LEARNING PATHWAY

Robotics & Coding

Connects algorithms, Scratch, Python, web, electronics, micro:bit, Arduino, sensors, actuators, robotic systems, data and project work in one production path.

Last updated: 27 July 2026
CENTRAL QUESTION

In what sequence do you develop, test and document a problem from algorithm to a safe physical prototype?

Completion evidence for this pathway is working code, circuit diagram, input–process–output tests, error log and project versions. Page count or time spent alone does not demonstrate competence.

The intended capstone is a small system that senses a real need, makes a decision, produces an output and has tested safety limits. It should connect the lessons in one artefact and retain failed tests as evidence.

Learning evidence

Working code, circuit diagram, input–process–output tests, error log and project versions

Capstone

A small system that senses a real need, makes a decision, produces an output and has tested safety limits

Return trigger

At every new module, after a failed project test, when hardware changes and at each version milestone.

LESSON MAP

12 items from concept to evidence

Algorithms

Lesson · Algorithms, sequence, conditions and more — the core lessons of algorithmic thinking.

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Arduino · Robotics & Coding

Lesson · Arduino from Blink to motor drivers and sensors: digital/analog I/O, serial monitor, PWM, servo, libraries and parking-sensor/line-follower/watering projects.

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Introduction to Data and AI

Lesson · From data and patterns to machine learning and AI ethics; an honest, privacy-respecting, age-appropriate introduction to AI with a simple classification project.

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Introduction to Electronics

Lesson · From electricity, voltage and current to LEDs, resistors, buttons and circuit schematics — a safe, low-voltage introduction to electronics.

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micro:bit · Robotics & Coding

Lesson · micro:bit with MakeCode blocks and MicroPython: LED matrix, buttons, sensors, radio and step-counter/scoreboard/bike-light projects.

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Programming with Scratch

Lesson · From the Scratch interface to games: motion, events, conditions, loops, variables and projects in block-based programming.

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Project Workshop

Project · From choosing a problem to prototyping, testing, documenting and presenting; an end-to-end guide to turning an idea into a real, finished project.

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Python Fundamentals

Lesson · From variables to functions, files to projects: the fundamentals of text-based programming with Python.

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Robotic Systems

Lesson · From a robot's parts to the sense–decide–act loop; obstacle-avoiding and line-following robot projects that combine chassis, motors, sensors and control.

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Sensors and Actuators

Lesson · From light, temperature, distance and motion sensors to servo, DC and stepper motors; reading, filtering and calibrating sensor data.

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Web Fundamentals

Lesson · From how the internet works to HTML, CSS and JavaScript, and building an accessible, responsive personal project page.

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What Are Robotics and Coding?

Lesson · Coding tells a system what to do with clear steps; robotics carries those instructions into the physical world with sensors, electronics and motion.

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FOUR-WEEK PLAN

Place lessons in a production cycle

No week closes with reading alone. Use one session for concept and example, a second for practice, and a short third session for testing and explanation. Do not accelerate when a prerequisite is missing.

Place lessons in a production cycle table
WeekFocusEvidence to produce
1Algorithms, micro:bit · Robotics & Coding, Robotic SystemsWorking code, circuit diagram, input–process–output tests, error log and project versions
2Arduino · Robotics & Coding, Programming with Scratch, Sensors and ActuatorsA small system that senses a real need, makes a decision, produces an output and has tested safety limits
3Introduction to Data and AI, Project Workshop, Web FundamentalsError log and second version
4Introduction to Electronics, Python Fundamentals, What Are Robotics and Coding?Quiz result, misconception and next application
COMMON TRAPS

They look fast but weaken learning

DEEPENING

Deepening evidence in Robotics & Coding

The pathway's distinctive question is: In what sequence do you develop, test and document a problem from algorithm to a safe physical prototype? A first response may be a definition, but completion requires working code, circuit diagram, input–process–output tests, error log and project versions. If input, method, limits and review date are unclear, the result is not traceable even when it looks strong.

Start with two different activities among Algorithms, Arduino · Robotics & Coding, Introduction to Electronics, micro:bit · Robotics & Coding. In one, explain the concept in your own words; in the other, perform an application, measurement or user test. The two activities should not close with the same type of evidence. This distinction shows that Robotics & Coding has been tested through different forms of production.

Later connect Programming with Scratch, Sensors and Actuators, Introduction to Data and AI, Web Fundamentals to the capstone: A small system that senses a real need, makes a decision, produces an output and has tested safety limits Keep failed tests as well as successful ones. For every error, record conditions, expected result, actual result, possible cause and the single change made.

Check these traps separately: Copying code without understanding it; Changing a circuit while powered; Using sensor data without calibration; Treating a result video as complete evidence. Reading a trap is insufficient; find an example from your own work and state which evidence made the problem visible.

Return rule: At every new module, after a failed project test, when hardware changes and at each version milestone. Do not delete the previous record; add a date, changed tool or source, new evidence and the next mini trial. Progress is therefore tracked through the quality of explanation, application and correction—not the number of pages completed.

MICRO QUIZ

Test the reasoning behind the module

1. In what sequence do you develop, test and document a problem from algorithm to a safe physical prototype?

The answer must produce evidence, not only a definition: Working code, circuit diagram, input–process–output tests, error log and project versions.

2. What should happen to the first failed test?

Keep it with conditions, expected result, actual result and the correction.

3. Does reading a source prove that practice occurred?

No. Sources define method and limits; practice evidence must be produced separately.

4. When should the module be reopened?

At every new module, after a failed project test, when hardware changes and at each version milestone.

5. What does the capstone connect?

A small system that senses a real need, makes a decision, produces an output and has tested safety limits

OFFICIAL / PRIMARY SOURCES

Verify technical detail in current sources

Python Tutorial

Primary or institutional source for method and technical limits.

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Arduino Learn

Primary or institutional source for method and technical limits.

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micro:bit lessons

Primary or institutional source for method and technical limits.

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Scratch Educators

Primary or institutional source for method and technical limits.

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