Author: Smile Foundation

The consensus among educators and researchers is that STEM exposure should start as early as possible — ideally in the preschool and early primary years. Young children’s brains are highly plastic and primed to learn basic math and science concepts. Neuroscience shows that sensitive periods in early childhood make it a “window of opportunity” for learning foundational skills. In fact, infants and toddlers already display core knowledge about objects, numbers and geometry.

All experiences from birth – including simple counting games, building blocks or watching butterflies – become part of a child’s understanding of the world. This means that informal STEM activities (like exploring shapes, sorting objects or basic cause-and-effect experiments) are developmentally appropriate even for pre-schoolers. All of the experiences that children have — from birth on — inform them and the best educators can give them is the opportunity for exploration in every realm including basic science and math.

Research confirms that early math and science experiences pay off later. For example, studies find a robust association between young children’s early mathematical proficiency and later academic achievement. In other words, a child who learns to count, measure and reason spatially in preschool is more likely to excel in school math and reading in the long run. Spatial reasoning, such as understanding shapes and how things fit together, is a key part of STEM learning and is highly trainable from a young age.

Educators have long recognised that millions of young children are already in day cares and pre-schools where early mathematics and science learning can take place and that focused attention on these early foundations will yield “significant progress” over time.

Developmental Readiness: What Young Children Can Learn

Children do not need formal lectures to begin STEM learning. Even toddlers are natural explorers. Pre-schoolers readily engage in STEM through play: building block towers (engineering fundamentals), sorting and counting beads (math) or watching a caterpillar transform (life science).

Curriculum experts note that much early childhood education has always included STEM in disguise – planting seeds in a class garden (biology), cooking (chemistry/math, or even board games (patterns and logic). The key is giving children concrete, hands-on experiences and language to describe them. For instance, counting frogs at a pond or observing tadpoles helps pre-schoolers grasp life cycles and number sequences.

Psychologists report that children as young as 3–5 can learn basic STEM concepts when presented appropriately. They have innate core knowledge of objects and numbers. These intuitive abilities can be built on: a 4-year-old can sort shapes and ask “why does this tower fall?”; a 5-year-old can follow simple step-by-step instructions (an algorithm) to solve a puzzle. In fact, modern curricula in some countries introduce computing concepts at age five. For example, England’s national curriculum now teaches children (5–6 year olds) what an algorithm is – using everyday tasks like recipes or morning routines – and even lets them create and debug simple computer programmes. These examples show that with playful pedagogy, even very young learners can begin forming STEM skills.

Benefits of Early STEM Exposure

Early STEM experiences have many benefits beyond academic knowledge. They strengthen critical thinking, creativity and persistence from the start. Research in brain science shows that the preschool years are when children are active explorers and observers, building domain-general skills (like attention and reasoning) and domain-specific skills (like early math and science) simultaneously. Because learning is cumulative, giving children rich STEM experiences early can create positive momentum: strong early learning often leads to better later outcomes, whereas missed stimulation in early years can create vulnerabilities. In practical terms, a 3-year-old who intuitively sorts shapes or engages in cause-and-effect play will have an easier time learning geometry and physics later.

Studies of successful STEM programmes also underline early benefits. Young children who do hands-on science report higher curiosity and positive attitudes toward STEM subjects. A pilot study in China found that primary students who joined STEM activities were more interested in STEM careers and developed better problem-solving self-concepts.

Similarly, experts argue that teaching logic and algorithms at an early age – not only improves computer skills, but also helps children to be articulate and think logically, benefiting literacy and math too. In short, early STEM builds foundational 21st-century skills like collaboration, innovation and analytical thinking.

Global Benchmarks for Early STEM Exposure

International standards and research emphasise early STEM readiness. UNESCO and UNICEF’s recent Global Report on Early Childhood Care and Education (2024) advocates ECCE programmes that enhance literacy, numeracy and social-emotional skills as core to school preparedness. These skills are inextricably linked to early math and science concepts. UNESCO leaders stress that investing in our youngest children brings the greatest returns, pointing out that by 2030 millions of kids will lack basic skills without urgent ECCE investment. Likewise, the OECD and national academies highlight that early childhood is a critical stage: spatial reasoning and numeracy can and should be nurtured long before formal schooling.

Many high-performing education systems have taken this to heart. In England, computing education begins at age 5 (Key Stage 1), so even kindergarteners learn algorithms in context. The United States’ policy initiatives (e.g. Obama’s Educate to Innovate campaign) also stress STEM from K–12, including early grades. In Finland and parts of Scandinavia, early education is heavily play-based and often integrates basic science exploration and math games as part of daily activities. Worldwide, there is a clear trend of countries moving away from rote learning and toward inquiry-driven, hands-on curriculum in the early years.

India’s Policy Context and Challenges

India’s own National Education Policy (NEP) 2020 aligns with this global shift. NEP explicitly calls for experiential, hands-on learning at all stages and places mathematics and computational thinking at the core even in the foundational (pre-primary) stage. For example, NEP mandates using puzzles and games to make math enjoyable from age 3–8. Coding and basic computational ideas are introduced by the middle school years. Such guidelines recognise that early engagement in STEM, through play and exploration, builds the logical and creative habits Indian children will need.

However, implementing early STEM in India faces practical gaps. Many rural and government schools still lack basic science labs, let alone modern labs or trained STEM teachers. Although NEP recommends 10% of education budgets for ECCE, actual pre-primary enrolment and quality lag behind targets.

UNESCO reports that 95% of countries (including India) have made ECCE commitments, yet globally 37% of children still risk not meeting basic skills by 2030. India grapples with teacher shortages and underqualified staff in pre-schools with only a fraction of Anganwadi (pre-school) workers having formal training in early pedagogy. Large class sizes and rote curricula persist in many areas, making it hard to introduce child-led STEM activities.

At the same time, new initiatives are filling in. Central and state programmes (like Sarva Shiksha Abhiyan’s preparations and NCERT’s experiential modules) increasingly include simple math manipulatives and science corners in primary schools. The National Initiative for School Heads (NISHTHA) and others are training teachers in inquiry methods. But the equity gap remains stark with urban private schools often having labs and robotics kits, while nearby government schools may have none. Bridging this divide is urgent.

NGOs and Community Innovations: Smile Foundation’s Example

Non-profit and private partnerships offer models for reaching underserved schools. For instance, Smile Foundation is running a large-scale STEM programme reaching over 74,000 students in 450+ schools (10 Indian states) in 2024–25. Crucially, Smile’s description emphasises equitable access to quality STEM education, especially in government schools. Our multi-layered approach illustrates how targeted support can work: we help set up tinkering labs on college campuses (like an IIT-Bombay workshop) where children used real tools to make projects. We run robotics workshops for hundreds of government-school children, teaching Arduino programming and culminating in building obstacle-avoiding robots. Science fairs and DIY kit sessions are organised to encourage students across schools to create projects and experiments.

These activities do not feel like remote theory; they bring STEM concepts to life. When underserved students physically build a circuit or code a simple game, they not only grasp the ideas but also gain confidence as young scientists. Such programmes show that with even modest investment – traveling workshops, hands-on materials, teacher mentoring – the quality gap in STEM exposure can be narrowed. By linking students to colleges, competitions, and online communities, NGO initiatives like Smile’s also help sustain interest. Importantly, they demonstrate that early STEM need not be an expensive gadget show but even low-cost kits and local experiments can ignite curiosity.

Gaps and the Road Ahead

Despite these promising examples, many challenges remain. Urban–rural and public–private divides mean that a child’s ZIP code often determines her STEM exposure. Girls and disadvantaged children are underrepresented in enrichment programmes in some areas. Teacher preparedness is a bottleneck with many early childhood educators having little training in STEM facilitation or know-how to integrate math and science into play. Curricula still sometimes relegate science to textbooks, even at primary levels where interactive learning would be more effective.

The evidence is clear that starting STEM early pays dividends, yet policies and practice are often slow to catch up. For example, while NEP 2020 highlights computational thinking at the foundation stage, only limited digital infrastructure exists in rural pre-primary settings. Similarly, research-driven approaches like spatial reasoning training are far from standard practice. Without concerted action, the benefits of early STEM education will remain unevenly distributed.

Recommendations for Expanding Early STEM Exposure

Based on current research and best practices, stakeholders should take the following steps to ensure all children benefit from early STEM exposure:

• Embed STEM in foundational curricula. Early education guidelines (national and state) should explicitly include hands-on math, science and technology activities in pre-primary and early grades. This means play-based experiments (counting games, nature exploration, simple machines), coding exercises (unplugged algorithms, age-appropriate apps) and manipulatives (blocks, shapes) as routine parts of the day.
• Invest in teacher training. Empower ECCE and primary teachers with STEM pedagogical skills. Workshops, certifications and ongoing mentoring can help teachers feel confident leading inquiry and problem-solving lessons. For instance, training on using storytelling and art to teach math (as NEP suggests) or on facilitating science play will make STEM exposure richer and more engaging.
• Equip learning environments. Classrooms need basic STEM resources. Low-cost science corners, mobile science kits, tinkering labs and computer tablets can dramatically expand what children experience. Partnership models work well with local colleges or tech companies sponsoring laboratory visits or donating kits. Smile Foundation’s experience shows that even in remote schools, setting up a small tinkering station or providing a DIY robotics kit can spark student initiative.
• Focus on equity and inclusion. Special attention must be paid to under-resourced schools (rural, tribal, slum areas) and to empowering girls. Quotas or targeted outreach can bring female and disadvantaged students into STEM clubs and contests. Community engagement (educating parents about STEM’s value) can also help sustain interest. As global data suggest, without such focus, high-need children miss out on the “window of opportunity” in early years.
• Encourage public-private collaboration. Government schemes (like Samagra Shiksha Abhiyan) and NGOs should team up. Programmes similar to Smile’s – combining local outreach with expertise from IITs or universities – can be scaled up. For instance, engineering departments could run summer maker camps for local schools. The private sector can fund digital literacy drives or sponsor national science fairs for children.
• Monitor and adapt with data. Finally, stakeholders should track learning outcomes in STEM from the start. Simple assessments of number sense or scientific reasoning in early grades can flag gaps. As in other domains, continuous evaluation (e.g. via formative assessments) will ensure that early STEM programmes are improving actual understanding, not just activity participation.

In summary, there is no harm in starting STEM early – only in starting too late. The pre-primary and primary years are when children form attitudes to learning and acquire the mental frameworks that will support higher concepts. By integrating STEM exploration into early childhood and ensuring broad access, India (and other nations) can build a generation of confident innovators. Policymakers, educators, parents and NGOs each have a role. From classroom design to community science fairs, every effort adds up. The research and global experience both point to making STEM play a part of childhood as soon as curiosity blooms.

Sources: Peer-reviewed research and reports (including National Academies, OECD, UNESCO) and global benchmarks (e.g. NEP 2020) on early learning and STEM; along with case examples from Smile Foundation’s STEM programme.

“An investment in knowledge pays the best interest.” Benjamin Franklin may have said it centuries ago, but every young Indian sitting with an entrance exam admit card in one hand and a bank loan brochure in the other knows — it’s true and also complicated.

Let us tell you about Sidhi Lonkar, a spirited young woman from Pune. She was still reeling from her father’s loss when she sat for her 10th-grade exams. The idea of pursuing engineering seemed distant, perhaps even indulgent, in those shadowed days. But her mother, who had shelved her own educational dreams years ago, whispered insistently: Go ahead, do what I could not.

With Smile Foundation’s scholarship programme, the dream that had looked unreachable was not only closer, but tangible. Sidhi not only secured admission to a reputable engineering college but was handed a laptop, study materials and, most importantly, the quiet dignity of studying without that gnawing worry about where the next semester’s fees would come from.

Her story is not rare. It is one of thousands. But it neatly frames the paradox of higher education, that is of, its promise of liberation and its punishing financial chains.

Effect of Scholarships: Liberation Tied With Debt

Across India, education is still sold as the golden key. Crack JEE, ace NEET, land that B-school seat — the rewards are enormous. But the cost? Enormous too.

In recent years, the rising tide of education loans has swept across both developed and developing economies. In the US, student debt has ballooned into a trillion-dollar beast. Closer home, in India, education loans between 2019 and 2025 rose by a staggering 95.8%. What that means is that degrees increasingly come wrapped in EMIs.

And debt, as anyone who has carried it knows, is never just financial. It’s emotional.

A 2024 survey by Student Loan Planner revealed that 79% of students with loans felt anxious, 43.5% felt hopeless and 41.5% reported depression linked to their debt. That’s not just a balance sheet problem but a mental health crisis too.

Life Lived in Instalments

Educational debt creeps into every choice.

Graduates with loans don’t often take the jobs they love — they take the jobs that pay. Research, teaching, public service, social development, the arts — fields India badly needs talent in — get abandoned for the safer shores of IT packages and multinational offers.

It also delays life milestones. Should I marry? Should I buy a house? Can I afford to take a break, switch careers, study further? Every decision is measured against the invisible ledger of EMIs.

Debt makes you live life in instalments, long after the degree is framed on the wall.

The Other Path: Effect of Scholarships

Now, picture a young woman sitting at her desk, books open, ambitions swirling. But instead of the constant background hum of “loan repayment, loan repayment,” she hears something more pleasant like silence or freedom.

That’s what a scholarship does.

It isn’t just money. It is recognition. The gold effect of scholarships.

The economic relief is obvious with tuition fees covered, tools provided, stress lifted. But the psychological impact is profound. Scholarships bestow dignity. They validate not just need, but effort, merit, resilience.

And they motivate. Students with scholarships often feel compelled not by fear of debt but by faith placed in them. That faith can be transformative.

Take rural Rajasthan, where Smile Foundation’s Project Manzil scholarships have allowed girls to continue schooling instead of being nudged into early marriages. Or young engineers in Odisha who, instead of dropping out midway, finished their courses with laptops and stipends provided through Smile’s support.

One scholarship can alter not just one life, but a family’s trajectory. A mother rests easier, knowing she doesn’t need to mortgage land. A younger sibling dreams bolder, because they’ve seen what’s possible. A community gains role models — educated daughters who return as teachers, health workers, entrepreneurs.

This is the ripple effect debt can never create — but scholarships do, effortlessly.

Smile Foundation: Beyond Financial Aid

At Smile Foundation, scholarships are not just cheques. They’re carefully crafted bridges.

Through Mission Education, Smile has supported over 20,000 girls in continuing their education. That means tuition, yes, but also digital tools, inclusive infrastructure and mentorship. It means fighting dropout rates not by scolding but by supporting. It means seeing each student not as a statistic but as a story.

For Sidhi Lonkar, it meant not having to choose between her grief and her goals. For others, it means laptops in villages where even electricity is uncertain or vocational training that makes employability real.

And there’s a crucial difference here: where loans weigh down, scholarships lift up. Where debt narrows choices, scholarships expand them. Where EMIs eat into courage, scholarships feed it.

Why Scholarships Matter Now More Than Ever

We live in a time when education has never been more expensive or more necessary. India dreams of being a knowledge economy, a land of innovation and ideas. But how will we get there if half our young minds are bent under the weight of debt?

Scholarships are investments. They invest in ambition, in dignity, in possibility. They let education return to its true purpose — not to create earners chained to EMIs, but thinkers, builders, dreamers who can give back to society in ways money can’t always measure.

A Final Reflection

We’ve often thought that education should feel like walking into sunlight — not like walking with stones in your pockets.

Sidhi’s story is proof of that. Without the burden of loans, she could smile into her textbooks, not cry into bank slips. Her scholarship didn’t just buy her notebooks and a laptop — it bought her time, peace, dignity and the right to dream.

That’s what Smile Foundation is trying to do: remove the mask of debt and reveals the face of possibility.

And that’s the choice before us, as a society: will we let our youth live in debt or will we gift them dignity? Will we power their dreams with the effect of scholarships?

Because freedom, after all, doesn’t always wear a flag. Sometimes it looks like a scholarship letter, slipped into a young one’s hands.

Every Engineer’s Day, we pause. We brush off our blueprints, applaud the tech innovators, the coders, the inventors, the problem-solvers. We celebrate Sir Mokshagundam Visvesvaraya, whose birthday falls on September 15, remembering a man who engineered bridges and dams—and perhaps, more importantly, engineered possibility.

But today, in 2025, India’s future doesn’t just need to honour engineers. It needs more of them — especially young people from underprivileged backgrounds, especially girls — who will not only build infrastructure but build innovation, equity, dreams.

This Engineer’s Day, the question is: how do we make engineering more than a dream for the few? How do we nurture engineers who will drive India forward? And how is Smile Foundation helping that happen?

The Power of Engineers in Nation-Building

Think of every road you drive, every app you tap, every hospital that stands where often there was only empty land. Engineers made those things happen. Civil engineers span bridges and railways; software engineers invent solutions for remote learning; electrical engineers light up villages; chemical engineers create medicines; mechanical engineers build machines that do the heavy lifting and robotics.

India aspires to be a global innovation hub. The National Education Policy (NEP) 2020 emphasises STEM education. Initiatives like Make in India, Digital India, Startup India lean heavily on enabling engineering talent. But policies on paper must translate into opportunities in labs, scholarships, mentorship and inclusive access.

Smile Foundation’s Scholarships: Facts You Can Stand On

Smile Foundation invests in future engineers.

• Under Smile Foundation’s Education Impact, there are “scholarships for deserving students … technical courses like engineering.” (Smile Foundation)
• In collaboration with Deutsche Bank, Smile offers engineering scholarships to meritorious girls from low-income families, covering tuition for four years at colleges in cities such as Bengaluru, Jaipur, Mumbai, Pune. (Smile Foundation)
• The scholarship includes not only financial aid but learning tools like laptops, industry exposure, domain/technical skills training, communication and employability skills, and placement assistance in the senior years of study.
• As of now, Smile’s scholarship programmes for engineering have benefited over 2,000 students through various donor-partner initiatives.

These are not minor interventions. They are acts of possibility—transforming a student’s “I hope I can afford college” into “I will become an engineer.”

Why Engineering from Margins Matters

When engineering is restricted by cost, geography or gender, the diversity of ideas shrinks. Women are underrepresented in technical roles; rural students may not even have labs or reliable electricity; first-generation learners may lack counsel or mentorship. Innovation suffers when voices, perspectives, experiences are missing.

Smile Foundation’s Mission Education centres work in 27 states, supporting over 120,000 children with educational access, including STEM and vocational exposure. Additionally, Smile has introduced STEM labs at 12 locations, DIY STEM kits, science/engineering exposure, coding, robotics in collaboration with institutions.

When a girl from a small town gets an engineering scholarship, receives domain training, a laptop, mentorship — that doesn’t just change her life. It changes the map of who India’s engineers look like. It changes what innovation feels like.

Beyond the Parade, Towards Praxis

What does Engineer’s Day mean, if not just speeches and good Instagram posts? It should also be about action:

• Recognising engineers from non-traditional backgrounds.
• Supporting scholarship programmes that cover all costs — not just tuition, but tools, travel, exposure.
• Ensuring labs not just exist, but function. Proper infrastructure, teaching staff trained in modern pedagogy.
• Encouraging women in engineering by setting up role models, mentorship, safe spaces.

Smile Foundation is doing many of these. The engineering scholarships with Deutsche Bank are one example. Another is Smile’s focus in education on STEM & experiential learning introducing inquiry, problem-solving and breaking away from rote.

Smiling in the Making

• Shreya, a student from a small town beneficiary of the Deutsche Bank-Smile scholarship, is now in her second year of engineering in Pune. She says studying circuits feels like poetry, now that she has both the materials and the confidence.
• Ayesha, another scholarship-holder, used to worry she’d drop out because her family couldn’t afford a laptop. Smile’s scholarship provided the laptop, mentorship support and she now tutors others in her engineering hostel.

These are proof that investment in engineers from underserved backgrounds works.

The Innovation Gap & What Engineers Must Fill

India’s challenges — urban congestion, climate change, renewable energy, AI governance, water scarcity need engineering solutions. But to solve them sustainably, engineers must come from everywhere: rural hearts, small towns, border areas, from girls, from minorities. Because those are the lived contexts in which some of the toughest problems lie.

SME engineers, industrial engineers, software engineers, civil, mechanical, electrical — they all converge. And as we see globally, countries that have inclusive engineering pipelines tend to innovate faster, build more resilient infrastructure, adapt more rapidly.

This Engineer’s Day, here are ways you can contribute to building engineering futures:

• Sponsor an engineering scholarship – even one scholarship can support tuition + tool costs for a student. Smile’s programme works with donors like Deutsche Bank and others. (Smile Foundation)
• Mentor – help students understand what engineering means, guide projects, support internships.
• Provide tools or labs – if you’re an organisation with capacity.
• Spread awareness – share stories of engineers from underserved backgrounds via social media, local schools, communities.

Give not just your applause, but your support. Give not just congratulations, but opportunity.

Walk into a government school in rural India. The classrooms are full, children are in their seats, teachers are at the blackboard. On paper, the numbers might look impressive: more than 96 percent of children aged 6 to 14 are enrolled in school.

But pause for a moment. Hand a Grade 5 child a Grade 2-level storybook and ask them to read. More often than not, they will stumble. Ask another to solve a simple subtraction problem. Chances are, they will look at you blankly.

This is the paradox at the heart of India’s education system. Children are in school, but many of them are not learning the basics. And those basics — what education experts call Foundational Literacy and Numeracy (FLN) — are the very skills that unlock every other stage of learning. Without them, the ladder of education becomes shaky and unreliable.

So why does FLN matter so much and why is the age of 10 such a critical milestone?

The Learning Crisis in Plain Numbers

The Annual Status of Education Report (ASER) 2023 tells us something sobering: nearly half of Grade 5 children in India still cannot read a simple Grade 2 text. In mathematics, the situation is just as troubling. Barely one in five Grade 3 students can solve a basic subtraction problem.

It’s not that children aren’t going to school — they are. But being present in a classroom does not guarantee learning.

COVID-19 only made this worse. Two years of school closures erased nearly a decade of slow progress in reading and arithmetic. By 2022, learning levels had slipped back to what they were in 2012. For children from rural and low-income households, where parents often lacked resources to support learning at home, the damage was even deeper.

In short: India’s schools are open, but for too many children, the doors to actual learning remain closed.

The Turning Point

Let’s put aside the data for a moment and think about childhood. Up to around age 8 or 9, children are in the stage of “learning to read.” They are decoding letters, sounds, words and numbers. By the time they reach age 10, something important happens: they are expected to flip that switch and begin “reading to learn.”

If that switch doesn’t happen, the consequences are serious. A child who cannot read fluently by Grade 3 struggles to keep up with science, social studies or even word problems in math. Their self-confidence takes a hit and they begin to disengage.

Research by education scholar J. Douglas Willms shows that students who leave primary school without adequate reading skills are much more likely to face difficulties all the way through secondary school. The effects spill over beyond academics: poor foundational skills are linked to low self-esteem, behavioural challenges and even higher risks of anxiety and depression.

The World Bank has gone as far as to call investment in foundational learning the single highest-return investment a country can make in human capital. For India, where millions of young people will enter the workforce in the coming decade, ensuring FLN by age 10 isn’t just an educational goal — it’s an economic and social imperative.

The Indian Context: Promise and Problems

India is not blind to this challenge. The National Education Policy (NEP) 2020 puts foundational literacy and numeracy right at the top of its priorities. It emphasises play-based and activity-based learning in early years, mother-tongue instruction and smaller class sizes where possible.

Building on that, the government launched the NIPUN Bharat Mission in 2021. Its goal? To ensure that every child in India can achieve FLN by the end of Grade 3, with a target year of 2026-27. The mission encourages early assessments, teacher training and close engagement with families.

On paper, this is exactly what India needs. But anyone who has spent time in a government school knows the hurdles: overcrowded classrooms, teachers who are under-trained in FLN pedagogy, children coming from homes where no one can read to them in the evenings and of course, the vast linguistic diversity that makes “one-size-fits-all” teaching almost impossible.

The truth is, schools alone cannot solve this. Families, communities and civil society all need to play a role.

What FLN Looks Like on the Ground: Stories of Change

This is where organisations like Smile Foundation step in. Through our Mission Education programme, Smile works in more than 2,000 villages across 26 states. The goal is simple yet ambitious: to make sure at least 70 percent of enrolled children achieve foundational literacy and numeracy.

But here’s the twist: Smile doesn’t teach children strictly by grade. Instead, we group them by skill level. That means a Grade 4 child struggling with reading won’t be lost in a class that has moved on to advanced material. The teaching meets the child where they are.

Language also matters. Smile Foundation prioritises instruction in the mother tongue during the early years, helping children grasp concepts faster and retain them longer. And critically, the programme doesn’t stop at the classroom. We bring in parents, school management committees and local officials, creating a supportive ecosystem around the child.

The results speak volumes. In one project under Smile’s Shiksha Na Ruke initiative in Gurugram, the percentage of Grade 3 children who could read simple sentences jumped from 38 percent at baseline to 72 percent after targeted FLN interventions. Writing skills improved from 36 percent to 93 percent.

These are stories of children who once sat silently in classrooms, now standing up and reading aloud with confidence.

Barriers We Must Confront

Even with inspiring models, India’s FLN journey faces stubborn obstacles.

• Teaching quality and training: Many teachers are not trained in age-appropriate, activity-based FLN methods. Teaching often defaults to rote memorisation.
• Language barriers: Millions of children start school in a language they don’t speak at home, making early learning unnecessarily difficult.
• Home environments: In rural and low-literacy households, parents cannot always support homework or provide books. This widens the gap between privileged and disadvantaged children.
• Assessment and remedial action: Too often, children who are struggling are not identified until much later. By then, catching up is much harder.
• Equity gaps: Girls, children with disabilities and those from tribal or minority language groups are especially at risk of being left behind.

Unless these barriers are systematically addressed, India will continue to see high enrolment rates but low actual learning.

What Can Be Done: A Roadmap for FLN by Age 10

So how do we ensure every child crosses the FLN milestone by age 10? Here are some essential steps:

1. Start early and focus on the first three grades. Invest in pre-primary education so children arrive at school ready to learn. Prioritise play, storytelling and numeracy activities in the first years.
2. Teach in the child’s language. Research shows children learn best in their mother tongue in early years. Building literacy in the home language provides a foundation for learning additional languages later.
3. Support teachers, not just students. Train teachers in activity-based methods, give them access to high-quality teaching-learning materials and provide continuous mentoring.
4. Assess early and often. Simple, classroom-friendly assessments can help identify struggling learners by the end of Grade 1, so remedial support can begin immediately.
5. Engage families and communities. Equip parents with simple reading and counting activities. Run community reading sessions. Show families why FLN matters for their child’s future.
6. Leverage civil society partnerships. Scale up proven models like Smile Foundation’s Mission Education, which combine classroom support with community mobilisation. Government alone cannot do it all.
7. Fund FLN like the national priority it is. Budgets must reflect the urgency. Investing in early learning is not a cost — it is the most cost-effective way to secure India’s human capital future.

Why FLN Matters Beyond the Classroom

Foundational literacy and numeracy are not just about reading textbooks or solving sums. They are about agency.

A child who can read is a child who can understand a medicine label, apply for a job, or read about their rights. A child who is numerate can manage money, measure ingredients or compare prices. These are life skills as much as academic skills.

Economically, the stakes are immense. The World Bank estimates that if all children in low- and middle-income countries, including India, acquired basic reading skills, global poverty could be cut by 12 percent. In India, where millions will join the labour force each year, a failure to achieve FLN translates into lost productivity, lower wages and weaker competitiveness.

Socially, FLN is about equity. When the poorest and most marginalised children fail to learn to read or count by age 10, the gap between them and their peers only widens. Ensuring universal FLN is thus not just an education target — it is a matter of justice.

The Bottom Line

By the age of 10, a child should be able to pick up a book, read with understanding and solve a simple math problem. That is the bare minimum we owe them. Yet today, millions of Indian children are being denied even this.

The good news is that we know what works. Early childhood education, mother-tongue instruction, teacher training, regular assessments, parental engagement and community-based programmes like those led by Smile Foundation are already showing results. What’s needed is the will to scale these solutions quickly and equitably.

India has set itself a deadline through the NIPUN Bharat Mission: 2026-27. That is not far away. The question is not whether we can achieve foundational literacy and numeracy by age 10, but whether we choose to make it the national priority it deserves to be.

Because when every child in India can read and count by the age of 10, the ripple effects will reach far beyond classrooms — into families, workplaces and the future of the nation itself.