Unclassified: Distribution A. Approved for Public Release. TACOM Case #22245 Date: 26 Aug Vehicle Electronics and Architecture

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. Approved for Public Release. TACOM Case #2224 Date: 26 Aug 2011 Vehicle Electronics and Architecture August 26, 2011

Report Documentation Page Form Approved OMB No. 0704-0188 Public reporting burden for the collection of information is estimated to average 1 hour per response, including the time for reviewing instructions, searching existing data sources, gathering and maintaining the data needed, and completing and reviewing the collection of information. Send comments regarding this burden estimate or any other aspect of this collection of information, including suggestions for reducing this burden, to Washington Headquarters Services, Directorate for Information Operations and Reports, 121 Jefferson Davis Highway, Suite 1204, Arlington VA 22202-4302. Respondents should be aware that notwithstanding any other provision of law, no person shall be subject to a penalty for failing to comply with a collection of information if it does not display a currently valid OMB control number. 1. REPORT DATE 26 AUG 2011 2. REPORT TYPE N/A 3. DATES COVERED - 4. TITLE AND SUBTITLE Vehicle Electronics and Architecture a. CONTRACT NUMBER b. GRANT NUMBER c. PROGRAM ELEMENT NUMBER 6. AUTHOR(S) Chris Mocnik d. PROJECT NUMBER e. TASK NUMBER f. WORK UNIT NUMBER 7. PERFORMING ORGANIZATION NAME(S) AND ADDRESS(ES) US Army RDECOM-TARDEC 601 E 11 Mile Rd Warren, MI 48397-000, USA 9. SPONSORING/MONITORING AGENCY NAME(S) AND ADDRESS(ES) US Army RDECOM-TARDEC 601 E 11 Mile Rd Warren, MI 48397-000, USA 8. PERFORMING ORGANIZATION REPORT NUMBER 2224 10. SPONSOR/MONITOR S ACRONYM(S) TACOM/TARDEC/RDECOM 11. SPONSOR/MONITOR S REPORT NUMBER(S) 2224 12. DISTRIBUTION/AVAILABILITY STATEMENT Approved for public release, distribution unlimited 13. SUPPLEMENTARY NOTES The original document contains color images. 14. ABSTRACT 1. SUBJECT TERMS 16. SECURITY CLASSIFICATION OF: 17. LIMITATION OF ABSTRACT SAR a. REPORT unclassified b. ABSTRACT unclassified c. THIS PAGE unclassified 18. NUMBER OF PAGES 17 19a. NAME OF RESPONSIBLE PERSON Standard Form 298 (Rev. 8-98) Prescribed by ANSI Std Z39-18

VEA Vision and Mission VEA Vision Statement: VEA will be the first choice to technology and engineering expertise for vehicle electronics integration, research and application today and tomorrow. VEA Mission Statement: VEA develops, integrates, and sustains the right vehicle electronics technology solutions for all manned and unmanned ground systems and ground combat systems to improve current force effectiveness and provide superior capabilities for the future force. Key vehicle electronics technology areas include power management and distribution, inter-vehicular data networks, computers, software infrastructure, and electronics packaging. VEA will develop and evaluate existing and emerging technologies, standards, vehicle specifications, and vehicle systems. 2

Unclassified Classified Classified Increasing Vehicle Electronics Ground Combat Vehicle Ground Combat Vehicle Netcentric Warfare Logistics Requirements ity Level of Integration MRAP Capabil HMMWV M1 M1A2 Stryker M1 M1A2 Stryker Radios Situational Awareness Command & Control Software LOC CPU Density Interfaces Increasing demands and operational flexibility Require technology investments in key areas Unclassified Unclassified Unclassified Unclassified Unclassified Unclassified Unclassified Unclassified Unclassified Classified Operator Workstations (Displays & Controls) with Cross Domain Guard to allow multiple levels of classification on the same display FBCB2 Advanced Field Artillery Tactical System (AFATDS) Maneuver Control System (MCS) All Source Analysis System (ASAS) Networked I/O Computing Power Distribution Unit Slip Ring Vehicle Controls Diagnostics and Prognostics Common Log Operational Environment 2 (CLOE) Commander s Remote FBCB2 Display Rover Inertial Unit Classified Classified Classified worked I/O mputing Mission Rehersal Embedded Training Classified Com Netw Vehicle Networks Architectures Computers 3

Excellence in Vehicle Electronics Full System Lifecycle Support Systems Engineering Processes Architectures & Software System Integration Field Support Requirements Standards Development Testing Sustainment Supporting the Current Force Enabling the Future Fight 4

VEA Strategy Map Vision: VEA will be the first choice to technology and engineering expertise for vehicle electronics integration, research and application today and tomorrow. Mission: VEA develops, integrates, and sustains the right vehicle electronics technology solutions for all manned and unmanned ground systems and ground tactical and combat systems to improve current force effectiveness and provide superior capabilities for the future force. Key vehicle electronics technology areas include power management and distribution, inter-vehicular data networks, computers, software infrastructure, and electronics packaging. VEA will develop and evaluate existing and emerging technologies, standards, d vehicle specifications, and vehicle systems. Ends 1.0 Innovative Human Capital 2.0 Value Added to the Warfighter 3.0 Continuous Improvement 4.0 Alignment Ends Ways 1.1 Recruit & retain the best and brightest personnel in-line with projected manpower requirements and attrition rates 1.2 Provide training programs and work experience to enhance the workforce's technical competency in-line with organizational needs 1.3 Develop training, educational opportunities and programs to enhance workforce's development, certification and leadership competency in-line with organizational needs 1.4 Reward and acknowledge successful employees 2.1 Develop Vehicle Electrical Architecture infrastructure to lead Ground Domain systems integration 2.2 Develop Vehicle Electrical Architecture to optimize technology integration from both government and industry across the Life Cycle 2.3 Infuse System Engineering into vehicle integration throughout life cycles. 2.4 Provide timely VEA solutions in response to Quick Reaction requirements 3.1 Develop an infrastructure to support VEA research and application and a culture of innovation and continuous improvement 3.2 Implement integrated business and acquisition processes throughout VEA organization 3.3 Strengthen strategic partnerships, alliances, and technology transfer opportunities 3.4 Provide trusted actionable advice and recommendations to customers for VEA decisions 4.1 Balance the VEA portfolio to support the Ground Systems Domain 4.2 Maximize transition of VEA technologies 4.3 Strengthen strategic partnerships, alliances, and technology transfer opportunities 4.4 Facilitate collaboration within RDECOM s Electronic and Electrical Architecture organizations Ways Means.1 Optimize VEA Resource Management.0 Optimize Resources.3 Support TARDEC compliance with WSARA, ARFORGEN process, and PEO modernization efforts.2 Optimize VEA Labs to enhance Combat Capability Means

What We Do The Vehicle Electronics and Architecture (VEA) focus area is responsible for developing the essential support structure needed to accommodate the numerous advanced technologies prevalent in today s ground vehicles. We develop the software and data networks necessary to ensure those technologies work together successfully without compromising power and mobility. TARDEC s VEA work centers on three core functions: Electrical power Vehicle Architecture Systems integration laboratories (SILs) 6

Who We Are VEA AD Electrical Power Vehicle Architecture SILs Electrical Power Components Team Electrical Power Architecture e & Management Intra-Vehicle Networks VICTORY Architecture Team MRAP Integration Team Stryker SIL Team Electrical Power Customer Support Computers & Component Thermal VEA Research SIL Team VHMS Tasks 7

Doing More Without More The Army has placed a renewed emphasis on developing efficiencies where possible in order to get the best value from our limited resources. At TARDEC this has meant streamlining processes and working more closely with our partner organizations by aligning portfolios and leveraging support. Several of the major projects currently underway within VEA contribute to these efforts by exploiting the potential for commonalities between vehicle platforms. Radio C4I Equipment Router Encrypter Firewall Network Switch Encrypter Firewall Interoperability Gateway Software Network Switch Vehicle Management System Network Attached Storage Displays Universal Bridge Drivers Station Crew Stations Legacy 13 bus Automotive Loads 8

Vehicle Electronics and Architecture Roadmap Revised PMR 4QFY11 Technology Areas FY08 FY09 FY10 FY11 FY12 FY13 FY14 FY1 FY16 FY17 FY18 FY19 FY20 FY21 Electrical Power Distribution and Architecture Power and Thermal Technologies for VEA Research SIL (Project) VICTORY Architecture Development (Project) Vehicle Electronics Architecture VICTORY Standards Maturation (Project) Deterministic High Speed Transport (Project) System Integration Lab (SIL) VEA Research System Integration Lab (SIL) (Project) VEA Mobile Demonstration (Project) Advancements in Vehicle Architecture Program ASA ALT RP ASA ALT DP 6.2 TARDEC 6.3 TARDEC 9

Electrical Power The Electrical Power group focuses on customer engineering, research and development, architecture and management and auxiliary systems. One current project of note is the development of common electrical power standards. Each manufacturer uses its own voltage standard for electrical power systems and the different standards are not compatible with each other, meaning vehicles often require unique solutions and components. Developing an enabler for electrical power architecture will allow seamless electrical l integration ti of any load that t converts or consumes electrical power. It creates commonalities for ground vehicles that adopt the standards. Having set standards for new start and modernization programs leads to common components and plug and play ability between platforms, common implementations and control schemes that reduce training. 10

B A E G D L S DVDB 1.7-8.2kW Hull Loads PECS Loop 3Ø VAC AV900_CH1 (160kW) 610VDC old new 28VDC Spare1 (30kW) CAN: Power Spare2 (30kW) CAN: Thermal HVPDB Control Line MP = Master Power switch Smart TP = Turret Power switch Display EA = Engine Accy switch (VPMS) 20kbps 00kbps BMS1 1000 ESS Hull MP 28V TPB 1.2-4.4kW Gun/Turret Drive Control DCDC1 (10kW) HV/LV HPB1 80 Dirty 200 80 80 TP EA Slip Ring ESS Turret 28V PCM1 1.kW Elect. Loads BMS2 1000 ESS Elec 28V Clean Turret PCM2 1.kW Turret Loads DCDC2 (10kW) PCM3 0.8kW HV/LV Hull Loads POL1 (DDC) Fuel Level Fault Induce Coolant Temp Tactical Idle 80 80 80 Test Loads (Water Tank) DFMC MC1 MC2 MC3 Thermal Mngmt (VTMS) 200 NPS LV POL2 POL3 (DDC) (Global ET) Engine Battle Status Override Trans. Load Status Controls Bus V Load A NPS E-STOP Gages Gages Status AOPET Test Control Panel Level Switch T T T T T T HEATER L L L L L L 18kW 2 2 2 700V 0 0 0 00kbps 80 HPB2 200 80 LVPDB 2.24kW Rad_Fan1 (3kW) Rad_Fan2 (3kW) PECS_Pump (1.7kW) ECS_Compressor (7.8kW) ECS_Condensor_Fan (4.4kW) 80 AHU1 AHU2 (1.4kW) (1.4kW) M C 4 Engine Accy Master Power Ground Fault Detect Open/Ground Outputs Open/28V Inputs HV Enable Eng Clnt Temp AV900_CH2 (0-18kW) Trans Oil Temp Fuel Pump M C Engine Oil Pressure VEA Power & Thermal Technologies for VEA Research SIL Advanced Radiators HV Fan Motor/Controller Enhanced Crew Cooling Environmental Testing Thermal System Level Testing Electrical Architecture Testing Thermoelectric Components Schedule Starter High Voltage Guidelines VEA Research SIL HPB3 SiC DC/DC Converter Milestones FY11 FY12 FY13 Systems Engineering Requirements Analysis and Trade Studies HV & LV Standards Modeling and Architecture Design Development and Integration Thermoelectric development HV Fan Motor Development HV Air Conditioning Advanced Radiators SiC DC/DC Converter Software Development Testing, Verification and Validation Thermal Simulation Testing Thermal systems verification testing VEA Research SIL testing 6 PDR CDR 4 4 4 Purpose: To develop and demonstrate military ground vehicle advanced power and thermal management capabilities in a SIL environment Products: 600VDC Voltage Specification 600VDC Safety Specification MIL-STD-127 update Modernized Power System Architecture and interfaces Power and Thermal Management Software V0. 70kW 600VDC Cooling fan and controller (Si) 600VDC High efficiency air conditioning (Si) SiC 600/28VDC DC/DC 10kW converter Advanced micro-channel radiator for both prime and auxiliary cooling Thermoelectric module capable of recovering waste heat as usable electric energy at a conversion efficiency 8-12% 4 Payoff: Decreased SWAP-C requirements and increased efficiency for power and thermal systems (WFO #3: Power and Energy) Available for transition to PEO-GCS Mod programs before all MS-Cs and most MS-Bs (FY13) TARDEC will own/manage all electrical voltage and HV safety standards and software(build the Bench) 6 LAST Updated: 20110609 11

Vehicle Architecture Vehicle Architecture consists of intra-vehicle data networks, computers and component thermal and VICTORY architecture teams. One major current focus in this area for TARDEC is the Vehicular Integration for Command, Control, Communications, Computers, Intelligence, Surveillance, Reconnaissance/Electronic Warfare (C4ISR/EW) Interoperability (VICTORY) architecture. VICTORY architecture is being developed as a solution to the bolt-on approach to integrating C4ISR systems into ground vehicles. The Vehicle Architecture Problem Space This approach inhibits functionality, negatively impacts the vehicle s size, weight and power and limits space for the crew. 12

VICTORY Architecture VICTORY will reduce these issues by embedding these systems directly into the platform. It provides a framework architecture, standard specifications and design guideline input. Originally initiated by Program Executive Office (PEO) Command, Control, Communications Tactical (C3T), the program is a joint effort between TARDEC VEA, PEO Ground Combat Systems (GCS) and PEO Combat Support & Combat Service Support (CS&CSS). MTS The end result is a capability set readily integrated onto platforms without impeding crew performance. GPS GPS FBCB2 13

VEA VICTORY Architecture Development VICTORY RWS Schedule Milestones FY11 FY12 FY13 Architechture Development - Receive Architecture A - Develop Architecture B Standards Development - Complete VICTORY 1.0 Standard - Develop VICTORY 1.X Standard VICTORY 1.0 SIL Testing - Modify SIL for Standards Validation - Perform Validation and Verification on VICTORY 1.0 - Execute Interoperability Testing on VICTORY 1.0 4 Purpose: Develop and adopt Vehicular Integration for C4ISR/EW Interoperability (VICTORY) Specifications. Develop a System Integration Lab (SIL) reconfiguration package to perform Validation and Verification for the VICTORY Standards to support near term ECP efforts. Product(s): VICTORY Architecture B for the VICTORY SIL VICTORY Standard 1.0 VICTORY Standard 1.X VICTORY Standard 1.0 SIL VICTORY 1.0 V&V Test Results VICTORY 1.0 Interoperability Test Results Payoff: Provides VICTORY Standards and Specifications, a Digital Architecture and a Gigabit Ethernet Bus for Military Combat Vehicles (WFO S-3, B-P1-8, A-P2-22) Transition to PEO GCS in FY-13 to support Modernization TARDEC will have a VICTORY 1.0 SIL where manufactures can bring components for testing (Shape the Market) Last update 09 - JUN - 11 14

SIL The SIL group supports Stryker Brigade Combat Team, Heavy Brigade Combat Team and the Mine Resistant Ambush Protected (MRAP) vehicle Integration Team. The SIL will be able to configure multiple vehicle electronics implementations quickly to get valuable data to those who need it. It will centralize the Army s approach to integrating electronics on ground vehicles, saving cost and reducing redundant work across multiple programs, while also supporting modernization efforts. This group is also working to develop a Common SIL that will have the ability to test any piece of hardware to verify it is compatible with an open architecture and is VICTORY compliant. 1

VEA VEA Research SIL C4ISR SIL Aberdeen Proving Grounds Verification/Validation for Plug-and-Play Implementation of Network Interface Kit (NIK) and VICTORY architectures Real-time sensor feeds to support design, test, and evaluation D2D, IA and Cyber capabilities Provide ground system requirements back to C4ISR system development VICTORY Standards Development Evaluate advanced technologies and implement enhanced system capabilities Capability to model and simulate realistic environments Support for R&D technology transition and collaboration with other RDECOM Labs, PEOs, PMs, and other Army and Industrial Provide next-gen C4ISR Partners systems for vehicle integration SILs linked thru Defense Research & Engineering Network Estimated Schedule Vehicle and Power Architectures High and low power mgmt. & distribution components and video networks, distribution, and logging Displays and controls Navigational components Embedded vehicle computing IA/IS components Auxiliary components such as interior/exterior lighting Component cabling VEA Research SIL Detroit Arsenal Milestones FY11 FY12 FY13 FY14 Purpose: Develop and demonstrate an implementation of a complete VEA reference architecture to address the power, vetronics, and C4ISR integration challenges facing the ground vehicle domain. The SIL will be reconfigurable to support experimentation with future architectural concepts and implementations. It will centralize the Army s approach to integrating electronics on ground vehicles, saving cost and reducing redundant work across multiple programs. Product(s): Vehicle Electronics & Architecture Research SIL HV and LV power electronics Vetronics, C4ISR integrated components Documented DoDAF Architecture re Products DREN Interface to other RDEC SILs Payoff: Provide a Gigabit Ethernet Bus for Military Combat Vehicles (WFO A-P2-22, B-11); Decreased SWAP-C requirements and increased efficiency for power and thermal systems (WFO #3: Power and Energy) Transitions knowledge base products (DoDAF Artifacts, Reports, Trade Studies, Specifications, etc) Central project for the VEA organization (Build the Planning & Hiring Update cost & schedule estimate based on requirements and design Define Customer Requirements (, ); Functional Decomposition Functional Allocation & Design Acquire Resources / Equipment Build SIL Integrate Subsystems / Components Verification / Validation bench) Last update 09-JUN-2011 16

Summary TARDEC s VEA develops and executes Projects and Programs that are aligned with Army goals and aimed at helping support the current and future force. The work of the VEA group makes it possible for the latest, most advanced technology solutions to be integrated t into vehicle platforms, which ultimately ease warfighter burdens and help save lives. VEA will continue to be a vital part of ground vehicle systems and their development. 17