Managing Complex Technical Projects: A Systems Engineering Approach, Second Edition

Managing Complex Technical Projects: A Systems Engineering Approach, Second Edition delivers a disciplined framework for planning, executing, and delivering complex engineered systems in today’s high-risk, high-interdependency environments. Modern technical programs in aerospace, transportation, energy, and communications demand tight coordination across global teams, compressed schedules, and rapidly changing technologies. Integrating project management and systems engineering into a single, coherent approach enables teams to deliver systems that meet performance requirements, schedule constraints, and cost targets.

Grounded in the complete system life cycle, practitioners discover how stakeholder needs are translated into functional and physical architectures, designs, and verification strategies across conceptual, preliminary, detailed design, and production phases. Dive deep into the core practices of systems engineering management, linking life cycle planning, configuration control, and performance measurement with practical tools such as requirements traceability, system modeling, and risk-informed decision making. The text also examines contemporary development approaches, including waterfall, incremental, evolutionary, spiral, and Agile methods, and clarifies their implications for engineering management, assurance, and logistics.

Serving project managers, systems engineers, and advanced engineering students, this reference clarifies how systems engineering, project management, and business analysis intersect in large technical programs. By emphasizing disciplined integration and early risk control, it equips practitioners to manage complexity, control interdependencies, and avoid costly overruns and performance failures. The result is a practical foundation for delivering large-scale engineering systems with confidence in an increasingly complex project environment.

1. Project Management and Systems Engineering
1.1. Introduction
1.2. What is a System?
1.3. A Systems Approach
1.4. System Lifecycle
1.5. Acquisition and Utilization Phases
1.6. Parties Involved
1.7. What is Systems Engineering?
1.8. Verification and Validation and Test and Evaluation (T&E)
1.9. Systems Development Approaches
1.10. Systems Engineering Relevance
1.11. Systems Engineering Benefits
1.12. Analysis, Synthesis and Evaluation
1.13. A Systems Engineering Framework
1.14. Systems Engineering and Project Management
1.15. Summary
1.16. Some Qualifications Before We Continue

2. Conceptual Design
2.1. Introduction
2.3. C2. Define Stakeholder Needs and Requirements
2.4. C3. Define System Requirements
2.5. C4. Conduct System-Level Synthesis
2.6. C5. Conduct System Design Review (SDR)
2.7. Summary

3. Preliminary Design
3.1. Introduction
3.2. Subsystem Requirements Analysis
3.3. Requirements Allocation
3.4. RBS Versus WBS
3.5. Interface Identification and Design
3.6. Subsystem-level Synthesis and Evaluation
3.7. Preliminary Design Review (PDR)
3.8. Summary

4. Detailed Design and Development
4.1. Introduction
4.2. Detailed Design Requirements
4.3. Designing and Integrating System Elements
4.4. System Prototype Development
4.5. Detailed Design Reviews
4.6. Construction and/or Production
4.7. Operational Use and System Support
4.8. Retirement Phase
4.9. Summary

5. Systems Engineering Management
5.1. Introduction
5.2. Technical Reviews and Audits
5.3. System Test and Evaluation
5.4. Technical Risk Management
5.5. Configuration Management
5.6. Specifications
5.7. Standards
5.8. Integration Management
5.9. Systems Engineering Management Planning
5.10. Summary

6. Systems Engineering Tools
6.1. Systems Engineering Management Tools
6.2. Systems Engineering Process Tools
6.3. Model-based Systems Engineering (MBSE)
6.4. Summary

7. Related Disciplines and System Development Approaches
7.1. Introduction
7.2. Related Disciplines
7.3. System Development Methodologies
7.4. Summary

List of Acronyms
Author Biographies