3] 1

7 AMDR Overview Radiator (37x) Array Subsystems (4X) AN/SPQ-9B Tracks Radar Modular Assembly (37x) Calibration ¼ RMA (2x) Inertial Navigation System (1x) Array Control I&Q Data Signal & Data Processing Subsystems Beams Detections Tracks Combat System SIM (2 Units) Cooling Subsystems Antenna Interface (2 Cabinets) 208VAC DISTRIBUTION A: Approved for Public Release Reference [1] Digital Beamforming (3 Cabinets) Real Time Simulator (1 Cabinet) Power Subsystems Array Power Distribution Main Power Distribution 1,000VDC 1,000VDC (4 Units) (1 Units) Digital Signal Processing (7 Cabinets) Uninterruptable Power Supply Radar Control Processor / Radar Suite Controller (2 Cabinets) 450VAC 1,000VDC Battery Ship s Power 2

8 AMDR Radar Modular Assembly (RMA) DISTRIBUTION A: Approved for Public Release Reference [4] 3

9 AMDR Array & Radar Modular Assembly (RMA) Radar Modular Assembly (RMA) Array Structure Radiator Assembly Overlap Beamformer (OLBF) (Front) (Rear) DISTRIBUTION A: Approved for Public Release Reference [1] 4

10 Why Raytheon Won Leadership Saw the opportunity and acted Purposeful investment Gallium Nitride (GaN) T/R Modules x86 Adaptive Digital Beamforming Software Product Lines Anti-Tamper People Team Common Vision Next Gen Radar Accountable to the program / product High Cadence, High Performing Acting like a small company, but leveraging the entire company Customer focused Repaired & Improved Relationships Strategic Partnering 5

11 Focused Discriminants All Technical Performance Measures (TPMs) were either met or exceeded Elegant Design - simple & clever Two Tools DISTRIBUTION A: Approved for Public Release Reference [4] 6

12 Path Finding & Risk Reduction Radiator TRIMMs Near Field: Operational in 11 months Far Field: Operational in 14 Months Overlap Beamformer Distributed Receiver/Exciter DISTRIBUTION A: Approved for Public Release Reference [1] Early design proofing of all major array components Findings incorporated in TD Array 24 Lot of TRIMMs and Prototype DREX in 7 months 1 st Software Build in 8 months 1 st Patterns in 9 months after contract award Accelerated program integration by 7 months 7

13 R6s / Cost Reduction APG-79 Gen 3.0 Gen 4.0 Cost Gen Card Design LRIP3 LRIP4 FRP1 FRP2 Contracts 2-Card Design 3 DFMA cycles Technology Insertion 100% 300VDC TO 1,000VDC Conversion 2 DFMAs in 22 Months 2 CCA to 3 CCA Design 100% Surface Mount Design Significant Decrease in DPO TD EMD LRIP FRP Continuous Cost Reduction with Technology Insertion 75% 50% 25% 0% 8

14 Raytheon Collaboration AMDR / Next Generation Jammer IDS mature MRL-8 GaN technology enabled AMDR TD Prototype and NGJ POD to meet power, bandwidth and weight requirements SAS Electronic Protection and Multi-Beam Signal Processing expertise and APG-79 Cost reduction methodology drove greater than MRL-8 GaN Past performance Proposal Support Cost Reduction Electronic Protection 9

15 Results: Best Value Proposal T.1 = T.2 = D.1 > M.1 >> P.1+ E.1 Broad Strengths System Design and Integration RAYTHEON SUB FACTOR FACTOR PROPOSAL Outstanding H/W Architecture & Development S/W Architecture & Development Life Cycle Support Concept Open Architecture Concept Technology Maturity Data Rights Capabilities, Experiences, & Facilities Program Management Approach Past Performance Energy Outstanding Good Good Good T.1 Outstanding Outstanding T.2 Outstanding D.1 Good M.1 Acceptable Good Acceptable P.1 Acceptable Good E.1 Outstanding 10

16 Where we re going Onboarding Welcome Culture & History Customer Cadence Commitment Competitive Goals Future Agile Work Environment Collocated Collaborative Efficient Product Focused Knowledge Transfer 95% personnel HIL / SIL / Labs All Disciplines No Hierarchy 1 Floor, 40,000 ft work spaces 11

17 Agile Software Development Process Benefits 160 SW Integration Stories Kill Assessment ESSM Engagement Predicted Intercept Point, Time Mid-Course guidance Big Bang Integration 100 Auto Engagement with missile away Non-Agile Plan 80 Generate System Track 60 Tracks on Glass Simulated air track, surface track First Delivery to SWIT No new system capabilities SWIT testing limited to interface & infrastructure updates First Big Batch delivery to SWIT Sprint 1 Sprint 2 Sprint 3 Sprint 4 Sprint 5 Sprint 6 Sprint 7 Sprint /01/12 07/01/12 08/01/12 09/01/12 10/01/12 11/01/12 12/01/12 01/01/13 02/01/13 03/01/13 04/01/13 05/01/13 06/01/13 Non-Agile Plan SWIT Integration Stories Agile Plan SWIT Integration Stories Actual Incremental Delivery to SWIT Zumwalt Incremental Sprint Completion vs. Big Bang Better productivity less out of phase defects 12

18 Keeping it Sold Customer Focus AMDR DDG-51 FLT III Combat / ACB-20 Execution with Navy Weekly cadence Common goals forged with Navy R6s continuous improvement 1 st LRIP 2 nd FY16 DDG-51 Ship Engineering & Manufacturing Development (EMD) 13 Q4 FY 2014 FY 2015 Q1 Q2 Q3 Q4 Q1 Q2 Q3 Q4 P P P P P Contract Award H/WD PDR SSD PDR IBR H/W CDR SS CDR NFR at RTN FY 2016 FY 2017 Q1 Q2 Q3 Q4 Q1 Q2 Q3 Q4 DT-2 FFR at ARDEL DT-3 $400M EMD, CPIF 8% 50/50, $26M Investment SVR FCA PRR EOC Continue to Sell It Fits 30% less volume, 10% less power consumed, 7% lighter Technology Development complete technology risks retired Staffed and executing Broad Customer Support Congressional Support 13

19 Scalable AMDR Aperture and Sensitivity to Meet Mission Radar Modular Assembly (RMA) SPY-1 +15dB with 2dB margin SPY-1 +25dB SPY-1 +0dB (front view) 1 RMA 9 RMA DISTRIBUTION A: Approved for Public Release Reference [4] DDG-51 AMDR Low NRE to scale to a new Radar Mechanical Structure Common Software 37 RMA 69 RMA 14

20 Raytheon s Win 1

21 Questions? DISTRIBUTION A: Approved for Public Release Reference [1] 2

22 Public Release References 1) REPORT TO CONGRESS - DDG 51 FLIGHT III SHIPS AIR AND MISSILE DEFENSE RADAR ENGINEERING CHANGE PROPOSAL, FEBRUARY 2015, ) 2015 AMDR Overview Stmt A pdf, Statement A: Approved for Release. Distribution is unlimited. # ) DDG 51 Program, CAPT Mark Vandroff, USN Program Manager, Surface Navy Association, 13 January ) AEGIS Weapon System with AMDR, Sea - Air - Space Symposium, 08 April 2014 RADM Horn PEO Integrated Warfare Systems 3