Thinking First
Technology Always
Tools change every few years. The way a child breaks down a hard problem does not. One curriculum, ages 4 to 18, taught the same way at every campus — and every lesson starts from a problem to solve rather than steps to copy.
Five Habits of Mind,
One Project-Based Core
STEAM is not five subjects taught in rotation. It is five ways of thinking, built through three programme tracks that all run on the same engine — Problem-Based Learning. Pick any part of the system to see how it connects.
Think like a Scientist
Ask a question, commit to a prediction, then test it. The result decides what happens next — not the loudest guess in the room.
Built in A.I. Coding · Robotics
Plan like a Designer
Choose the right tool for the job and plan the build before touching it, so the technology serves the idea instead of driving it.
Built in A.I. Coding · 3D Design
Solve like an Engineer
Break a hard problem into parts, build the smallest version that works, then improve it under real constraints — time, materials, physics.
Built in 3D Design · Robotics
Imagine like an Artist
Start from what could exist rather than what already does. Form, story and the person who will use it are part of the engineering, not decoration on top of it.
Built in 3D Design
Reason like a Mathematician
Measure, calculate and reason it through, so a student can show why a solution works — not just that it happened to work once.
Built in A.I. Coding · Robotics
A.I. Coding
Computational thinking, written down as code: break the problem into parts, spot the pattern, strip out what doesn't matter, then write the steps that solve it.
Builds Technology · Science · Mathematics
3D Design
Ideas become objects a child can hold: sketch, model, print, test the fit, revise. The track where art and engineering stop being separate subjects.
Builds Arts · Technology · Engineering
Robotics
Engineering habits built with hands on hardware: design, build, test, fail, improve. The loop runs in every single lesson, not once a term.
Builds Engineering · Science · Mathematics
That is the model; here is the same engine laid out age by age.
02 · The PathwayOne Spiral Journey, Ages 4 to 18
Pick an age band to see what your child works on across all five STEAM strands — every stage stands on the one before it.
Stage 1 of 5Foundations · Getting familiar
Stage 1 of 5Foundations · Getting familiar
Stage 1 of 5Foundations · Getting familiar
Stage 2 of 5Applying · Making something with it
Stage 2 of 5Applying · Making something with it
Stage 3 of 5Projects · Analysing and solving
Stage 4 of 5Integration · Using it all together
Stage 4 of 5Integration · Using it all together
Stage 5 of 5Mastery · Leading and teaching others
Strands shown in grey have not begun yet at that age — before roughly six or seven, the whole lesson is hands-on building and early programming.
The pathway above is one spine — these are the three doors into it.
03 · The Three TracksThree Ways In
One Curriculum
They look different from the outside — hardware, code, form. The spine underneath is the same, so a child can move between them without starting over.
A.I. Coding
Computational Thinking
Computational thinking, written down as code: break the problem apart, find the pattern, then build the program that solves it.
Explore A.I. Coding →From age 73D Design
Innovation & Creativity
Ideas become objects a child can hold: sketch it, model it, print it, test the fit, and revise until it works.
Explore 3D Design →From age 4Robotics
Engineering Design Process
Mechanisms, sensors and the build-test-improve loop — engineering habits learned with hands on real hardware.
Explore Robotics →Compare the Three Tracks
| Dimension | A.I. Coding | 3D Design | Robotics |
|---|---|---|---|
| Ages | 7–16 | 7–16 | 4–16 |
| First Lessons | Block coding and playful logic | Sketching and first 3D models | Big-brick machines and mechanisms |
| The Work | Games, apps and applied A.I. projects | Objects designed, modelled and printed | Machines that move, sense and decide |
| Leads To | Coding challenges and olympiad-track competitions | A portfolio of finished physical work | National and international tournaments |
The tracks run to 16. From there, students move into university-application technology training — portfolio and competition work that continues into hackathons and project-based learning at university.
Three doors in, one spine — what follows is the planning science that keeps every track honest.
04 · The Science · ⅠWe Plan Against Three Questions:
How High, How, and How Deep
How high a single lesson climbs, how that lesson is run, and how deep an idea goes over the years. The first is Bloom’s revised taxonomy — six levels of thinking, each harder than the last. A lesson that stops at recall has done a sixth of the job.
Height in one lesson · BloomSelect a level — arrow keys climb the pyramid.
Create
Produce new or original work
design · assemble · construct · conjecture · develop · formulate · author · investigate
Design and build an original machine for a problem no worksheet handed them.
Evaluate
Justify a stand or a decision
appraise · argue · defend · judge · select · support · value · critique · weigh
Defend why their gripper design beats the alternative — using their own test data, not opinion.
Analyse
Draw connections among ideas
differentiate · organise · relate · compare · contrast · examine · question · test
Compare two failed runs and work out which single change actually made the difference.
Apply
Use information in new situations
execute · implement · solve · use · demonstrate · interpret · operate · sketch
Reuse yesterday’s loop to get through a maze they have never seen before.
Understand
Explain ideas or concepts
classify · describe · discuss · explain · identify · locate · recognise · report
Explain in their own words why the robot veers when one wheel turns slower.
Remember
Recall facts and basic concepts
define · duplicate · list · memorise · repeat · state
Name each sensor on the build and say what it measures.
Bloom sets how high a lesson aims — Problem-Based Learning is how it gets there.
04 · The Science · ⅡFrom Both Sides of the Classroom
Students learn by solving an open, real problem rather than copying steps. Seven elements make a project worth doing — and each one only exists because a coach does something specific to create it. Select either half to see the pair.
Select an element — arrow keys move around the wheel.
A project is only ever as good as the question behind it. The coach designs and plans that problem before the first lesson runs — open enough to need real thinking, tight enough to be finishable.
Inquiry that runs for weeks stalls without support. Scaffolding — giving a child just enough help to get past the wall, then taking it away again — is what keeps them digging in week three instead of quietly giving up.
Real-world work still has to teach something. Before the project is written, the coach maps it back to the learning objectives for that level — so nothing academic is traded away for novelty.
Children only make genuine choices in a room where choosing wrong is safe. The culture comes first; the voice follows.
Reflection turns into learning at the moment someone assesses it and hands the feedback back — otherwise it is just a nice thought at the end of class.
Critique only improves the work if an adult coaches the child through the revision. Feedback without coaching is just criticism.
Presenting work to a real audience only happens if the schedule, materials and rehearsal time were managed behind the scenes.
One lesson climbs; the curriculum returns — the same idea comes back deeper every year.
04 · The Science · ⅢThe Same Idea, Three Times — Deeper Each Time
Our curriculum is built on Jerome Bruner’s spiral: key concepts are planned to come back at every stage, each time with more complexity and more application. That is why a four-year-old and a fourteen-year-old can be working on the same underlying idea in the same building, and both be stretched.
Select a pass to see how far out the idea has travelled.
Example: repetition — done by hand at four, replaced by a loop at eight, designed into a system that decides for itself at thirteen. Every strand in the curriculum is planned to return this way.
Bloom’s revised taxonomy (Anderson & Krathwohl, 2001), verb sets after the Vanderbilt University Center for Teaching; spiral curriculum after Jerome S. Bruner; the seven project elements and seven teaching practices after the Gold Standard PBL model (PBLWorks).
All of the above is method. This is what the method leaves in a child’s hands.
05 · Where It LeadsA Curriculum Is Only Worth
What a Child Can Show for It
Method matters, but it is not what a selection panel asks to see, and it is not what a child carries out of here. What they carry is a body of work — built over years, judged by people outside this building, and theirs to defend.
Three stages, one growing body of work — each stage keeps everything under it.
- Ages 4–18
The Thinking
Five habits of mind, built through one project-based curriculum that returns to the same ideas at greater depth every stage.
+ Habits of mind+ Finished projectsYou are here - When a student is ready
The Record
Competition is where the curriculum meets a judge who has never met your child, does not know our name, and scores the work anyway.
+ Results judged outside+ Work under deadlineSee the record - Secondary school selection
The Portfolio
Documented projects, progression across several years, and the interview that follows — the body of work behind a Direct School Admission application.
+ Multi-year progression+ A practised interviewThe DSA journey
Common Questions
What is the Futurum Academy curriculum built on?
One curriculum, written in-house, running from age 4 to 18. Three ideas hold it together: Problem-Based Learning, so every lesson starts from a real problem rather than a worksheet; Bloom’s taxonomy, so every lesson is planned to finish above simple recall; and Bruner’s spiral, so each key idea returns at every stage, deeper each time. All three are used to build the same five STEAM habits of mind.
What does Problem-Based Learning mean in practice?
Students learn by solving real challenges rather than copying steps: every module is built around a problem to define, design for, build, test and improve.
Which programme should my child start with?
From age 4, robotics foundations; from age 7, A.I. Coding or 3D Design depending on your child’s interests. A free trial class is the easiest way to find the right fit.
Do the different programmes connect?
Yes — coding, robotics and 3D design share the same curriculum spine, so skills stack across tracks and students can move between them as interests grow.
How do I see the curriculum in action?
Book a free trial class at any campus through the free trial page, or WhatsApp us at +65 8039 8777.
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