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© The Aerospace Corporation 2010 Decision Support Framework on System of Systems Problems Aerospace USC Technical Interchange Meeting Dec 17, 2010 Inki Min, Principal Engineering Specialist Architecture & Design Subdivision Engineering and Technology Group

Decision Support Framework CSI FY10 - CSSEcsse.usc.edu/csse/Aerospace_USC/Aero-Dec172011/2 DSF SOSE... · improving the effectiveness of the portfolio of space systems ... •Troux

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© The Aerospace Corporation 2010

Decision Support Framework

on System of Systems Problems

Aerospace – USC Technical Interchange Meeting

Dec 17, 2010

Inki Min, Principal Engineering Specialist

Architecture & Design Subdivision

Engineering and Technology Group

Approved: ____________________

R. J. MinnichelliNov. 1, 2010ARCHITECTURE AND DESIGN

SUBDIVISION

R. J. Minnichelli

Principal Director

S. T. Miller, Exec. Sec

5520

SYSTEM OF SYSTEM PERFORMANCE & EVALUATION OFFICED. M. Blaty, Jr, Sr Eng SpecH. Holtz, Sr Eng Spec

J. Korn, Sr Eng Spec

C. D. Nealy, Sr Eng SpecL. D. Newman, Sr Eng SpecL. R. Western, Sr Eng SpecT. D. Gottschalk, Eng Spec

V. J. Kong, Sr MTS

SPACE SYSTEMS ENGINEERING OFFICEN. Caraballo, Sr Eng SpecC. J. Lee-Wagner, Sr Eng SpecG. N. Smit, Sr Eng SpecK. J. Scully, Eng SpecP. E. Covello, Sr MTSB. J. Guernsey, Sr MTS (COS) (ARP)D. L. Semmen, Sr MTS

R. F. Morris (COS) (C)J. Watson (C)

5523

SYSTEMS PERFORMANCE, ESTIMATION & ALGORITHMS

DEPARTMENT

M. E. Permann, DirectorK. B. Bradford, Assoc. Director (COS)

T. D. Hoang, Sr Project LeaderM. H. Clayson, Sr Eng Spec R. C. Kellogg, Sr Eng SpecM. A. Landa, Sr Eng SpecR. D. Stearns, Sr Eng Spec L. W. Wickman, Sr Eng Spec

C. J. Rice (C)A. B. Izaguirre (C)

MISSION DEVELOPMENT & EVALUATION OFFICE

M. A. Lobbia, Manager

E. M. Mahr, Eng Spec

K. Kipp, Sr MTS

N. F. Brown, Sr MTS

D. A. Bucher, Sr MTS (VAFB)

S. K. Martinelli , MTS

D. S. Wright, MTS

C. L. Tanner (C)

SYSTEM PERFORMANCE AND ANALYSIS OFFICEL. L. Krothapalli, Manager T. O. Radcliffe, Eng SpecR. T. Urbano, Eng Spec

N. E. Martin, Sr MTS

A. M. Holder (C)

5522

SPACE ARCHITECTUREDEPARTMENT

F. A. Bick, Director

5521

VEHICLE CONCEPTSDEPARTMENT

J. A. Aguilar, DirectorJ. Chobany, Assoc. Director (AVIR)

SPACE SYSTEMS DESIGN

OFFICE

M. J. Barrera, Sr Eng Spec

R. J. Bywater, Sr Eng Spec

A. R. Moke, Sr Eng Spec

M. G. Spencer, Sr Eng Spec (AVIR)

S. D. Szogas, Sr Eng Spec

VEHICLE CONCEPTUAL

DESIGN SECTION

J. Padin, Manager

J. A. Lang, Eng Spec

B. S. Lewis, Proj Eng (SUNY)

R. C. Carnright, Sr MTS

D. C. Judnick, Sr MTS

E. B. Murrell, MTS

W. L. Plumb, MTS

O. K. Rossi, AMTS

D. E. Lluncor (C)

A. N. Sanny (C)

T. D. Wheaton(C)

T. G. Jones, Admin SecR. C. Jenkins, Admin Sec S. R. Burchell, Admin Sec (C)

CONCEPT DESIGN CENTER OFFICE

D. A. Nigg, Director

5525

S. Hernandez, MTS

S. T. Miller, Exec. Sec

SOSE Office

I. A. Min, Princ Eng Spec

R. A. Noguchi, Sr Proj Leader

M. P. Ferringer, Proj Leader (AVIR)

Technology Assessment

N. Sramek, Sr Proj Leader

(ARP) Aerospace Rotation Program

(AVIR) Aerospace Virginia (Chantilly)

(C) Casual

(COS) Colorado Springs

(SOSE) Sys of Sys Eng Office

(SUNY) Sunnyvale

(VAFB) Vandenberg

3

What is System-Of-Systems?

• The term “system-of-systems” has no widely accepted definition

• Many suggestions and variations

– Large geographically distributed assemblages, Eisner 1993

– Collaborative systems, Maier 1999

– Systems of Systems Systems Engineering, DOD Defense Acquisition Guide

Book, 2004

– Family of Systems, CJCS Instruction 3170.01F, 2007

– …

• Attributes of system-of-systems may include but are not limited to:

– Multiple components in many layers

– Complexity in relationships

– Dynamic interdependencies

– Multiple objectives

– Uncertainty in requirements

– More than just the sum of its parts (emergent behavior)

4

• We focus on architecting, design, analysis and evaluation in support of

programs that serve the National interest

– Particularly in cross-organizational and multiple segment portfolios

– Application of processes, tools, resources and people for high level decision

support

• Current strategy is to enhance and develop capability through

– Solving relevant problems and performing studies for select program offices

– Execution of Corporate Strategic Initiative (CSI) project on Decision Support

Framework (DSF)

– Developing SOSE specific models/tools

• Team

– SOSE Office (Inki Min, Ryan Noguchi, Matthew Ferringer)

– Draw in talent from various Departments in ETG and other Architects around

the company

Systems-Of-Systems Engineering Office

5

Corporate Strategic Initiative

– Develop improved strategic and programmatic decision support

techniques that can be used to identify best value opportunities for

improving the effectiveness of the portfolio of space systems

• Facilitate portfolio, cross-portfolio and cross-agency trades that include non-

space elements

• Determine impact of changes to architecture effectiveness

• Identify capability gaps, integration and technology insertion opportunities

• Transition successful techniques into applications and corporate best practices

• Train next generation of corporate analysts and leaders

– Example types of problems

• Program portfolio management (restructuring, planning, budgeting)

• Help organize follow-on transition strategies for various budget scenarios

– Good alignment of SOSE capability goals

Decision Support Framework

6

Elements of Decision Support Framework

Processes• Analysis of Alternatives (AoA)

• Aerospace System Architecting Methodology (ASAP)

• Architecture Design & Evaluation (AD&E)

• Concurrent Program Definition Environment (CPDE)

• Concept Development Center (CDC)

• Military Utility Workshop

Tools

• Study Planner

• Portfolio Decision Support Tool

• Sand Chart Tool (SCT)

• GRIPS

• Troux Architect

• Model Center

• Program Acquisition Model (PAM)

Resources• Data repositories

• Decision product templates

• Acquisition & management practices

• Center for Space Policy & Strategy,

• Project West Wing

• Reference material

• DSF Web page/portal

People• Cadre of experts

• Knowledge & experience building

• Training (The Aerospace Institute)

• Decision maker interfaces

Decision Support

7

Recent and Planned Activities

Multiple activities under way -

Tool development, Program architecture capture, Capability application

• Decision space exploration

– Mini survey (in-house)

• Resources

– Study Planner

– Defense Intelligence System Acquisition – Government processes

– Previous studies/reports/decisions

– Product templates

• Capability development/extension

– Military Utility - STAMP

– Architecture Integration and dynamic display - Portfolio Decision Support Tool

– Model Integration and analysis - ModelCenter

– Portfolio budget trades using multi-objective optimization

– Affordability Tool - Sand Chart Tool

– Programmatics - CPDE

– Strategy, Policy – CSPS, PWW

• People

– Work group - Inform and get informed

• Decision Support Framework definition

– Methodology, (study processes, flow diagrams, tools)

• Pilot studies / Data capture

– Portfolio budget trades using GRIPS, strategic portfolio capture and analysis

– Program office support

8

Decision Support Framework – Desired AttributesGeneral tenets

• Flexible

– Applicable for different customers and

types of studies

• Broad

– Comprehensive in scope and

perspective

• Modular

– Be able to swap out component

analyses as studies change

• Scalable

– Use on problems of various scope

• Account for robustness

– changing future

– uncertain estimates

• Include risk assessment

• Handle multiple objectives

– Understand trade space & tradeoffs

• Focus on big decisions

– Understand the real discriminators

• Consider external impacts

• Addresses programmatics

– implementation and transition issues

• Produces consistent results

– repeatable structure

– product

– look and feel

• Practical

– Implementable/actionable

– Convey information at appropriate levels

– Avoid “overwhelming” details

9

Decision Support Framework Evolution

Pilot

Studies

Operational

Studies

Institutionalized

Process

Framework

Development

Feedback & Refinement

Process Tools

Resources People

Decision Support

10

Framework Components

Decision Support Approach

Decision-Makers

Interface

Process

Tools

Net Assessment

Architecture Design

Concept Design Center

+

PeopleResources

TAIPractices

GRIPS

SCT

11

ProcessesTools

Resources People

Decision Support

Processes

Enterprise Architecture Modeling

Analysis of Alternatives

Architecture Design & Evaluation Process

Step

Output

Tools

ProblemDefinition

Summary

Alternatives

Implementation &Operational

Context

Analysis &Evaluation

Systems Definition

Scope, WBSObjectives, MetricsDecision CriteriaCapabilities, Constraints

“Architecture”DesignInterdependenciesProgrammatics

TradeoffsComparisonPresentation

Cost, ScheduleRisk, MOPsPerformanceUtility, MOEsOther impacts

Trade TreeScreeningConcepts selection

CONOPS , EnvironmentMissions, NeedsRequirements, PolicyPolitics, Acquisition StrategyInfrastructure, Technology

CDC, CEMEnterprise Arch

STAMPSEASCASAUSCMCPDE

ProTreeGRIPS

StoplightBlanketSpider

PWWCSPSGAP

Study Planner

13

Tools

• Many existing tools

– various types and at various levels

• Current CSI focus on

– Study Planner

– Portfolio Decision Support Tool (PDST)

– Strategies to Tasks to Architecture Measures of Performance (STAMP)

– GRIPS application to portfolio problems

– ModelCenter for integrated system modeling and analysis

– Sand Chart Tool (SCT) application to NSS problems

ProcessesTools

Resources People

Decision Support

14

Backup

15

DOD SoS Terminology (1 of 2)• System of Systems (SoS)

– A set or arrangement of systems that results when independent and useful systems are integrated into a larger system that delivers unique capabilities

• Family of Systems (FoS)

– A set of systems that provide similar capabilities through different approaches to achieve similar or complementary effects. [CJCS, 2007(1)] A family of systems lacks the synergy of a system of systems. The family of systems does not acquire qualitatively new properties as a result of the grouping. In fact, the member systems may not be connected into a whole.

• SoS Systems Engineering (SoSE)

– SoSE deals with planning, analyzing, organizing, and integrating the capabilities of a mix of existing and new systems into an SoS capability greater than the sum of the capabilities of the constituent parts. Consistent with the DoD transformation vision and enabling net-centric operations (NCO), SoS may deliver capabilities by combining multiple collaborative and autonomous-yet-interacting systems. The mix of systems may include existing, partially developed, and yet-to-be-designed independent systems

Office of the Deputy Under Secretary of Defense for Acquisition and Technology, Systems and Software Engineering. Systems

Engineering Guide for Systems of Systems, Version 1.0. Washington, DC: ODUSD(A&T)SSE, 2008

16

DOD SoS Terminology (2 of 2 – Types of SoS)―In DoD and elsewhere, SoS can take different forms. Based on a recognized taxonomy of SoS, there are four types of SoS which are found in the DoD today [Maier,1998; Dahmann, 2008]. These are:

• Virtual. Virtual SoS lack a central management authority and a centrally agreed upon purpose for the system-of-systems. Large-scale behavior emerges—and may be desirable—but this type of SoS must rely upon relatively invisible mechanisms to maintain it.

• Collaborative. In collaborative SoS the component systems interact more or less voluntarily to fulfill agreed upon central purposes. The Internet is a collaborative system. The Internet Engineering Task Force works out standards but has no power to enforce them. The central players collectively decide how to provide or deny service, thereby providing some means of enforcing and maintaining standards.

• Acknowledged. Acknowledged SoS have recognized objectives, a designated manager, and resources for the SoS; however, the constituent systems retain their independent ownership, objectives, funding, and development and sustainment approaches. Changes in the systems are based on collaboration between the SoS and the system.

• Directed. Directed SoS are those in which the integrated system-of-systems is built and managed to fulfill specific purposes. It is centrally managed during long-term operation to continue to fulfill those purposes as well as any new ones the system owners might wish to address. The component systems maintain an ability to operate independently, but their normal operational mode is subordinated to the central managed purpose.‖

Office of the Deputy Under Secretary of Defense for Acquisition and Technology, Systems and Software Engineering. Systems

Engineering Guide for Systems of Systems, Version 1.0. Washington, DC: ODUSD(A&T)SSE, 2008