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<strong>Applied</strong> Systems Engineering<br />

A 4-Day Practical<br />

Workshop<br />

Planned and Controlled<br />

Methods are Essential to<br />

Successful Systems.<br />

Participants in this course<br />

practice the skills by designing and building<br />

interoperating robots that solve a larger problem.<br />

Small groups build actual interoperating robots to<br />

solve a larger problem. Create these interesting and<br />

challenging robotic systems while practicing:<br />

• Requirements development from a stakeholder<br />

description.<br />

• System architecting, including quantified,<br />

stakeholder-oriented trade-offs.<br />

• Implementation in software and hardware<br />

• Systm integration, verification and validation<br />

Summary<br />

Systems engineering is a simple flow of concepts,<br />

frequently neglected in the press of day-to-day work,<br />

that reduces risk step by step. In this workshop, you<br />

will learn the latest systems principles, processes,<br />

products, and methods. This is a practical course, in<br />

which students apply the methods to build real,<br />

interacting systems during the workshop. You can use<br />

the results now in your work.<br />

This workshop provides an in-depth look at the<br />

latest principles for systems engineering in context of<br />

standard development cycles, with realistic practice on<br />

how to apply them. The focus is on the underlying<br />

thought patterns, to help the participant understand<br />

why rather than just teach what to do.<br />

Instructor<br />

Eric Honour, CSEP, international consultant and<br />

lecturer, has a 40-year career of<br />

complex systems development &<br />

operation. Founder and former<br />

President of INCOSE. He has led the<br />

development of 18 major systems,<br />

including the Air Combat Maneuvering<br />

Instrumentation systems and the Battle<br />

Group Passive Horizon Extension System. BSSE<br />

(Systems Engineering), US Naval Academy, MSEE,<br />

Naval Postgraduate School, and PhD candidate,<br />

University of South Australia.<br />

This course is designed for systems engineers,<br />

technical team leaders, program managers, project<br />

managers, logistic support leaders, design<br />

engineers, and others who participate in defining<br />

and developing complex systems.<br />

Who Should Attend<br />

• A leader or a key member of a complex system<br />

development team.<br />

• Concerned about the team’s technical success.<br />

• Interested in how to fit your system into its system<br />

environment.<br />

• Looking for practical methods to use in your team.<br />

April 16-19, 2012<br />

Orlando, Florida<br />

$1890 (8:30am - 4:00pm)<br />

Register 3 or More & Receive $100 00 Each<br />

Off The Course Tuition.<br />

Course Outline<br />

1. How do We Work With Complexity Basic<br />

definitions and concepts. Problem-solving<br />

approaches; system thinking; systems<br />

engineering overview; what systems engineering<br />

is NOT.<br />

2. Systems Engineering Model. An<br />

underlying process model that ties together all<br />

the concepts and methods. Overview of the<br />

systems engineering model; technical aspects of<br />

systems engineering; management aspects of<br />

systems engineering.<br />

3. A System Challenge Application.<br />

Practical application of the systems engineering<br />

model against an interesting and entertaining<br />

system development. Small groups build actual<br />

interoperating robots to solve a larger problem.<br />

Small group development of system<br />

requirements and design, with presentations for<br />

mutual learning.<br />

4. Where Do Requirements Come From<br />

Requirements as the primary method of<br />

measurement and control for systems<br />

development. How to translate an undefined<br />

need into requirements; how to measure a<br />

system; how to create, analyze, manage<br />

requirements; writing a specification.<br />

5. Where Does a Solution Come From<br />

Designing a system using the best methods<br />

known today. System architecting processes;<br />

alternate sources for solutions; how to allocate<br />

requirements to the system components; how to<br />

develop, analyze, and test alternatives; how to<br />

trade off results and make decisions. Getting<br />

from the system design to the system.<br />

6. Ensuring System Quality. Building in<br />

quality during the development, and then<br />

checking it frequently. The relationship between<br />

systems engineering and systems testing.<br />

7. Systems Engineering Management. How<br />

to successfully manage the technical aspects of<br />

the system development; virtual, collaborative<br />

teams; design reviews; technical performance<br />

measurement; technical baselines and<br />

configuration management.<br />

38 – Vol. 111 Register online at www.ATIcourses.com or call ATI at 888.501.2100 or 410.956.8805

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