Difference between revisions of "Outline"
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***[[Systems Engineering Overview]] | ***[[Systems Engineering Overview]] | ||
***[[Economic Value of Systems Engineering]] | ***[[Economic Value of Systems Engineering]] | ||
| + | ***[[A Brief History of Systems Engineering]] | ||
***[[Systems Engineering: Historic and Future Challenges]] | ***[[Systems Engineering: Historic and Future Challenges]] | ||
***[[Systems Engineering and Other Disciplines]] | ***[[Systems Engineering and Other Disciplines]] | ||
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**[[Systems Engineering and Enterprise IT]] | **[[Systems Engineering and Enterprise IT]] | ||
**[[Systems Engineering and Quality Attributes]] | **[[Systems Engineering and Quality Attributes]] | ||
| + | ***[[A Framework for Viewing Quality Attributes from the Lens of Loss]] | ||
***[[Human Systems Integration]] | ***[[Human Systems Integration]] | ||
***[[Manufacturability and Producibility]] | ***[[Manufacturability and Producibility]] | ||
Revision as of 12:39, 30 October 2022
Outline
- Table of Contents
- Part 1: SEBoK Introduction
- Part 2: Foundations of Systems Engineering
- Systems Engineering Fundamentals
- The Nature of Systems
- Systems Science
- Systems Thinking
- Representing Systems with Models
- Systems Approach Applied to Engineered Systems
- Overview of the Systems Approach
- Engineered System Context
- Identifying and Understanding Problems and Opportunities
- Synthesizing Possible Solutions
- Analysis and Selection between Alternative Solutions
- Implementing and Proving a Solution
- Deploying, Using, and Sustaining Systems to Solve Problems
- Applying the Systems Approach
- Part 3: SE and Management
- Systems Engineering STEM Overview
- Model-Based Systems Engineering (MBSE)
- Systems Lifecycle Approaches
- System Lifecycle Models
- Systems Engineering Management
- Business and Mission Analysis
- Stakeholder Needs Definition
- System Architecture Definition
- Detailed Design Definition
- System Analysis
- System Realization
- System Implementation
- System Integration
- System Verification
- System Transition
- System Validation
- System Operation
- System Maintenance
- Logistics
- Service Life Management
- Systems Engineering Standards
- Part 4: Applications of Systems Engineering
- Part 5: Enabling Systems Engineering
- Part 6: Related Disciplines
- Systems Engineering and Environmental Engineering
- Systems Engineering and Geospatial/Geodetic Engineering
- Systems Engineering and Industrial Engineering
- Systems Engineering and Project Management
- Systems Engineering and Software Engineering
- Systems Engineering and Aerospace Engineering
- Systems Engineering and Electrical Engineering
- Systems Engineering and Mechanical Engineering
- Systems Engineering and Civil Engineering
- Systems Engineering and Economics
- Systems Engineering and Enterprise IT
- Systems Engineering and Quality Attributes
- A Framework for Viewing Quality Attributes from the Lens of Loss
- Human Systems Integration
- Manufacturability and Producibility
- System Affordability
- System Hardware Assurance
- System Reliability, Availability, and Maintainability
- System Resilience
- System Resistance to Electromagnetic Interference
- System Safety
- System Security
- Part 7: SE Implementation Examples
- Matrix of Implementation Examples
- Implementation Examples
- Defense System Examples
- Information System Examples
- Management System Examples
- Medical System Examples
- Space System Examples
- Transportation System Examples
- Utilities Examples
- Part 8: Emerging Knowledge
- Emerging Topics
- Introduction to SE Transformation
- Socio-technical Systems
- Artificial Intelligence
- Verification and Validation of Systems in Which AI is a Key Element
- Transitioning Systems Engineering to a Model-based Discipline
- Model-Based Systems Engineering Adoption Trends 2009-2018
- Digital Engineering
- Set-Based Design
- System of Systems and Complexity
- Emerging Research
- Emerging Topics