Model Based Testing, MBT Training
Model-based testing (MBT) is an approach where test cases are automatically generated from application models.
It is a modern software testing approach that uses a secondary, lightweight implementation of a software build which is called a model. Ideally, this model is an abstraction of the real-world function and exhibits the expected behavior of the system under test.
One of the most significant advantages of model based testing is that it optimizes the software testing time and cost. To further make test execution more efficient, the automated validation tools access the shortest possible path from the start point to the endpoint. Automated test case generation and execution makes the overall testing solution more efficient and less error-prone.
Another advantage of model based testing is that it generates a minimal number of test cases to validate a given functional or data flow to ensure that the system under test works flawlessly and never does anything undesirable. The minimum number of test cases further result in cost optimization for testing.
Model based testing (MBT) is a strategy that helps leverage test automation more thoroughly, especially when it comes to requirements adjustment.
Most experts now believe that test automation is essential for faster and more efficient mobile app testing in order to streamline the workflow and take advantage of the latest development methodologies.
In the Capgemini 2019 Continuous Testing Report, 40% of respondents said their current approach to requirements gathering and analysis is not automated. This means that, in most cases, testing is not incorporated into the initial phase of setting the requirements. At this stage, a lot of time and effort – respondents reported about 40-70% – is spent on clarifying specifications.
In the DevOps environment, you can’t afford to spend time so inefficiently. The model based approach offers maximum test coverage with the smallest number of test cases, as well as maintaining them when the requirements change.
Model Based Testing Course by Tonex
Model Based Testing, Model Based Systems Engineering (MBSE) is a 3-day hands-on project based training course. Model based Testing/Model Based Engineering covers the formalized application of modeling to support systems analysis, use cases, requirements, design, analysis, testing, verification, and validation activities.
MBSE can manage the deployment and testing of complex systems without ad-hoc collections of independent documents. Testing with MBSE with SysML includes a general-purpose graphical modeling technique for specifying, analyzing, designing, testing, and verifying complex systems that may include hardware, software, information, personnel, procedures, and facilities.
Upon completion of this course, the attendees will:
- Understand what MBSE is
- Describe how MBSE supports systems engineering test processes including unit testing, subsystem testing, system integration, verification and validation and System of Systems (SoSE) testing
- Recognize the various types of model-based testing methodologies
- Apply MBSE knowledge in your day-to-day testing work
- Discover the benefits of a SysML-based model based test approach
- Learn how SysML is used to model verification and validation
- Learn the benefits of implementing MBSE and SysML in a modeling test and verification environment
- Learn SysML fundamental verification and validation constructs
- Create a plan to deploy MBSE and SysML technologies in your organization to support all test and evaluation (T&E) tasks and processes
- Use Model Based Testing (MBT) along with MBSE approach for specifying, developing and testing complex systems
- Create Model Based Testing (MBT) plans with requirements and V&V Domains
- Learn about Model-Based Systems Engineering (MBSE) key testing artifacts
Who Should Attend?
Model Based Testing/MBSE Training Course is designed for test engineers, analysts, project managers and anyone else involved in test and evaluation, systems engineering and acquisition, modeling, simulation, DoE, and O&M.
Participants will learn how model based testing and MBSE can assist in defining system capabilities and limitations, improving the system performance, and optimizing system use and sustainment in operations. T&E enables the engineers and PMs to learn about limitations (technical or operational), Critical Operational Issues (COI), of the system under development so that they can be resolved prior to production and deployment.
Learn how model based testing and MBSE is used as a process to compare complex system or components against requirements and specifications through testing. Developmental test and evaluation (T&E) is used as an engineering tool to reduce risk throughout the acquisition cycle. Operational test and evaluation (OT&E) is used as actual or simulated environment to evaluate systems under realistic operational conditions.
Model-based Systems Engineering (MBSE)
- Definition of Model-Based Systems Engineering (MBSE)
- System Model
- Contrasting Document-Based SE with MBSE
- Purpose for Modeling a System
- Requirements for a system engineering process
- What is a model?
- An Integrating framework for the Systems Engineering
- MBSE definitions
- MBSE benefits and advantages
- Unlocking the power of MBSE
- Four elements of a model
- Characteristics of a model
- System modeling language
- Modeling the behavior
- Structure and system relationships the model and concept of the design
- MBSE Methodologies
- MBSE model and system definition language
- Modeling languages and information standards
MBSE Across the System Life Cycle
- MBSE ‘s role to facilitate traditional SE activities
- Specification and design precision
- System design integration
- Re-use of system artifacts
- Output of MBSE as a system model
- Model Requirements
- Model Analysis and Design
- Model Simulation
- Model Code
- Model Test
- Simple Model Construction
- Requirements, functions, and components
- Modeling Notations
- Integrated graphical views
- Systems Engineering Solutions
- Robust and agile analysis
- Requirements definition through architecture to systems verification
- End-to-end traceability
- Extensive behavioral modeling representing control flow, function flow, and interface flow
- System simulations
- Behavioral models
- Integrated Model-Based
- Model-based Operational and System Architecture
- Languages, Processes, Tools and architecture frameworks
Overview of SysML
- Introduction to the OMG Systems Modeling Language (OMG SysML™)
- 4 Pillars of SysML
- SysML Diagram Types
- SysML Diagrams
- Package diagram
- Requirement diagram
- Use Case diagram
- Block Definition diagram
- Internal Block diagram
- Activity diagram
- Sequence diagram
- State Machine diagram
- Parametric diagram
Systems Engineering and Testing with MBSE/SysML
- Using SysML in Support of MBSE
- Modeling Functionality with Use Cases
- Modeling Requirements and their Relationships
- Modeling Verification and Validation (Use Cases and Requirements Diagrams)
- Modeling Structure with Blocks (Block Definition Diagrams)
- Modeling Structure with Blocks (Internal Block Diagrams)
- Modeling Flow-Based Behavior with Activities
- Modeling Event-Based Behavior with State Machines
- Modeling Message-Based Behavior with Interactions
- Modeling Constraints with Parametrics
- Modeling Cross-Cutting Relationships with Allocations
Model-based Testing (MBT) with MBSE
- Specifying, developing and testing complex systems
- Requirements Domain
- Behavior Domain
- V&V Domain
- Model-Based Systems Engineering (MBSE) key testing artifacts
- Executable systems model
- Continuous verification of system models
- Model simulation
- Continuously verify the dynamic behavior of the models
- Verification activities and the systematic approach
- High degree of automation by re-using use case scenarios derived from systems models
- Automated verification of refined models against higher-level descriptions
Model-based Testing (MBT) Workshops
- Specifying, developing, and testing a system
- Starting with the initial Stakeholder requirements
- Functional Analysis and Architectural Design.
- Use-Case-, Block-, State-, Sequence-Diagrams
- Requirements Diagrams
- Verification and validation models
- Simulating your system using Python
Model Based Testing Training