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Case Study

Electronics @ School: Delivering 500,000+ Components to Classrooms Worldwide

How Puneet Melwani & his team designed plug-and-play STEM kits that reached 1,60,000+ students across 3,200+ schools worldwide over 2 years.

500K+
Components Shipped
1,60,000+
Students Reached
3,200+
Schools Equipped
2 yrs
Rollout Period
About the product

What Is Electronics @ School?

Electronics @ School is a plug-and-play STEM education hardware line designed by Puneet Melwani and his team to put real, hands-on electronics experience into classrooms without requiring specialized teacher training, fragile components, or expensive lab infrastructure. The product line was conceived around a simple constraint: it had to survive daily use by children of varying ages, ship at a price point institutions could actually afford, and work the first time, every time, without a technician on-site.

What started as a single kit concept scaled into a full curriculum-aligned product family — and over two years of production and rollout, the line delivered over 500,000 components to more than 1,60,000 students across 3,200+ schools worldwide. That trajectory required solving problems well beyond product design: manufacturing scale-up, institutional sales cycles, multi-country compliance, and logistics across a global footprint.

The challenge

Existing STEM Kits Weren't Built for Real Classrooms

Schools wanted hands-on electronics education, but the available options didn't survive contact with actual classroom conditions.

Lack of Accessible Tools

Many schools, especially outside major metro areas, had no practical way to give students hands-on electronics experience at all.

Overly Complex Kits

Existing kits assumed a level of prior knowledge or teacher expertise that most classrooms simply didn't have.

Fragile Components

Breadboard-and-wire kits failed quickly under repeated use by students, creating ongoing replacement costs and classroom downtime.

Expensive at Scale

Per-unit pricing that worked for a hobbyist became unworkable once multiplied across a full classroom or school district.

The solution

Designed for Durability, Simplicity, and Curriculum Fit

Every design decision traded hobbyist flexibility for classroom reliability.

Plug-and-Play Components

No breadboards, no loose wires, no soldering — components simply plug together, eliminating the most common points of classroom failure.

Tool-FreeDurable

Progressive Difficulty Levels

Kits scale from basic circuits to programmable logic, letting the same product family serve early elementary through high school.

K-12Scalable Difficulty

Curriculum-Aligned Guides

Lesson plans mapped to common science and technology standards mean teachers need minimal prep time to deploy a unit.

Lesson PlansStandards-Aligned

Durable Injection-Molded Housings

Components are encased in impact-resistant housings engineered to survive years of daily handling by students.

Injection-MoldedImpact-Resistant

Multi-Language Documentation

Guides and packaging localized for the markets the product shipped into, removing a major adoption barrier for international schools.

LocalizationGlobal-Ready

Classroom-Ready Out of the Box

Kits arrive pre-tested and ready to use, with no assembly, calibration, or IT setup required before the first lesson.

Plug-and-PlayZero Setup
Manufacturing & supply chain

Getting From Prototype to 500,000 Components

Designing a good kit was only the first problem. Shipping over 500,000 components across 3,200+ schools over two years required building a manufacturing and supply chain process that didn't exist for the first unit.

Design for Manufacturing (DFM)

Early prototypes were re-engineered specifically for injection molding and high-volume assembly — reducing part count, simplifying tooling geometry, and eliminating manual assembly steps that wouldn't scale past a few hundred units.

Tooling & Pilot Production

Production tooling was built and validated through a pilot run, surfacing yield and quality issues at small scale before they could compound across high-volume production runs.

Mass Manufacturing

Once the pilot run validated quality and cycle times, production scaled to full volume with in-line quality control checkpoints to catch defects before kits reached schools.

Cost Optimization for Institutional Pricing

Bill-of-materials engineering, supplier negotiation, and packaging redesign brought unit costs down to a price point that worked for institutional procurement budgets — without compromising the durability the product depended on.

Go-to-market

Selling Into Institutions, Not Individuals

Reaching schools required a fundamentally different go-to-market motion than a typical consumer hardware launch.

1

B2B Institutional Sales

Direct outreach to school administrators and procurement officers, built around budget cycles and curriculum committee approval processes.

2

Education Ministry Pilots

Small-scale pilot programs with regional education authorities created reference deployments that unlocked larger institutional orders.

3

Distribution Partnerships

Partnerships with regional education distributors extended reach into markets where direct sales infrastructure didn't yet exist.

4

Compliance & Certification

Product safety certifications and import compliance were secured market-by-market ahead of shipment, avoiding customs delays at scale.

The results

From Zero to 3,200+ Schools Over Two Years

The combination of durable product design, manufacturing discipline, and an institutional go-to-market motion compounded into massive global reach.

500K+

Components shipped over a 2-year rollout period

1,60,000+

Students reached with hands-on electronics education

3,200+

Schools equipped worldwide through direct sales and distribution partners

2 yrs

Full rollout from initial production to global scale

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