“The strangest, most beautiful idea in computing — taught from scratch.”
Levels
1
Senior
Outcomes
4
Skills children walk away with
Pathways
4
Future careers unlocked
The idea
Quantum computing is the frontier at which physics, mathematics and computation converge — and it is no longer distant. NASCA's quantum stream builds genuine understanding from first principles: superposition, entanglement, interference and quantum gate operations are developed through geometric and visual tools before any code is written. Students design and execute circuits using IBM Quantum Composer and Qiskit, implement Grover's algorithm, and examine the field's current capabilities and limitations with intellectual honesty. Students who complete this stream emerge with a working literacy that positions them ahead of virtually all peers entering higher education.
Inside the stream — a story
Quantum is the most counter-intuitive idea in computing — and the most likely to reshape science, security and AI in the coming decades. Children who meet it early lose their fear of it forever.
We open with the double-slit experiment — not as math, but as theatre. Children watch how a single particle, somehow, goes through both slits at once. Then we let them sit with the discomfort.
‘So… the universe doesn't have to make sense?’ they ask. We say: ‘Not the way you expected. Welcome to the most interesting class you'll take this year.’
‘So the universe doesn't have to make sense?’ Welcome.
We teach the Bloch sphere as a globe — north pole, south pole, everywhere in between. Children rotate qubits with their hands before they touch a keyboard. Gates become rotations. Math becomes geometry.
By week four, they can describe — with confidence — what a qubit is, and what a measurement does to it.
We act it out with cards across the room. Children begin to feel — not just learn — that entanglement is not communication, but correlation deeper than any classical world allows.
Some go home unable to stop talking about it.
Now Python. Now Qiskit. Children build small circuits, run them on simulators, plot histograms. The circuits are simple. The understanding is deep.
They begin to read research papers — the abstracts, at least — and recognise the diagrams. That is a moment most adults never reach.
On the last day, every child submits a small circuit to real IBM quantum hardware. The results come back noisy. They learn to read the noise — and to respect it.
The certificate they receive — ‘circuit executed on ibmq_kyiv’ — is, for many of them, the most meaningful piece of paper they have ever held.
They run a circuit on a real quantum computer. At fifteen.
A scene from a real classroom
A senior-school student, after running his first real quantum circuit, says quietly: ‘So I just touched a piece of the universe most people don't believe is real.’ He is not wrong.
Children who meet quantum early grow up unafraid of the strangest mathematics on Earth. That fearlessness is rare, and it pays dividends for life.
— End of story · Read on for the curriculum
The journey
Meet the experiments that broke classical physics.
Picture state on the Bloch sphere — gates as rotations.
Design and simulate small quantum algorithms.
Run a circuit on real quantum hardware in the cloud.
Signature project
Submit your first job to an actual IBM quantum computer — and read the noisy, beautiful result.
Why it matters
Quantum is the most counter-intuitive idea in computing — and the most likely to reshape science, security and AI in the coming decades. Children who meet it early lose their fear of it forever.
A typical session
The curriculum
Six modules across an academic year. Every module is hands-on, project-led and ends with something children have built and can show.
Showcase moments
Interactive stalls explaining quantum effects with simulators and games.
Wall of student-designed quantum circuits, annotated for peers.
Live submissions to real IBM quantum hardware — and a discussion of the noisy results.
For parents
Quantum is not just for prodigies. With the right scaffolding, any motivated senior-school student can grasp the core ideas — and many love it more than ‘normal’ computing.
For teachers & schools
Curriculum builds the math gently, alongside visual tools. We support teachers with a parallel professional-development cohort.
What children build
Tools & tech
Levels offered
Outcomes
Linear algebra intuition
Quantum gate fluency
Circuit design
Algorithm reading
Questions parents ask
The honest answers to the questions families ask us most.
Only basic linear algebra at the deeper end. Most ideas are taught visually first.
Yes — through IBM’s free cloud platform, in a classroom-safe way.
Quantum is early — but understanding it now is a real career advantage by university.
Comfort with Python and basic algebra. Curiosity matters more than prior physics.
