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Year 11 — Programming Mechatronics

This module explores the integration of mechanical, electrical, and software systems through mechatronics, teaching students how to design and program intelligent systems that interact with the physical world. Using Python simulations and conceptual understanding, it prepares students for real-world hardware integration.

Module Overview

Mechatronics combines mechanical engineering, electronics, and software to create intelligent systems. This module teaches the principles of mechatronic design, focusing on sensors, actuators, control algorithms, and system integration through Python programming and simulation.

Key focus areas:

  • Mechatronic system components and applications

  • Data handling and electrical integration

  • Control algorithms and autonomous systems

  • Python simulations and testing approaches

Learning Outcomes

Students will develop the ability to:

  • Understand mechatronic components including sensors, actuators, computing hardware, and their characteristics (SE-11-03)

  • Work with device data including logging, diagnostics, and data interpretation (SE-11-04)

  • Design accessible systems considering usability, safety, and inclusive design principles (SE-11-05)

  • Implement control algorithms using programming constructs and feedback systems (SE-11-02)

  • Test mechatronic solutions through simulation and systematic testing approaches (SE-11-06, SE-11-07)

Chapters

Chapter 7: Mechatronics Foundations

Introduction to mechatronic systems including applications, computing hardware fundamentals, and key components like sensors, actuators, and end effectors with their capabilities and selection criteria.

Chapter 8: Data and Integration

Device data handling, diagnostics, wiring diagrams, power requirements, and accessible design considerations for inclusive mechatronic systems.

Chapter 9: Control Algorithms

Control system concepts including open vs closed loop systems, autonomous features, algorithmic patterns (state machines, PID, scheduling), and mechanical constraints.

Chapter 10: Programming and Building

Python simulations, closed-loop control implementation, sensor/actuator integration, user interfaces, and comprehensive testing strategies for mechatronic systems.

Implementation Philosophy

This module emphasizes simulation-first learning:

  • Python-based simulations before hardware implementation

  • Conceptual understanding of electrical and mechanical principles

  • Progressive complexity from components to integrated systems

  • Safety and accessibility considerations throughout

  • Testing and validation through software simulation

Prerequisites

  • Completion of Programming Fundamentals module

  • Basic Python programming skills

  • Understanding of basic electronics concepts (helpful but not required)

Getting Started

  1. Begin with Chapter 7 to understand mechatronic components and applications

  2. Progress through Chapters 8-9 to learn data handling and control concepts

  3. Complete with Chapter 10 to implement and test control systems in Python

The module builds from individual components to integrated systems, emphasizing safe and accessible design throughout.