In today’s fast-changing world, technology is shaping how we live, work, and learn. One of the most exciting ways to prepare learners for this future is through robotics education.
By introducing robotics at school level, children learn not only how machines work, but also how to think critically, solve problems, and work together. So, how can robotics be introduced at different phases of schooling in South Africa, what activities can support learning, and how does it fit into the curriculum? Let’s explore.
Robotics in the Intermediate Phase (Grades 4–6)
Learners at this stage are ready for more structured robotics work that integrates Maths and Natural Sciences.
Building and Mechanics (Robot Construction)
Learners explore how gears, wheels, motors, and structures affect movement and stability.
Try this: Build a simple Code Base drivetrain (motors + wheels), then add components like an electromagnet to pick up objects.
Electronics and Sensors (Robot Components and Responses)
Robots become more intelligent when they can sense and respond to their environment.
Try this: Program a robot with an electromagnet to pick up coloured disks and deliver them to different locations. Add an Eye Sensor to detect colour and respond automatically.
Using block-based programming (like VEXcode GO or Scratch), learners bring their robots to life.
Try this: Start with a simple movement challenge (robot moves in a square), then progress to coding more complex shapes like an octagon, reinforcing geometry and sequencing.
Despite growing global emphasis on digital skills, the DBE has confirmed that Coding and Robotics will not become compulsory subjects in the near future. According to its updated Annual Performance Plan for 2025/26, implementation will depend on available resources and the readiness of schools.
The DBE highlights that learners must first master literacy and numeracy by Grade 4 before STEM-related subjects like robotics can be fully effective. Without these foundational skills, learners are at a disadvantage when engaging with more advanced concepts (DBE, 2025).
This doesn’t mean robotics isn’t valuable – rather, schools and communities with the capacity are encouraged to integrate it in a way that complements foundational learning, preparing children for future opportunities.
Robotics may sound technical, but in reality, it’s playful, creative, and inspiring. Whether learners are in the foundation phase or preparing for university, robotics offers them a chance to build, test, code, and imagine. Most importantly, it equips them with the skills to thrive in a future where technology and innovation go hand in hand.
At StudyChamp, we believe robotics education empowers learners to be problem-solvers, innovators, and collaborators – skills that matter just as much as academic marks.
For a first taste of Robotics, give VEXcode VR a try. It’s simple to use, easy to navigate, and surprisingly fun to see that your commands are driving a little robot car! You can also try RoboBlocky , Hour of Code , RoboThink (a South African website).
Edutopia. (2025). Hands-on robotics activities for elementary students. Retrieved from https://www.edutopia.org/article/hands-on-robotics-activities-elementary-students
South Africa Department of Basic Education (DBE). (2025). Annual Performance Plan 2025/26 – Coding and Robotics implementation update.
Robotics in the Foundation Phase (Grades R–3)
At this early stage, learning should be playful and hands-on. Robotics helps children develop sequencing, logical thinking, and creativity.- Activities
: Simple coding games where children “become the robot”, programming a robot to move forward, backward, or turn. Kits like VEX GO allow learners to build a basic robot and experiment with movement.
- Curriculum link : Early exposure builds curiosity and problem-solving skills, but the Department of Basic Education (DBE) emphasises that literacy and numeracy remain the top priorities.
Robotics in the Intermediate Phase (Grades 4–6)
Learners at this stage are ready for more structured robotics work that integrates Maths and Natural Sciences.
- Activities
: Building a simple drivetrain robot with wheels and motors, then programming it to move in shapes (square, triangle, octagon), reinforcing geometry.
Adding sensors like an Eye Sensor or electromagnet so the robot can detect colours, pick up objects, or complete delivery challenges.
- Curriculum link : Robotics links with Technology and Natural Sciences, supporting experimentation and logical reasoning. Schools that have the resources often include robotics as an extension activity.
Robotics in High School (Grades 7–12)
In high school, robotics becomes more advanced and closely tied to Technology, IT, CAT, and EGD subjects.- Activities
: Designing robots to complete real-world tasks such as sorting recycling, using feedback loops, or competing in robotics competitions. Virtual robotics activities like VEXcode VR, where learners clean up a digital coral reef, combining coding with environmental awareness.
- Curriculum link : Schools with resources are implementing robotics to give learners exposure to STEM pathways.
The 3 Core Areas of Robotics Learning
Building and Mechanics (Robot Construction)
Learners explore how gears, wheels, motors, and structures affect movement and stability.Try this: Build a simple Code Base drivetrain (motors + wheels), then add components like an electromagnet to pick up objects.
Electronics and Sensors (Robot Components and Responses)
Robots become more intelligent when they can sense and respond to their environment.
Try this: Program a robot with an electromagnet to pick up coloured disks and deliver them to different locations. Add an Eye Sensor to detect colour and respond automatically.
Programming and Control (Robot Coding)
Using block-based programming (like VEXcode GO or Scratch), learners bring their robots to life.Try this: Start with a simple movement challenge (robot moves in a square), then progress to coding more complex shapes like an octagon, reinforcing geometry and sequencing.
Benefits of Robotics for Learners
- Robotics isn’t only about machines – it develops skills for life:
- Critical thinking and creativity – solving real-world problems.
- Teamwork and collaboration – sharing ideas and working in groups.
- Confidence and resilience – learning through trial and error.
- Future readiness – gaining STEM skills that link directly to 21st-century careers.
It also builds emotional and social intelligence: patience, communication, and adaptability.
Practical Ways Robotics is Used in Schools
- Maths: Robots draw shapes to explore angles and geometry.
- Natural Sciences: Robots with sensors collect data (e.g., temperature, light).
- Social Sciences: Robots model systems like farming or transport.
- Extracurricular: Robotics clubs enter competitions like the World Robot Olympiad.
The South African Context
Despite growing global emphasis on digital skills, the DBE has confirmed that Coding and Robotics will not become compulsory subjects in the near future. According to its updated Annual Performance Plan for 2025/26, implementation will depend on available resources and the readiness of schools.
The DBE highlights that learners must first master literacy and numeracy by Grade 4 before STEM-related subjects like robotics can be fully effective. Without these foundational skills, learners are at a disadvantage when engaging with more advanced concepts (DBE, 2025).
This doesn’t mean robotics isn’t valuable – rather, schools and communities with the capacity are encouraged to integrate it in a way that complements foundational learning, preparing children for future opportunities.
Final thoughts
At StudyChamp, we believe robotics education empowers learners to be problem-solvers, innovators, and collaborators – skills that matter just as much as academic marks.
For a first taste of Robotics, give VEXcode VR a try. It’s simple to use, easy to navigate, and surprisingly fun to see that your commands are driving a little robot car! You can also try RoboBlocky , Hour of Code , RoboThink (a South African website).
References:
Edutopia. (2025). Hands-on robotics activities for elementary students. Retrieved from https://www.edutopia.org/article/hands-on-robotics-activities-elementary-students
South Africa Department of Basic Education (DBE). (2025). Annual Performance Plan 2025/26 – Coding and Robotics implementation update.
Recent Posts

By Estelle Barnard
•
October 22, 2025
Mathematics rewards practice with purpose: spaced revision, plenty of self-testing, making notes, checking with feedback, and calm, consistent routines. Below you’ll find exactly how to do this at different stages of school. The Big Three for All Learners Space it out Short, regular sessions beat last-minute marathons. Plan 20–40 minute slots across the week and revisit topics before you forget them. This is known as the spacing effect (Cepeda et al., 2008). Retrieve, don’t just reread Close the book and try to solve or recall from memory. Use past questions, quick quizzes, and “write-from-memory” summaries. Retrieval practice strengthens long-term learning, especially when you check your answers (Roediger & Butler, 2011). Think about your thinking Teach learners to plan, monitor, and evaluate how they study. Simple questions like, “What will I practise today? How will I know I’ve improved?” turn revision from passive to purposeful (EEF, 2018). Primary School (Grades 4–7) Goals Build number sense and fluency (times tables, fractions, decimals). Understand why methods work, not just how to perform them. Study Rhythm Mon/Wed/Fri: 20 min mixed practice (across old and new topics). Tue/Thu: 20 min facts fluency (typically something like time tables or fractions) Weekend: 25–30 min “Teach-Back” session: learner explains one concept aloud (e.g. “How do we find a common denominator?”). High School (Grades 8–12) Goals Strengthen algebraic fluency, geometry, trigonometry, statistics, and calculus. Build exam stamina and the ability to select appropriate methods. Exam Preparation Plan Weeks –4 to –3: Cover all topics and create a spaced schedule. Weeks –3 to –2: Attempt past-paper sections; very important to check with detailed memos. Prepare an error log of frequent mistakes. Weeks –2 to –1: Interleave topics and focus more on challenging topics (e.g., trig, functions, geometry). Final Week: Short, focused recall sessions from your “error log.” The Value of Writing Your Own Notes and Step-by-Step Summaries One of the most effective yet overlooked study habits is summarising key procedures in your own words . Mathematics is full of repeatable processes: simplifying fractions, expanding algebraic expressions, finding derivatives using first principles, or completing the square in a quadratic equation. Writing out the steps helps learners form mental blueprints they can rely on in tests. Why this works Research shows that encoding information through writing and explaining strengthens understanding and recall (Dunlosky et al., 2013; MIT Teaching + Learning Lab, 2020). When learners create their own step-by-step summaries: They engage in sense-making, not just copying. They uncover misconceptions early. They connect formulas with reasoning (“why does this step come next?”). They create a quick reference guide for revision. Examples: Simplifying fractions: Find common factors → Divide numerator and denominator → Check if it can simplify further. Completing the square: Divide so that x squared stands on its own →Take the constant term to the right-hand side →Add half of the coefficient of x squared to both sides → Factorise the left-hand side to form a perfect square → Simplify and solve for x. Visualisation and Trigonometry Trigonometry can be tricky until you visualise how angles behave on the Cartesian plane . Remember: in trigonometry, angles are measured from the positive x-axis , moving anticlockwise for positive angles and clockwise for negative ones. (See the labelled diagram above, showing where each trigonometric ratio is positive or negative, including the reduction formulae.) Using StudyChamp Resources Effectively StudyChamp’s detailed memos and step-by-step worked examples make maths study easier: Compare your solution to the memo. Highlight key reasoning steps. Add the process to your “Maths Procedures Notebook”. By exam time, that notebook becomes your own personalised study guide: practical, and written in your own words. References Cepeda, N. J., et al. (2008). Spacing effects in learning: A temporal ridgeline of optimal retention. Psychological Science, 19(11). Dunlosky, J., et al. (2013). Improving Students’ Learning With Effective Learning Techniques. Psychological Science in the Public Interest. Education Endowment Foundation (EEF). Metacognition and Self-Regulated Learning Guidance Report. Roediger, H. L., & Butler, A. C. (2011). The critical role of retrieval practice in long-term retention. Trends in Cognitive Sciences, 15(1). MIT Teaching + Learning Lab. (2020). Note-Taking and Sense-Making Strategies. Massachusetts Institute of Technology.
