Tinkering Labs

Tinkering Lab

Hands-on innovation stations, aligned to PM SHRI and NEP norms

Hands-on innovation stations, aligned to PM SHRI and NEP norms

3D Printer

Robotics Kit

IoT Kit

AI Kit

The Tinkering Lab equips students in grades 6 - 12 with hands-on design, fabrication, electronics and coding skills through guided workbench stations, prototyping equipment and a structured robotics-to-AI learning progression - all mapped to PM SHRI and NEP 2020 experiential-learning requirements.

Equipment overview

Three modules covering the full tinkering skillset

Fundamentals workbench

Hand tools

Screwdriver set (5), pliers (5), wire cutter (5), soldering iron (5), glue gun (5), scissors (10)

Electronics kit

Multimeter (5), breadboards (10), resistor/capacitor assortment, LEDs & switches (25 each), DC motors (10), jumper wires

Mechanical kit

Gears, pulleys, chassis kits, fasteners & nuts assortment, wheels (10 sets)

Craft & prototyping tools

Cardboard, foam board, acrylic sheets, cutting mats, hot glue sticks

Fabrication & prototyping stations

3D printing station

FDM printer with enclosure, PLA filament spools, print-bed levelling and finishing tools.

Laser cutting station

Enclosed cutting bed, design software licence, and sample acrylic/ply sheets for practice cuts.

Electronics prototyping bench

Soldering station, basic oscilloscope, regulated power supply, and labelled component storage.

Robotics assembly bench

Chassis vices, driver boards, battery charging dock, and cable management for build sessions.

Coding, circuits & robotics - A learning progression

Basic electronic kit

Multimeter, resistors, LEDs, capacitors, switches, motors, breadboard.

Electronics for fun & creativity

Breadboard projects with sensors, timers, displays and control logic.

Sensor-based interactive projects

Arduino Nano with ultrasonic, PIR, moisture and RFID sensors.

IoT-based projects

Network-capable microcontrollers, sensors, simple cloud data visualization.

Pre-planned navigated vehicle

Path-following robot built with sensors and motor drivers.

Introduction to drones

Flight controller, motors, propellers, ESCs, GPS, telemetry.

AI & machine learning kit

Vision and speech recognition projects on edge-AI boards.

Training roadmap

How the curriculum progresses over the school year

1

Months 1 - 3

Maker foundations

3D printing basics and design principles

3D design software (Tinkercad, Fusion 360)

Basic mechanical concepts

Building your first 3D printed prototype

Troubleshooting and iteration

3D printing basics and design principles

3D design software (Tinkercad, Fusion 360)

Basic mechanical concepts

Building your first 3D printed prototype

Troubleshooting and iteration

2

Months 3 - 6

Electronics integration

Arduino microcontroller basics

Sensor fundamentals

Circuit design and breadboarding

Custom code development

Building IoT-enabled projects

Arduino microcontroller basics

Sensor fundamentals

Circuit design and breadboarding

Custom code development

Building IoT-enabled projects

3

Months 6+

Advanced projects

Complex system integration

Wireless communication (WiFi, Bluetooth)

Advanced programming techniques

Product design and testing

Innovation and competition participation

Complex system integration

Wireless communication (WiFi, Bluetooth)

Advanced programming techniques

Product design and testing

Innovation and competition participation

Equipment packages

Click any package for the full item list

P 1

Basic hand tools

Essential hand tools for mechanical work and prototyping.

8 items

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P 2

Basic hand tools

Essential hand tools for mechanical work and prototyping.

8 items

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P 3

Basic hand tools

Essential hand tools for mechanical work and prototyping.

8 items

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P 4

Basic hand tools

Essential hand tools for mechanical work and prototyping.

8 items

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Key learnings

Design thinking

Empathize, ideate, prototype

Fabrication skills

3D printing, laser cutting

Electronics & IoT

Breadboard to network-connected

Robotics & automation

Sensors, motors, control logic

Coding & AI

Block to text-based programming

Innovation exposure

Patents, startups, real-world problems

Why schools should build it

Fulfils NEP 2020’s experiential and innovation-based learning mandate directly

Builds genuine design and fabrication skills, not just theory

Covers the widest STEM skillset of any lab on the site

Prepares students for the ATL Marathon, innovation challenges, and STEM careers

Frequently Asked Questions

What is a Tinkering Lab?

A dedicated, equipped space where students design, prototype and build using hand tools, electronics, 3D printing and coding - turning ideas into working models.

Who funds and monitors the lab?

Setup is funded through the school’s grant allocation and procured via GeM; usage and outcomes are tracked by the nominated in-charge teacher each term.

What is the minimum space and infrastructure required?

A dedicated room of 1200 - 1500 sq ft with stable power points, internet connectivity and workbench seating for at least one class section.

Is it aligned with PM SHRI and NEP norms?

Yes - the equipment list, curriculum progression and space guidelines are mapped directly to PM SHRI infrastructure norms and NEP 2020’s experiential and innovation-based learning mandate.

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