Robotics for Teachers Course

Lesson 1 • Safety and Classroom Norms

Establishes physical and digital safety protocols specific to robotics environments. Educators develop non-negotiable rules before introducing hardware to learners.

Lesson 2 • Robotics and STEM Integration

Connects robotics to science, technology, engineering, and maths standards. Educators see how robotics serves as an integrating context for cross-disciplinary learning.

Lesson 3 • What Is Educational Robotics

Defines robotics as a discipline and distinguishes educational from industrial applications. Grounds educators in vocabulary needed for all subsequent chapters.

Lesson 4 • Robotics Across Grade Levels

Maps robotics concepts to developmental stages from early childhood through secondary school. Educators identify appropriate entry points for their specific grade band.

Lesson 1 • Logic and Conditionals

Covers Boolean logic, if-then-else structures, and decision trees as applied to robot behaviour. Educators connect abstract logic to observable robot responses.

Lesson 2 • Loops and Repetition

Explains count-controlled and condition-controlled loops through unplugged and plugged activities. Educators design repeating robot behaviours without redundant code.

Lesson 3 • Debugging as a Learning Strategy

Frames debugging as systematic inquiry rather than failure. Educators practise structured error-finding routines they can model for learners during robot projects.

Lesson 4 • Pillars of Computational Thinking

Introduces decomposition, abstraction, pattern recognition, and algorithms as a unified framework. Provides the mental models educators need before writing any code.

Lesson 1 • Managing a Build Session

Structures learner build sessions with roles, timelines, and quality checkpoints. Educators leave with a facilitation plan that keeps groups on task and on schedule.

Lesson 2 • Troubleshooting Hardware Issues

Provides systematic methods for diagnosing mechanical and electrical robot failures. Educators develop a repair toolkit and triage process for classroom breakdowns.

Lesson 3 • Understanding Robot Kits

Surveys common educational robot kits, their components, and assembly documentation. Educators evaluate kit suitability for their budget, grade level, and curriculum goals.

Lesson 4 • Wiring and Electronics Basics

Introduces circuits, connectors, and motor wiring within safe educational contexts. Educators gain confidence handling electronics and preventing common wiring mistakes.

Lesson 1 • Control Flow in Block Programmes

Implements loops, conditionals, and event triggers using block structures. Educators connect computational thinking concepts from Chapter 2 to actual robot behaviour.

Lesson 2 • Motion and Movement Blocks

Programmes forward, backward, and turning movements using distance and degree inputs. Educators build foundational robot navigation skills used in all subsequent projects.

Lesson 3 • Sensor Input Blocks

Reads data from touch, light, ultrasonic, and colour sensors within block programmes. Educators learn to trigger robot actions based on real-world environmental input.

Lesson 4 • Introduction to Block-Based Environments

Surveys popular block-based platforms and their interfaces. Educators identify which platform best matches their robot hardware and learner age group.

Lesson 1 • Sensor Data and Control Logic

Combines sensor readings with conditional and loop structures in text code. Educators programme robots that respond dynamically to changing environmental conditions.

Lesson 2 • Capstone Text-Code Project

Educators design and code a complete autonomous robot behaviour using text programming. Produces a documented, classroom-ready project that demonstrates text-code proficiency.

Lesson 3 • Variables and Data Types

Introduces integers, floats, strings, and Booleans as tools for storing robot state. Educators use variables to make programmes flexible and responsive to sensor data.

Lesson 4 • From Blocks to Text Code

Bridges block-based concepts to equivalent text syntax using side-by-side comparisons. Reduces educator anxiety about text coding by anchoring new syntax to familiar logic.

Lesson 1 • Sequencing Lessons Within a Unit

Orders lessons from concept introduction through application and synthesis. Educators build a pacing guide that balances direct instruction, practice, and project time.

Lesson 2 • Backward Design for Robotics

Applies backward design by starting with desired outcomes before selecting activities. Educators align every lesson to measurable learning goals rather than technology novelty.

Lesson 3 • Differentiating Robotics Instruction

Adapts robotics tasks for diverse learners including advanced learners and those with disabilities. Educators design tiered challenges and scaffolds that keep all learners engaged.

Lesson 4 • Cross-Curricular Unit Integration

Embeds robotics challenges within science, maths, language arts, and social studies units. Educators create authentic contexts that justify robotics as a learning tool, not an add-on.

Lesson 1 • Marking and Reporting Robotics Work

Addresses mark calculation, portfolio evidence, and communicating robotics progress to families. Educators develop transparent marking policies that reflect process as well as product.

Lesson 2 • Rubric Design for Robotics Projects

Builds analytic rubrics that assess design, code quality, teamwork, and presentation. Educators produce rubrics learners can use for self-assessment before final submission.

Lesson 3 • Performance Tasks and Challenges

Designs authentic performance tasks where robots must complete real-world-inspired missions. Educators create tasks that reveal both programming skill and engineering reasoning.

Lesson 4 • Formative Assessment Strategies

Provides low-stakes, real-time checks including exit tickets, peer review, and observation logs. Educators embed these tools into daily robotics lessons to adjust instruction immediately.

Lesson 1 • Project Documentation and Journals

Establishes engineering notebook and digital journal practices for learner project records. Educators use documentation as both a learning tool and an assessment artifact.

Lesson 2 • Showcase and Presentation Events

Plans learner showcase events where teams present robots to authentic audiences. Educators design presentation formats that develop communication skills alongside technical ones.

Lesson 3 • The Engineering Design Process

Walks through define, ideate, prototype, test, and iterate as a classroom framework. Educators see how each phase maps to specific educator and learner actions during projects.

Lesson 4 • Coaching Without Giving Answers

Develops questioning techniques that guide learners to solutions without direct instruction. Educators practise Socratic prompts and productive struggle strategies for robotics contexts.