From School Access to Actual Learning

A child can spend years inside a school system and still arrive at the next classroom without being ready for what is taught there.

That sounds like a contradiction. Schooling is supposed to be cumulative: each year should build on the previous one. Yet a child can be enrolled, attend classes, move from one grade to the next—and still carry forward a gap that makes the next stage harder to understand.

This is the less visible problem in India’s education story.

The country has made enormous progress in getting children into school. But access and learning are not the same achievement. The harder transition is what comes afterwards: turning years spent in education into actual capabilities.

A system can therefore look successful when measured by participation while remaining incomplete when measured by what children can actually do.

And foundational learning makes the difference unusually visible.

The child can be in the right grade and still be at the wrong learning level

Consider what happens inside a conventional classroom.

The school is organised by grades. The curriculum is designed for each grade. The teacher is expected to move through that curriculum within the academic year.

The child, however, does not necessarily follow the same timetable.

One student may already understand multiplication. Another may still be struggling with subtraction. A third may be trying to make sense of place value. Yet all three are expected to move into the next chapter because the class has reached it.

This creates a subtle institutional mismatch.

The grade tells the system where the child should be. It does not necessarily tell the system what the child is ready to learn.

Mathematics makes this mismatch particularly consequential because later concepts depend on earlier ones. A child may be able to manage a simple calculation without having properly understood the idea behind it. That weakness can remain hidden until a later topic requires the missing foundation.

A difficulty with place value, for example, may not prevent a child from completing some early exercises. But when the curriculum begins demanding more complex calculations, decimals or other related concepts, the earlier gap can suddenly become much more important.

The problem therefore does not remain confined to the lesson in which it first appeared.

It can accompany the child into the next grade.

This is why the experience of Teaching at the Right Level, developed by Pratham, is important. Its central implication is that teaching needs to respond to the learner’s demonstrated level rather than treating grade placement as a reliable proxy for what the child already understands.

Remediation, in that sense, is not necessarily a pause in learning.

For a child who has fallen behind, it may be the route back into the curriculum.

This is why the education problem cannot be understood simply by asking whether a child has entered school. The more important question is whether the child can keep up once inside it.

Numeracy reveals what enrolment numbers cannot

Literacy and numeracy are both foundational, but numeracy exposes the cumulative nature of learning particularly sharply.

The 2024 Annual Status of Education Report evidence illustrates the gap. Among Class 5 students, 48.7% could read fluently, while only 30.7% could solve a basic division problem—a difference of 18 percentage points.

The significance is not merely that mathematics performs worse than reading. The two abilities can determine very different futures inside the same classroom.

A child who can read sufficiently well may be able to follow written instructions, participate in lessons and extract some meaning from a textbook. But if basic numerical operations remain uncertain, the mathematics curriculum becomes progressively harder to enter.

Division is therefore important not simply as one arithmetic skill.

It is an indicator of whether a child has acquired some of the numerical foundations on which later learning depends.

Once those foundations are weak, subsequent concepts can become harder to access. Fractions, decimals, percentages and ratios require students to manipulate relationships between numbers rather than simply perform isolated operations. A child who has not secured the earlier building blocks may therefore encounter increasing difficulty as the curriculum becomes more demanding.

The 2024 evidence is revealing not because one number proves that India’s education system is failing, but because it shows how being in Class 5 and being ready for Class 5 mathematics are not necessarily the same thing.

That is the deeper problem.

A school system can successfully move children through its institutional structure while some children are not moving through its learning structure.

The gap becomes more expensive as the child gets older

Learning gaps are often easiest to create when children are young and hardest to repair when they are older.

The reason is straightforward: later learning assumes that some earlier learning has already happened.

This is particularly important in mathematics. A student may cope with a few simple tasks despite not fully understanding an underlying concept. As the curriculum becomes more abstract, however, that missing knowledge begins to affect a wider range of problems.

The consequences can therefore appear much later than the original learning difficulty.

Students who struggle with numeracy can find mathematics and science increasingly difficult, including in board examinations. Persistent learning gaps can also make classroom instruction harder to follow in middle and secondary school.

But this relationship needs to be understood carefully.

Poor learning does not provide a single national explanation for dropout. Children leave or discontinue education for many reasons, including infrastructure, family circumstances, migration, school availability and other institutional factors.

What weak learning does is create one important pathway through which progression can become harder.

A child who repeatedly encounters material that does not make sense is not simply accumulating wrong answers. The child is accumulating distance from the system itself.

That distance matters when the next transition arrives.

Access can therefore hide a progression problem

NITI Aayog’s analysis of India’s school system describes this problem in structural terms.

India has achieved near-universal primary access, but the school system narrows sharply as children move upwards. The analysis describes 14.71 lakh schools serving 24.69 crore students, with about 7.3 lakh primary schools but only 1.64 lakh at the higher-secondary level. It reports that four in ten children entering the system leave before completing higher secondary education.

The numbers point towards an important distinction.

Entering the system is one transition. Remaining capable of progressing through it is another.

Only 5.4% of schools, according to the same analysis, offer a continuous Grade 1–12 journey. For many students, moving upwards therefore involves changing institutions at important stages. NITI Aayog identifies this fragmentation as one factor that can make progression more difficult.

But even here, the lesson is not that one structural factor explains all attrition.

It is that educational success is cumulative at several levels simultaneously.

A child needs to acquire knowledge from one grade before the next grade becomes meaningful. The school network needs to provide a viable route from one stage to the next. And the system needs to support students when those transitions become difficult.

Access creates the possibility of progression.

It does not guarantee it.

The same problem can be seen in transition data

Odisha provides a useful illustration of why enrolment and progression must be examined separately.

A Comptroller and Auditor General audit reported a secondary-to-higher-secondary transition rate of 70.3% in the State. Roughly 30% of students were therefore not making that transition, either because they dropped out or because they did not qualify for promotion. The audit also reported discontinuation among students across Classes 1 to 11 during 2018–23 and identified ineffective measures to arrest dropout during transitions, along with inadequate infrastructure and facilities, as indicative concerns.

The Odisha example does not prove that weak learning caused those outcomes.

It does something more useful.

It shows why the education system has to be judged not merely by how many children enter it, but by what happens as they move through it.

A student who enters Class 1 but cannot build the foundations required for Class 5 is not experiencing the same educational opportunity as a student who moves through each stage with those foundations intact.

The distinction between access and learning is therefore also a distinction between participation in education and the ability to benefit from it.

The problem is not that nothing has improved

It would be easy to describe the situation as a simple failure: enrolment expanded, learning remained poor, therefore the system failed.

The evidence does not support such a neat conclusion.

Foundational learning outcomes have shown measurable improvement. ASER 2024 recorded a seven-percentage-point improvement in numeracy since 2018. PARAKH 2024 also found that Grade 3 students who had benefited from the first three years of NIPUN Bharat performed better in language and mathematics than Grades 6 and 9 in the assessment cited in the education material.

That matters.

It means the problem is not an immutable characteristic of Indian schooling.

Focused intervention can change learning outcomes.

The more revealing question is whether the system can make improvement deep enough, broad enough and durable enough to prevent children from carrying unresolved gaps into the next stage.

That is a much harder institutional challenge.

NIPUN changed what the system is supposed to care about

The National Education Policy 2020 made foundational literacy and numeracy a national priority, and NIPUN Bharat translated that priority into a more focused mission: ensuring that children attain foundational literacy and numeracy by the end of Grade 3.

This represented an important change in how educational success was being understood.

For a long time, the central problem could be framed as getting children into school.

Once access became much broader, that question was no longer sufficient.

The policy challenge moved closer to the classroom:

Can the child read?

Can the child understand what is being read?

Can the child perform basic mathematical operations?

Can the child use those capabilities as the basis for the next stage of learning?

That shift is more important than the name of any particular programme.

It changes the unit of success.

A school system built around enrolment asks whether the child is present.

A learning system asks whether the child is progressing.

But foundational cannot mean only the first few years

The remaining challenge becomes visible in the gap between early-grade ambitions and later-grade realities.

If a large share of children continues to struggle with basic division in Class 5 and beyond, then the foundational problem has not ended merely because the child has crossed the age or grade boundary at which foundational interventions were originally concentrated.

The 2024 evidence reports that roughly 70% of Class 5 students and more than half of Class 8 students were unable to perform basic division.

That creates an uncomfortable policy question.

What happens to the child who reaches Class 4, 5, 6 or 7 without mastering the knowledge on which the next chapters depend?

Moving the child forward does not necessarily move the learning forward.

This is why extending learning support into the middle grades is not simply a case of adding more remedial classes. It is about recognising that a learning need does not disappear when a student moves beyond the grade at which a particular intervention was designed to operate.

The next stage also demands more than basic operations. Fractions, decimals, percentages, ratios and integers become increasingly important as students move towards higher-level mathematics and later academic progression.

The objective should therefore be broader than securing a narrow set of foundational skills.

It should be to ensure that those skills become a durable base for what comes next.

Learning also depends on whether the child can understand the classroom

Children do not enter classrooms with identical linguistic experiences.

India’s linguistic diversity means that the language spoken at home and the language used for instruction may not always be the same. NCERT data indicate that nearly 44% of children enter school speaking a language different from the medium of instruction.

For such a child, the challenge can begin before the academic concept itself.

The child must first understand the language through which the concept is being explained.

Language difference alone does not explain learning gaps. But it shows why converting access into learning is more complicated than simply providing a classroom, teacher and textbook.

The National Education Policy and subsequent curriculum frameworks have placed greater emphasis on the child’s home or mother tongue in early education. The experience of multilingual education programmes, including the Odisha programme spanning 21 tribal languages across 17 districts, illustrates that language can be treated as part of the learning environment rather than merely as a cultural issue.

The institution provides access. The classroom determines whether that access becomes understandable.

Early childhood is where the conversion begins

Foundational learning does not begin when a child first encounters the Grade 1 textbook. School readiness is shaped before formal schooling begins, which is why early childhood care and education has been treated as an upstream component of the foundational-learning agenda.

If children arrive at school with very different starting points, asking the formal school system to produce identical outcomes through identical grade-paced instruction becomes much harder.

Early childhood provision therefore belongs inside the learning story—not as a separate education sector, but as part of the chain through which capability is built.

The question is not simply whether a child has reached the school gate.

It is what capabilities the child carries through it.

The real reform is therefore harder than expanding access

India’s education challenge is sometimes presented as a choice between access and quality.

That is the wrong framing.

Access remains essential. A child cannot benefit from schooling without being able to enter it. But once access becomes widespread, the definition of success has to evolve.

The problem becomes one of conversion:

Access must be converted into learning.

Learning must then be converted into progression.

And progression must eventually become usable capability.

The difficulty is that every stage depends on the previous one. A weak foundation can make the next grade harder. A harder grade can make progression less likely. A fragmented transition can then create another point at which the student leaves the system.

That is why the educational challenge cannot be solved simply by adding another scheme, building another classroom or increasing another enrolment number.

The system has to become better at recognising where a child actually is—and responding before the gap becomes too large to ignore.

The next transition is from counting children to understanding their learning

This is ultimately what India’s shift towards foundational learning represents.

The country has already demonstrated that it can build reach. It has created a vast school network and brought primary education within reach of a very large share of children.

The harder institutional task is now different.

It is to ensure that a child does not merely advance through the administrative architecture of schooling while remaining stuck in the learning architecture beneath it.

The improvement recorded under NIPUN shows that targeted intervention can work. The continuing numeracy gap shows that the job is unfinished. The language challenge shows that the classroom itself can determine whether access becomes understanding. The progression problem shows what happens when unresolved gaps travel forward.

The deeper transformation is not simply from fewer schools to more schools, or from low enrolment to high enrolment.

It is from education as a place a child enters to education as a capability the child actually acquires.

That is a much more demanding definition of success.

And once access is no longer the hardest part, the most important question about a school is no longer how many children are inside it.

It is whether the children inside are learning enough to make the next stage possible.