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Course Outline
Introduction
Overview of Simulink Features and Architecture
- Model-based design with Simulink for government applications
- Differences between MATLAB and Simulink
- Advantages of using Simulink in public sector workflows
- Simulink add-ons for enhanced functionality
Getting Started with Simulink
- User interface and block libraries for government use
- Creating and editing models to meet agency requirements
- Defining system inputs and outputs for public sector projects
- Simulating models to ensure accuracy and reliability
Modeling Discrete Dynamical Systems
- Using basic blocks for discrete dynamical systems in government applications
- Incorporating frames and buffers for efficient data handling
- Distinguishing between frames and multichannel signals
- Working with frame-based signals for enhanced performance
- Modeling multichannel frame-based signals for complex systems
Modeling Logical Expressions
- Creating simple logical expressions to support decision-making processes
- Implementing conditional signal routing for dynamic system responses
- Utilizing zero-crossing detection for precise control
- Leveraging the MATLAB function block for custom logic in government models
Modeling from an Algorithm
- Translating algorithmic specifications into Simulink models for government projects
- Iterative development processes to refine and improve models
- Verifying model accuracy through rigorous testing and validation
Modeling Mixed-Signal Systems
- Examples of mixed-signal models in public sector applications
- Modeling analog-to-digital converters (ADC) for data acquisition systems
Solving Models with Simulink Solver
- Addressing single models for straightforward simulations
- Handling discrete and continuous states for comprehensive system analysis
- Managing multiple rates to ensure accurate timing in complex models
- Utilizing fixed-step and variable-step solvers for optimal performance
- Resolving zero crossings and algebraic loops for robust simulations
Working with Simulink Subsystems and Libraries
- Creating virtual and atomic subsystems to organize model components
- Developing configurable subsystems to support flexible design requirements
- Building custom block libraries tailored for government use
- Modeling conditionally executed subsystems for dynamic behavior
- Implementing condition-driven systems (enabled and triggered subsystems) for responsive models
Performing Spectral Analysis with Simulink
- Analyzing power spectra using the Spectrum Scope block for government projects
- Selecting appropriate analysis parameters to meet specific needs
- Conducting power spectrum analysis (e.g., motor noise) to enhance system performance
- Evaluating discrete system frequency response for precise control
Modeling Multirate Systems
- Selecting blocks for multirate signal processing in government applications
- Resampling oversampled data to improve efficiency
- Designing and converting model filters for optimal performance
- Incorporating anti-imaging and anti-aliasing filters to maintain signal integrity
- Utilizing multirate filter blocks to support diverse system requirements
Exploring Advanced Simulink Topics
- Importing MATLAB or C codes into models for enhanced functionality in government projects
- Facilitating model integration for large-scale public sector initiatives
- Automating modeling tasks to streamline development processes
Troubleshooting
Summary and Conclusion
Requirements
- Understanding of MATLAB concepts and fundamentals
- General knowledge of signal processing principles
Audience for Government
- Engineers
- Scientists
28 Hours