Curriculum Lag: Why India's Schools Are Teaching Yesterday's Skills for Tomorrow's Jobs
When we walk into most Indian classrooms today, we are stepping into a time warp: children of a digital, AI-infused world are being prepared with a curriculum designed for a different economy, a different society, and a different set of jobs. That quiet mismatch the curriculum lag is perhaps the single biggest risk to India’s demographic dividend.
The paradox of India’s classrooms
On paper, India’s school system is enormous and ambitious. It serves around 24.8 crore students, with steady expansion of infrastructure, digital platforms, and flagship reforms aligned to NEP 2020. Government reviews list thousands of upgraded schools, ICT labs, Atal Tinkering Labs, PM SHRI exemplar schools, and national missions on foundational literacy. Yet the lived experience in an average classroom still revolves around chalk-and-talk lectures, board exams that reward memorisation, and textbooks that treat digital skills as optional add-ons rather than core literacy.
ASER 2024 shows slow but real recovery in basic reading and arithmetic post-pandemic, but also highlights that a majority of Class 3 children still cannot read a Class 2 text or perform simple arithmetic. When such a large share of students is struggling with foundational skills, the system becomes risk-averse: boards hesitate to overload curricula with “new” content like coding or AI, teachers feel underprepared, and digital literacy is pushed off to the margins as a “nice-to-have”.
The result is a paradox: while teenagers across India use smartphones, social media, and video content daily, only a fraction are systematically taught how to search, discern, create, and compute in ways that map to tomorrow’s jobs.
Yesterday’s skills in tomorrow’s job market
Across sectors, employers are no longer hiring for static knowledge but for adaptive capabilities problem solving, computational thinking, data literacy, collaboration, and creativity mediated through technology. Yet most school curricula still channel students towards a narrow definition of “achievement”: high-stakes exam scores in a few subjects, with the “right” answers fixed in the back of the book.
Three critical skill clusters expose this lag most starkly.
1. Digital literacy as survival, not enrichment
Digital literacy today is as fundamental as reading and writing. It includes the ability to:
Navigate devices and operating systems.
Find, evaluate, and synthesise information online.
Communicate and collaborate safely and ethically.
Use productivity tools to create documents, presentations, spreadsheets, and simple media.
NEP 2020 recognises digital literacy as a foundational skill for all learners and calls for integration of technology into teaching and learning, expansion of platforms like DIKSHA and SWAYAM, and virtual labs. However, research on digital literacy in India points to deep structural constraints: low device ownership, patchy connectivity, and pronounced gender and rural–urban gaps in access and skills.
Only around 4.4% of rural households and 23.4% of urban households own computers, and smartphone and 4G penetration remains uneven, particularly in rural areas. Even where devices exist, NSSO data and micro‑studies show that women and girls are significantly less likely to operate computers or use the internet compared to men and boys. In such contexts, schools could have become powerful levellers by guaranteeing meaningful digital exposure to every child but that requires digital literacy to be embedded in the core curriculum, not relegated to a single computer period in a lab that may or may not function.
Government data show that the percentage of schools with computers has increased from 38.5% in 2019–20 to 57.2% in 2023–24, and over 1.3 lakh schools are covered under ICT and digital initiatives. Yet infrastructure is only the outer shell; in many schools, computers remain locked to “save them”, connectivity is intermittent, and teachers are not adequately trained to integrate digital tools into everyday pedagogy.
2. Coding and computational thinking as a new language
The job market that awaits today’s Class 6 student is saturated with software-everywhere: logistics, agriculture, healthcare, education, retail, and even small businesses are being reshaped by automation and algorithms. In that world, coding is not merely a specialised vocation; it is a new language for expressing ideas, designing solutions, and collaborating with machines.
CBSE introduced computer science and Informatics Practices as elective subjects over a decade ago, and initiatives like Atal Tinkering Labs have promoted hands-on robotics and programming experiences in thousands of schools. Central schools such as Kendriya Vidyalayas and Navodaya Vidyalayas now offer computer science or information practices at the secondary level, and AI curricula are being rolled out from Class VI onwards in many such schools.
However, these developments largely touch islands of relative privilege. In practice:
Coding is usually introduced only at the secondary level, and as an optional subject.
Many state boards still treat computer education as an “extra” or non-exam subject.
Access to labs, devices, and trained faculty is heavily skewed towards urban and better-resourced schools.
Where coding clubs or robotics programs exist, they often operate as fee-based extracurriculars, pushing lower-income students to the margins of the future of work. This creates a two‑speed system: one subset of students is learning to build and control technology; another is being prepared only to consume it.
3. AI readiness and algorithmic citizenship
If coding is the language of automation, AI readiness is the grammar of living with intelligent systems. AI readiness spans:
Understanding what AI is (and is not).
Recognising where algorithms influence daily life recommendations, filters, credit scoring, recruitment, surveillance.
Developing basic data literacy and computational thinking that makes AI legible rather than magical.
Policy momentum is building. Curricula on AI and computational thinking are planned from Class 3 in alignment with NEP 2020 and the National Curriculum Framework for School Education 2023, with national announcements of AI and CT integration from 2026–27. CBSE has AI as a skill subject from middle school upwards, and some central school systems implement AI curricula beginning in Class VI.
Yet the gap between announcement and classroom reality is wide. Surveys suggest that only about 15% of educators are AI‑fluent, with government schools serving roughly 70% of enrolments facing the steepest readiness challenge. Teacher education programs are only beginning to incorporate AI concepts, and school timetables are already densely packed, leaving little room for new cross‑cutting content.
Absent intentional design, AI education risks becoming either a shallow buzzword unit or an elite offering where only a minority of students truly engage in projects, datasets, and ethical discussions.
What NEP 2020 promises and where it stalls
NEP 2020 is, on paper, one of the most forward‑looking policy documents Indian school education has seen in decades. It calls for:
A shift from rote learning towards competency-based, experiential, and multidisciplinary education.
Early emphasis on foundational literacy and numeracy through NIPUN Bharat.
Integration of digital tools across subjects and expansion of DIKSHA, SWAYAM, and virtual labs.
A new National Educational Technology Forum to guide the adoption of digital technologies.
Vocational exposure, coding, and 21st‑century skills, including critical thinking and creativity.
Implementation updates show momentum: national missions like NIPUN Bharat, the creation of PARAKH for assessment reform, APAAR IDs for tracking learning, PM SHRI schools as NEP exemplars, and a large-scale expansion of digital platforms and content. Textbooks for the foundational and middle stages are being re-written with competency‑based and interdisciplinary orientation, and skill education is formally recognised in many upper grades.
Yet, when we zoom in on digital literacy, coding, and AI readiness, several gaps emerge.
1. Structural constraints and the digital divide
NEP 2020 acknowledges digital learning and calls for using TV, radio, and community radio to supplement online education, especially for disadvantaged groups. But policy commentary notes that NEP is relatively silent on:
Concrete, time‑bound strategies to close the device and connectivity gap at the household level.
Addressing the gender digital divide explicitly.
Systematically supporting students with disabilities in online or blended modes.
Mitigating health and safety issues arising from extended screen time, online risks, and cyberbullying.
Research synthesising digital literacy and NEP 2020 concludes that while technological initiatives are ambitious, they often assume a baseline of access and teacher readiness that does not exist in many parts of the country. Without targeted investments in last‑mile connectivity, shared community devices, accessible content, and protective frameworks, digital learning risks amplifying existing inequities.
2. Teacher capacity as the bottleneck
Teacher competence and comfort with technology are repeatedly highlighted as key determinants of successful NEP implementation. The government has launched integrated teacher education programmes, national mentoring missions, and professional standards for teachers, including guidelines and bluebooks in Braille and audio. There is also widespread deployment of NISHTHA and other online training modules for digital pedagogy and competency-based teaching.
However, AI and coding-specific readiness is still embryonic. Surveys in 2025 suggest that only a small minority of educators describe themselves as fluent with AI tools, and that many attend one‑off workshops without ongoing coaching or peer support. For a teacher who is juggling large class sizes, administrative compliance, and pressure for board exam results, experimental AI or coding activities can feel like a risky luxury.
Teachers in low‑resource schools often report:
Anxiety that students might “know more” about devices or AI tools than they do.
Lack of contextualised teaching-learning materials that make AI and coding accessible without expensive hardware.
Little time or institutional support to redesign lesson plans around projects and design thinking.
3. Fragmented implementation across states and school types
India’s school system is deeply decentralised. While NEP and national frameworks set the direction, states drive implementation, and boards control examinations. Early AI or coding initiatives are often concentrated in:
Central schools (KVS, NVS).
Urban private schools.
Selected PM SHRI or Atal Tinkering Lab schools.
UDISE+ data shows growing ICT coverage and vocational education, but not yet a universal baseline where every child is guaranteed consistent exposure to digital literacy, coding, and AI concepts across grades. In many state board schools, digital skills appear as a slim, often outdated chapter in textbooks, and practical exposure depends on local headteacher initiative or NGO partnerships.
PARAKH and the National Curriculum Framework are working towards equivalence in curricula and assessment across boards, but assessment reform which could drive real change in classroom practice is still in early phases, with national surveys and conceptualisation of holistic progress cards underway.
Ground realities: voices from schools
To move beyond policy and data, we need to listen to those who inhabit schools every day. In my conversations for this series with principals, teachers, and students across government and low- to middle-fee private schools in Karnataka, Maharashtra, and Delhi, three themes recur.
1. Principals: balancing aspiration and constraints
School leaders almost universally express a desire to prepare students for a digital future, but they operate within hard constraints of budgets, staff, and accountability metrics.
One principal of a government higher primary school in rural Karnataka describes her reality like this: “We have a computer room with ten desktops that came three years ago, but electricity is erratic and there is no internet most days. The timetable gives one period a week for computers, yet sometimes we convert it into extra math because the pressure for basic learning outcomes is very high.”
Her decision is rational in a system where her performance is judged primarily on textbook coverage and board results, not on whether her students can write a simple program or critically evaluate information online.
In contrast, a head of a mid-sized private school in Pune speaks of piloting an AI awareness module in middle school: “We start with asking students where they see AI YouTube recommendations, maps, filters and then discuss ethics and bias through stories. We don’t rush into coding AI models; we focus first on mindset.” He admits, however, that this pilot was possible only because interested parents agreed to higher fees, and because the school could allocate time outside the mandated board syllabus.
These two voices reveal the emerging fault line: leadership vision matters, but without system-wide alignment of assessments, budgets, and teacher development, AI readiness will remain uneven.
2. Teachers: from subjects to design
Many teachers I spoke to are quietly reimagining their role from content deliverers to learning designers even when their official job description has not caught up.
A math teacher in a semi-urban government secondary school in Maharashtra describes an experiment that began during the pandemic: “When we were forced into WhatsApp teaching, I realised my students were very good at finding videos, sharing memes, and teaching each other things I had not explained. After schools reopened, I started giving them small ‘design tasks’ like creating a two‑minute audio explaining a concept, or finding three different ways a concept is used in daily life. Suddenly the classroom energy changed.”
She now dreams of integrating basic coding into these tasks using block-based tools to simulate interest growth, population changes, or simple patterns but laments the lack of structured curriculum support and dedicated time.
Technology-focused research under NEP 2020 underscores her insight: genuine digital literacy is less about separate computer periods and more about weaving digital tools into subject pedagogy, enabling students to explore, simulate, create, and reflect. This requires teachers to adopt design principles, choice, iteration, feedback, authenticity in daily lesson planning, not just in “special projects”.
3. Students: intuitive users, uneven creators
Students themselves are, unsurprisingly, the most enthusiastic about digital, coding, and AI-related experiences. ASER 2024 reports that around 89% of 14–16‑year‑olds have access to smartphones, 87% can find videos online, and over 92% can share them, indicating strong informal digital participation.
Yet this comfort does not automatically translate into deep digital literacy:
Many students report copying information blindly from the first search result.
Few are aware of concepts like algorithmic bias, data privacy, or the permanence of digital footprints.
Only a small proportion have tried to build anything: an app, a simple program, or a dataset-literate project despite intense curiosity.
One Class 9 student I spoke to in Bengaluru put it poignantly: “We are using AI to finish homework faster. But no one in school is really talking about what AI is doing to us.”
Where schools do provide structured experiences like student-led digital projects, coding clubs, or interdisciplinary AI problem-solving students describe feeling “seen” and “excited”, especially those who otherwise struggle in traditional academic tracks.
Case glimpses: islands of tomorrow
Across India, some schools are already living the future many policy documents envision. While I avoid naming specific brands, we can examine patterns emerging from different categories of institutions.
1. A government school embracing design and digital
In a district in southern India, a government upper primary school that was selected as a PM SHRI exemplar chose to “start small, but deep” rather than chasing every shiny technology.
Working with district resource persons and state-supported digital platforms, teachers co‑designed a theme-based unit for Class 7 around “Water in Our Lives”:
Science lessons used basic simulation tools on shared tablets to model evaporation and rainfall.
Math lessons used spreadsheets to track household water usage, introducing formulas and charts.
Social science lessons involved students interviewing elders about past water sources, audio-recording stories, and geotagging local wells using simple mobile apps.
Language lessons focused on scripting and recording audio stories, which were then shared via class messaging groups for peer feedback.
The school had limited hardware: one projector, a few tablets rotated between classes but by following design principles of authenticity, student choice, iterative creation, and public sharing, they turned digital literacy from a discrete subject into an integrated experience. Teachers reported that students who usually stayed silent in class became animated when given roles such as “audio editor” or “data organiser”.
This case illustrates that even in resource-constrained settings, design-led integration of digital tools can make learning more engaging and meaningful.
2. A network of schools piloting AI literacy
A cluster of schools in western India participated in a structured AI curriculum pilot aligned with national skill subjects and state initiatives. Under this pilot:
Class 5–8 students explored AI through storytelling: identifying AI in everyday life, discussing scenarios where AI decisions could be unfair, and role‑playing as “AI ethics councils”.
Class 9–10 students used no‑code platforms to build simple AI prototypes, such as image classifiers for local plants or sentiment analysis of school feedback.
Teachers received ongoing mentoring, not just one‑time workshops, and co‑created projects connected to local issues like traffic safety, waste management, and health awareness.
Evaluation data from such pilots show high engagement from students, increased teacher confidence in facilitating discussion-based and project-based learning, and growing awareness about ethical and societal dimensions of AI among adolescents.
However, these pilots also reveal challenges:
Scaling beyond motivated clusters requires systemic timetable adjustments, assessment reforms, and robust teacher professional development.
Without careful design, AI projects can become superficial demonstrations rather than opportunities for critical thinking and problem solving.
The lesson is clear: introducing AI is not just about new content but about embracing new pedagogies and design principles.
Designing for joy, not just jobs
At its core, curriculum reform is not only an economic project but a human one. The question is not merely “What skills will get our children jobs?” but “What kind of learning experiences will help them live fully, think deeply, and contribute meaningfully in an AI-shaped world?”
Design principles can act as bridges between yesterday’s curriculum structures and tomorrow’s learning needs.
1. Story as the spine
Children understand the world through stories long before they encounter syllabi. The most powerful digital, coding, and AI curricula use storytelling as a spine, not a garnish.
Imagine:
Introducing data literacy through the story of a village trying to understand why its crops are failing, requiring students to gather, visualise, and interpret rainfall and soil data.
Exploring AI ethics through narratives in which algorithms “make decisions” about scholarships or loans, and students must debate whether these decisions are fair.
Teaching loops and conditionals not through abstract syntax but via interactive stories where characters repeat actions until goals are achieved or conditions change.
Research on AI curriculum pilots emphasises storytelling, real-life connections, and adaptive engagement as central pillars that increase student motivation and deepen understanding. NEP‑aligned textbooks under development also highlight interdisciplinary and context-rich content, which can be a canvas for such narrative approaches.
2. Choice and co‑creation
When students are given genuine choices, topics, formats, tools their engagement transforms. Instead of assigning identical projects, teachers can design choice menus:
Option A: Create a short video explaining a concept using a mobile phone.
Option B: Build a simple interactive quiz using a block-based tool.
Option C: Write a story or comic that embeds the concept in a relatable scenario.
The same applies to AI readiness:
Some students might choose to explore AI in sports analytics.
Others might be drawn to AI in music or art.
Still others might focus on AI and social justice.
Designing such choice frameworks does not require fancy infrastructure; it requires a mindset that sees students as partners in learning, not passive recipients.
3. Projects anchored in real life
The most memorable learning experiences are those that matter beyond the exam hall. When digital tools, coding, and AI are tied to local problems, they begin to feel necessary rather than ornamental.
Examples include:
A waste management project where students map garbage hotspots, use basic data visualisation, and recommend patterns-based solutions to local authorities.
A health-awareness campaign where students create multilingual infographics and audio clips, distribute them via messaging apps, and measure reach.
A school climate audit where students use online tools to calculate their carbon footprint and propose actionable steps.
Such projects not only build digital and computational skills but also cultivate empathy, civic engagement, and a sense of agency qualities that no AI can easily automate.
Cost–benefit: can we afford this shift?
One of the most frequent objections to integrating digital literacy, coding, and AI is cost of devices, connectivity, teacher training, and curriculum redesign. Yet when we look at the broader picture, the cost of not reforming may be far higher.
1. Direct costs and strategic investments
Government schemes such as Samagra Shiksha and PM SHRI already allocate funds for ICT labs, smart classrooms, Atal Tinkering Labs, and skill labs. The Year End Review lists over 1.38 lakh schools covered under ICT and digital initiatives and thousands of schools strengthened or upgraded. Extensions of DIKSHA and SWAYAM, and creation of digital repositories and virtual labs, are system-level investments whose marginal cost per learner decreases as usage scales.
What often remains underfunded is:
Ongoing teacher mentoring and collaborative planning time.
Maintenance of ICT infrastructure and connectivity.
Localised content creation in regional languages.
Accessibility tools for learners with disabilities.
However, these are precisely the investments that unlock the full value of existing hardware and platforms. Directed strategically, even modest reallocations say, from pure hardware purchase to teacher coaching can dramatically improve learning returns.
2. Opportunity costs of curriculum lag
The economic cost of a workforce under-prepared for digital and AI-intensive jobs is difficult to quantify precisely, but signals are visible:
Surveys of employers frequently mention gaps in problem solving, digital fluency, and adaptability among school and college graduates.
Learning poverty children unable to read and understand a simple text by age 10 limits later ability to acquire advanced skills, including coding and AI literacy.
Without interventions, the digital divide and gender gaps risk translating into entrenched income and opportunity gaps in adulthood.
Viewed against these risks, the benefits of aligning school curricula with 21st‑century skills extend beyond individual employability to national competitiveness and social cohesion.
3. Intangible but critical returns
Design-rich, engaging learning environments yield benefits that are harder to measure but deeply consequential:
Reduced dropout rates as students find school more relevant and enjoyable.
Improved mental wellbeing when students feel capable of navigating digital spaces safely and creatively.
Increased parental and community trust in public education systems when schools visibly prepare children for contemporary realities.
In numerous case studies, schools that invested in interdisciplinary, project-based, and technology-integrated learning report higher attendance, better student–teacher relationships, and more collaborative staff culture even when exam scores were not the initial focus.
What different stakeholders can do next
Because this article sits in a series, I see it as a bridge: connecting earlier reflections on joyful, design-led learning with a sharper focus on digital, coding, and AI readiness. Each stakeholder in this ecosystem has both agency and responsibility.
For school leaders and administrators
Audit the present, not the brochure. Instead of counting devices, ask: How many students regularly create with technology in meaningful ways? How many teachers feel confident integrating digital tools into their subject?
Reclaim timetable space. Protect slots for project-based, interdisciplinary work that blends digital, coding, and AI-related exploration with existing subjects.
Invest in teacher design capacity. Encourage peer-led lesson design workshops where teachers co-create units that embed digital literacy and AI awareness into core topics.
For teachers and educational leaders
Start where you are, with what you have. Even a single smartphone and a blackboard can become a platform for students to search, critique, and present information more thoughtfully.
Use design principles consciously. Build choice, storytelling, visible thinking, and reflection into daily lessons. Let students document their learning journeys using audio, images, or simple digital portfolios.
Normalise conversations about AI. When using any digital tool search engines, translation apps, grammar checkers ask aloud: “What is the machine doing here? Where could it go wrong? Who is responsible?”
For policymakers and government officials
Clarify minimum entitlements. Articulate a baseline of digital, coding, and AI readiness that every child in India should experience by key grades, and align funding, training, and assessments accordingly.
Target inequities directly. Design schemes that specifically close device and connectivity gaps for girls, rural learners, and students with disabilities, building on Digital India and NEP technologies.
Align exams with skills. Allow boards to gradually weight project work, digital artefacts, and interdisciplinary tasks in assessment frameworks, so that schools feel justified in investing time away from rote test prep.
For parents and education advocates
Shift conversations beyond marks. Ask schools not just about board results but about how they cultivate digital citizenship, ethical AI awareness, and creative problem solving.
Model mindful technology use. At home, involve children in discussions about privacy, screen time, and the “why” behind using AI tools, not only the “how”.
For researchers and practitioners
Document what works. We need more rigorous, context-rich research on Indian schools that have successfully embedded design-rich digital and AI curricula particularly in government and low-fee settings.
Co‑create with teachers. Avoid “parachute” interventions; instead, work in long-term partnership with schools, building capacity that remains after projects end.
Closing reflection: from lag to leap
The story of India’s curriculum lag is not a story of failure but of friction. The system is in motion: NEP 2020 has set a new compass, digital platforms are scaling, and early AI and coding initiatives are taking root. But the pace at which yesterday’s habits are being shed is slower than the pace at which tomorrow’s jobs are emerging.
As I look back across this series, a thread runs through every piece: when we design learning around curiosity, agency, and authentic problems, children come alive whether they are holding a pencil, a tablet, or a microcontroller. The joy of learning is not the opposite of rigour; it is its precondition.
The question before us is simple, and urgent: Will we confine that joy to a few privileged islands of innovation, or will we rewire our curricula so that every child in every classroom in India learns to read the world, write code, converse with AI, and, above all, design a future they want to live in?
The tools, policies, and examples exist. What we choose to do with them, how bravely we redesign, and how equitably we implement it will decide whether today’s curriculum lag becomes tomorrow’s lost opportunity or tomorrow’s greatest leap.