
Model-Based System Engineering Course
Master Model-Based Systems Engineering from foundational principles to enterprise deployment. This course takes you through SysML modelling, requirements traceability, architecture synthesis, and simulation integration using industry-proven frameworks. You will gain the technical depth and practical tools to lead MBSE adoption on real engineering programmes.
What you will learn:
You will build a complete understanding of systems engineering principles and apply them using SysML, the standard modelling language for MBSE. The course covers all nine SysML diagram types, requirements modelling, functional and physical architecture design, and parametric analysis. You will learn how to integrate SysML models with simulation environments and conduct model-based safety and reliability analyses. Agile MBSE practices, collaborative team modelling, and governance strategies are also addressed. By the end, you will be equipped to plan and execute MBSE adoption across complex engineering programmes.
How you study practically Model-Based System Engineering Course
How you practise Model-Based System Engineering Course
For companies looking to train their teams
With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.
Course content
8 Chapters • 41 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Systems Engineering
Foundations of Systems Engineering
Lesson 1 • System Architecture Concepts
Explains functional, logical, and physical architecture layers. Prepares students to represent these layers using formal modelling languages.
Lesson 2 • Requirements and Needs Analysis
Introduces stakeholder needs elicitation and requirements derivation. Establishes the requirements baseline that models must trace to.
Lesson 3 • What Is Systems Engineering
Defines systems engineering scope, purpose, and historical context. Anchors all subsequent MBSE concepts in a shared disciplinary foundation.
Lesson 4 • System Lifecycle Fundamentals
Covers lifecycle phases from concept through disposal. Provides the temporal framework within which MBSE activities are applied.
Lesson 5 • Complexity and Emergence in Systems
Examines how complexity and emergent behaviour challenge traditional documentation. Motivates the shift to model-based approaches.
Chapter 2HideHide detailsSee detailsIntroduction to Model-Based Systems Engineering
Introduction to Model-Based Systems Engineering
Lesson 1 • Benefits and Business Case for MBSE
Quantifies productivity, quality, and communication gains from MBSE adoption. Equips students to justify MBSE investment to management.
Lesson 2 • MBSE Frameworks and Methodologies
Surveys major MBSE methodologies such as OOSEM, Harmony, and MagicGrid. Students can select an appropriate methodology for a given project context.
Lesson 3 • MBSE Definition and Scope
Precisely defines MBSE and its relationship to the broader SE discipline. Establishes shared terminology used throughout the course.
Lesson 4 • Modelling Languages Overview
Introduces SysML, UML, and domain-specific languages used in MBSE. Prepares students for deep SysML study in subsequent sections.
Lesson 5 • MBSE Tooling Ecosystem
Maps the landscape of MBSE authoring, simulation, and integration tools. Students understand tool categories and integration patterns before hands-on work.
Chapter 3HideHide detailsSee detailsSysML Language Fundamentals
SysML Language Fundamentals
Lesson 1 • Structural Diagrams: BDD and IBD
Teaches Block Definition Diagrams and Internal Block Diagrams in depth. Students model system composition, ports, and connectors accurately.
Lesson 2 • Behavioural Diagrams: Activity and Sequence
Covers activity flow and message-based interaction modelling. Students capture functional behaviour and inter-component communication.
Lesson 3 • SysML Packages and Namespaces
Explains model organisation using packages, namespaces, and views. Students structure large models for navigability and team collaboration.
Lesson 4 • Behavioural Diagrams: State Machine and Use Case
Models discrete state-based behaviour and system-actor interactions. Completes the behavioural diagram suite introduced in the previous section.
Lesson 5 • SysML Architecture and Diagram Types
Maps the nine SysML diagram types and their organisational hierarchy. Provides the structural overview needed before studying individual diagrams.
Lesson 6 • Requirements and Parametric Diagrams
Formalises requirements capture and constraint-based analysis in SysML. Students link requirements to model elements and define performance constraints.
Chapter 4HideHide detailsSee detailsRequirements Modelling and Traceability
Requirements Modelling and Traceability
Lesson 1 • Bidirectional Traceability Management
Maintains consistent traceability from stakeholder needs through verification evidence. Students manage change impact using model-based trace links.
Lesson 2 • Eliciting and Structuring Requirements in Models
Translates stakeholder needs into formal model-based requirements. Builds on lifecycle and requirements basics from Chapter 1.
Lesson 3 • Requirements Relationships and Hierarchy
Models containment, derivation, refinement, and copy relationships. Students construct multi-level requirement hierarchies with correct SysML stereotypes.
Lesson 4 • Allocating Requirements to Architecture
Links requirements to functional and physical architecture elements. Establishes the allocation matrix central to MBSE verification planning.
Lesson 5 • Verification and Validation Planning in Models
Embeds V&V methods and success criteria directly in the requirements model. Connects requirements to test cases and review records within the model.
Chapter 5HideHide detailsSee detailsFunctional and Logical Architecture Modelling
Functional and Logical Architecture Modelling
Lesson 1 • Behaviour Modelling at the Logical Level
Specifies component behaviour using state machines and sequence diagrams. Validates that logical components collectively satisfy all functional requirements.
Lesson 2 • Modelling Functional Flows and Interfaces
Captures data, energy, and material flows between functions. Students define interface control data within the model for downstream design use.
Lesson 3 • Logical Architecture Design
Derives logical components from functional analysis and groups them into subsystems. Students apply allocation relationships to connect functions to logical blocks.
Lesson 4 • Architecture Consistency and Completeness
Applies model-checking techniques to detect gaps and inconsistencies. Students use tool-based queries to verify architecture model integrity.
Lesson 5 • Functional Decomposition Techniques
Breaks system functions into hierarchical sub-functions using activity diagrams. Provides the functional baseline for logical and physical architecture derivation.
Chapter 6HideHide detailsSee detailsPhysical Architecture and Design Synthesis
Physical Architecture and Design Synthesis
Lesson 1 • Physical Architecture Derivation
Allocates logical components to physical hardware, software, and human elements. Builds directly on the logical architecture model from Chapter 5.
Lesson 2 • Interface Management and ICDs
Formalises interface control data within the model to replace static documents. Students generate interface control documents directly from model data.
Lesson 3 • Parametric Modelling for Performance Analysis
Uses parametric diagrams to evaluate performance, mass, power, and cost budgets. Connects constraint models to simulation tools for quantitative analysis.
Lesson 4 • Design Verification Against Requirements
Confirms that the physical architecture satisfies all allocated requirements. Closes the loop between requirements modelling in Chapter 4 and physical design.
Lesson 5 • Design Trade Studies in MBSE
Structures trade studies using model-captured criteria, alternatives, and scores. Students document and justify design decisions within the model.
Chapter 7HideHide detailsSee detailsModel Integration and Simulation
Model Integration and Simulation
Lesson 1 • Digital Twin Foundations
Introduces the digital twin concept as an evolution of MBSE simulation. Students map MBSE model elements to digital twin components and data feeds.
Lesson 2 • Model Integration Patterns
Defines strategies for linking SysML models to external analysis tools. Establishes the integration architecture used in subsequent simulation exercises.
Lesson 3 • Model-Based Analysis Techniques
Applies failure mode, reliability, and performance analyses driven by model data. Students generate analysis reports automatically from the system model.
Lesson 4 • Executable Models and Simulation
Transforms SysML behavioural models into executable simulations. Students run scenarios and collect performance data from model execution.
Lesson 5 • Validating Models Through Simulation
Uses simulation results to validate model accuracy against real or expected behaviour. Students apply model validation criteria and document findings.
Chapter 8HideHide detailsSee detailsMBSE Deployment and Governance
MBSE Deployment and Governance
Lesson 1 • Model Governance and Configuration Management
Establishes policies for model ownership, versioning, and baseline control. Students apply configuration management principles to model repositories.
Lesson 2 • MBSE Implementation Roadmap
Builds a phased plan for MBSE tool, process, and people deployment. Translates readiness assessment findings into actionable milestones.
Lesson 3 • Scaling MBSE Across Programmes
Addresses multi-project model reuse, federated models, and enterprise architecture alignment. Students design a model federation strategy for a multi-team programme.
Lesson 4 • MBSE Maturity and Readiness Assessment
Evaluates organisational SE maturity and MBSE readiness using structured frameworks. Students identify gaps and prioritise improvement actions.
Lesson 5 • Metrics and Continuous Improvement
Defines MBSE-specific metrics for model quality, coverage, and process efficiency. Students design a measurement programme to drive continuous improvement.
Your valid completion certificate
This course is for you:
Systems engineers: ready to replace document-heavy workflows with formal modeling practices.
Aerospace or defense engineers: working on complex programs requiring rigorous architecture control.
Software engineers: expanding into hardware-software integration and system-level design roles.
Engineering managers: seeking to evaluate and sponsor MBSE adoption within their organizations.
Recent engineering graduates: building specialized skills that accelerate entry into SE career tracks.
Career changers: moving from traditional mechanical or electrical roles into systems engineering positions.
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