In today’s increasingly competitive marketplace, many organisations are turning to systems engineering practices to improve their responsiveness to the needs and expectations of their stakeholders.
The SysML was defined as a subset and extension of UML2.0 designed to meet the needs of Systems Engineers. The aim is to produce a unified language for describing systems.
This four day course introduces the fundamental practices of Systems Engineering, using the SysML as its notation.
It covers the techniques and methodologies of Systems Engineering in a real-time embedded environment using SysML. The course is a mixture of lectures and practical exercises.
- To understand the importance of Systems Engineering to a project
- To present the core concepts of Systems Engineering
- To give an overview of the Systems Engineering process
- To introduce the SysML notation
Delegates will learn:
- Requirements analysis techniques
- How to define system architectures
- Modelling system dynamic behaviour
- Techniques for analysing system performance
- The SysML notation
Working knowledge of UML is useful, but not essential.
Who should attend?
The course is designed for Systems Engineers who wish to use the SysML in defining their systems.
The course is also recommended for engineers and managers who are responsible for delivering systems with high software content.
It can also be beneficial for systems process engineers
- Four days
- Delegate Handbook
During the course, delegates will participate in individual and group exercises to illustrate and reinforce lecture material.
Introduction to Systems Engineering
- What is Systems Engineering?
- Concepts of SE
- ‘Cradle to grave’ engineering
- The Systems V-Model
Differences between UML2.0 and SysML
- SysML as a subset of UML2.0
- Extensions to UML2.0
- 'Traditional’ vs. Viewpoint-oriented requirements
- Requirements Diagram
- Modelling ‘traditional’ requirements
- Use Case model
- Use case levels
- Goal-oriented use cases
- Defining Use Case Descriptions
- System Context Model
- System Modes model
Defining System Structure
- Package Diagram
- Block Definition Diagrams
- Defining system logical structure
- Internal Block Diagrams
- Defining internal architecture
- Comparison with UML2.0 Structure classes
- Ports and Flows
- Standard Ports
- Atomic Flow ports and Item flows
- Non-Atomic Flow ports and Flow specifications
System Dynamics Modelling
- Sequence Diagrams
- Activity Diagrams
- State Diagrams
Analysing system performance
- Constraints modelling
- Parametric models
- Allocating mathematical models to system elements
The Pragma+ process for SE
- Putting it all together