Articles & guides

Explore moving from playing games to coding through Minecraft Agent missions and Roblox game creation, with readiness checks and family learning goals.

Plan starting coding and AI with three age-stage examples: playful sequences, block projects and text programming, followed by robotics and personal projects.

Consider robotics when maths is difficult: four readiness checks, age-stage activities, practical calculations and separate university entry requirements.

Build a robotics engineering portfolio around five essentials: personal projects, thinking evidence, hardware-linked code, activities and a clear reason to study.

Prepare a robotics camp proposal with six planning questions, a three-part rationale, objectives, activity sequence, budget responsibilities and measurable evidence.

Choose Scratch or Python for kids by readiness: block coding, loops, conditions and four signs a learner may be ready to try text commands and projects.

Plan primary computing lessons through mechanisms, block coding and robots. Explore four learning stages, equipment sharing, teacher preparation and progression.

Explore helping a child become a programmer through five course checks and four learning stages: blocks, Python, physical computing and personal projects.

Check computer specs for coding lessons: school RAM and CPU guidance, webcam, microphone, internet and tablet limits. Test your existing device before buying.

Plan parent support for online learning: five course checks, age-related support, technical help and signs a child can attend coding lessons more independently.

Use four checks for choosing online coding for kids: live feedback, group size, progression and family reports. Compare age-stage pathways and equipment readiness.

Compare four online robotics learning options and local alternatives: live teaching, free resources, school clubs and short camps, with readiness and schedule checks.

Compare robotics for small schools: a permanent lab, teacher training, term-based teaching and occasional camps. Plan around budget, staffing and sustained learning.

Use five checks for choosing robotics teacher training: teaching experience, reusable lesson plans, support, year-level fit and transparent scope and costs.

Plan school STEM robotics camps around learning goals, one-day or three-day formats, pupil groups, venue and a scoped budget. Confirm current staffing and equipment.

Follow four steps for starting a school robotics classroom: timetable, suitable equipment, teacher preparation and space based on simultaneous pupil groups.

Explore coding in the AI era: five course checks, four learning stages and ways to help children explain, test and improve code instead of accepting AI output.

Explore a school robotics curriculum beyond competition teams: physics, mathematics, coding and design thinking, with age progression and a sample Year 5 lesson.