The youngest grades learn the real mechanism, using cards, paper, and movement.
This page explains what that means, why the board already calls it unplugged learning, and where VR and hardware earn their place.
What unplugged actually means
Most people hear “unplugged” and assume it means a cheaper version of the same lesson, taught without the computers. In these classrooms, unplugged means teaching the actual mechanism using cards, paper, movement, and games. Three activities show what that looks like in practice.
Clustering
Students physically group colour cards into piles, then explain the rule they used to sort them — the same operation a machine-learning model performs on data it has never seen labelled.
Training and iteration
One student plays the algorithm. Classmates hand them objects to sort by a rule, and when the "algorithm" misclassifies something, the rule gets revised and tried again.
Edge detection
Students hold printed colour patches up to a webcam and watch, on a projector, which parts of a simple network light up in response — made visible instead of abstract.
This is the mechanism itself, taught in a form a ten-year-old can hold in their hands.
It is in the board’s own language
CBSE's curriculum framework circular for Classes III–VIII mandates computational thinking, AI, ethics, and unplugged learning. Unplugged is the board's own term, not a phrase invented to make a low-hardware program sound intentional.
Our curriculum is mapped to that framework. This is a statement about what the framework requires, carried directly into how we teach.
Why the industry sells kits
Most STEM programs sold in India are built around hardware: racing cars, smoke-detector kits, generic robotics arms. A kit is easy to price, easy to demo in a single sales meeting, and easy to justify to a budget committee as a line-item purchase. Schools that bought one were responding to a real sales pitch built around a real incentive.
We build the curriculum first and the classroom activity second, a slower and less demoable way to build a program. It means a Grade 2 classroom can teach real clustering with a deck of cards, well before any budget conversation about a Grade 9 computer lab comes up.
Where VR and hardware earn their place
VR appears in this curriculum at Grades 4 to 6, where it does something cards cannot: let a student see a decision boundary shift, or a simulated environment respond to a rule change, in three dimensions instead of on a whiteboard. Hands-on hardware enters meaningfully in the senior grades, where computer-vision projects and capstones need a camera and a working environment to run against.
A founder demonstrating a VR headset in your office is showing you one part of a curriculum that also includes a Grade 2 classroom sorting cards on the floor. Both are the same design, applied to the grade where each does the most.
The younger grades teach the same mechanism at the age where it is clearest without hardware. The older grades add hardware once a real camera or working environment is what makes the next mechanism visible.
Why the grade ladder is designed this way
Put together, the ladder is one design decision made four times: give each age the version of the mechanism it can hold, in the form it can hold it in. The grade-band ladder on the Lab page shows exactly how that plays out, grade by grade.
What this isn’t
- The curriculum is the product a school pays for, delivered as trained teachers and planned sessions.
- Every session runs as a booked service, term by term.
- The school's own teacher leads every session we run.