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Future Combat Systems SOS Characteristics and Critical Success Factors. Edgar Dalrymple Associate Director, Software and Distributed Systems October, 2006. Agenda. System Overview Complexity Critical Success Factors. FCS System-of-Systems (SoS). Manned Systems. Unmanned Aerial Vehicles.
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Future Combat SystemsSOS Characteristics and Critical Success Factors Edgar DalrympleAssociate Director, Software and Distributed Systems October, 2006
Agenda • System Overview • Complexity • Critical Success Factors
FCS System-of-Systems (SoS) Manned Systems Unmanned Aerial Vehicles Infantry Carrier Vehicle (ICV) Class IV Command and Control Vehicle (C2V) Class III Class II Class I Mounted Combat System (MCS) Unattended Munitions Intelligent Munitions Systems NLOS LS Unattended Ground Sensors Reconnaissance and Surveillance Vehicle (RSV) Non-Line of Sight Cannon (NLOS-C) Unmanned Ground Vehicles Non-Line of Sight Mortar (NLOS-M) Small (Manpackable) UGV ARV Aslt ARV RSTA FCS Recovery and Maintenance Vehicle (FRMV) Armed Robotic Vehicle (ARV) Medical Vehicle Treatment (MV-T) MULE (Countermine) MULE (Transport) Medical Vehicle Evacuation (MV-E) ARV-A (L) 8-1-06
Breadth of Scope • Developmental Engineering for a new fleet of Manned Ground Combat Vehicle (HW & SW) • Developmental Engineering for a new fleet of Unmanned Ground and Aerial Vehicles (HW & SW) • Developmental Engineering for Distributed System (HW and SW) • Networked integration of FCS systems • Sensors • Effectors • Maneuver Elements • Networked integration of existing Army/Joint Systems • Networked/Embedded training • Networked/Embedded prognostics/sustainment • Development and Integration of Tactical and Strategic Networks • Development of new Army Organizational Structures (Brigade Combat Team) and Tactics, Techniques and Procedures • Development of Modeling and Simulation Environment to support Simulation Based Acquisition (including Operational Test) • Incremental fielding of products to current forces (Spin Outs) Fixed Cost and Schedule
Complexity of Concurrent Engineering • Operational Concept Development • Force Effectiveness Modeling • Operational Architecture Development • Technology Maturation • Engineering Process Coordination and Alignment • SoS Requirements Development • Platform Requirements Development • Distributed Systems Requirements Development • Operational Software Development • Platform Simulation Development • Other Models and Simulations (terrain, Red Forces) Acquisition and Integration • Technical and Operational Test Planning • Production planning All Activities are Currently Ongoing
Critical Success Factors • Baseline Management • Clarity and Control • Agility of Change • Organizational Efficiency • Within LSI/Army • Across One Team Partners (Suppliers) • Concurrency Management • Anchor Points • Check Point Process • Feasibility Assessments • Compound Risk • Integrated Status • Demonstrated Performance
What We’ve Learned • Communications requirements are enormous • Our Organization is a Culture of Cultures • Top is very agile with ideas and desires • Bottom is more cautious and pragmatic • Outside organizations are transforming as well • Testers and Evaluators • Certification and Release Authorities • Auditors
Summary • What is working • Check Points for SW • Staff adjustments to concurrency • Outside Experts/Oversight Agency Access • What can be improved • Anchor Points for Systems Engineering • Flexibility in Criteria for Checkpoints/Anchor Points • Go/No-Go versus Risk Assessment • Incremental Feasibility Assessment