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Science & Technology15 Oct 2026 · about 6 min

How can students succeed in an AI world? Intel, Sri Chaitanya leaders weigh in

The brief

Success in an AI-driven world will require a broader education model. Students need technology woven into ordinary lessons, not confined to a computer laboratory. They also need resilience, engagement, accountability, creative problem-solving, and entrepreneurial confidence. These qualities matter because AI can increasingly handle routine work, while people must adapt, create, and make decisions. AI can make learning more personal and supportive. Lessons could connect difficult subjects with a student’s interests, preferred pace, or native language. Digital mentors such as Sri Chaitanya’s AINA can offer friendly, non-judgemental feedback. Teachers still matter, especially for empathetic guidance and recognising strengths before weaknesses. The challenge is enormous. India has about 247 million primary and secondary students, while compute penetration is less than 10%, compared with 95% in the US and 75% in China. Expanding access to devices and computing power, alongside better teaching methods, could help prepare young Indians for future livelihoods.

01

What did Intel and Sri Chaitanya leaders say students need to succeed in an AI-driven world?

Success in an AI-driven world will require a broader education model. Students need technology woven into ordinary lessons, not confined to a computer laboratory. They also need resilience, engagement, accountability, creative problem-solving, and entrepreneurial confidence. These qualities matter because AI can increasingly handle routine work, while people must adapt, create, and make decisions.

AI can make learning more personal and supportive. Lessons could connect difficult subjects with a student’s interests, preferred pace, or native language. Digital mentors such as Sri Chaitanya’s AINA can offer friendly, non-judgemental feedback. Teachers still matter, especially for empathetic guidance and recognising strengths before weaknesses.

The challenge is enormous. India has about 247 million primary and secondary students, while compute penetration is less than 10%, compared with 95% in the US and 75% in China. Expanding access to devices and computing power, alongside better teaching methods, could help prepare young Indians for future livelihoods.

02

What is AI-powered personalised learning, and how could it adapt lessons to a student’s interests, pace, or language?

AI-powered personalised learning means tailoring instruction to each student instead of giving everyone the same lesson. It can respond to a learner’s interests, pace, and native language. This matters because abundant online content does not automatically hold attention. Personalised lessons may make difficult ideas feel more relevant and easier to follow.

The article gives a striking example: a student who likes cricket could have the option to learn quantum mechanics through cricket. AI can shape explanations, examples, and perhaps the sequence of learning around that preference. It can also help students move faster through familiar material or spend more time on difficult concepts.

This approach could make learning more engaging, but it works best alongside human support. Digital mentors can provide friendly, non-judgemental feedback, while teachers offer empathy and guidance. The wider goal is to embed technology naturally into instruction, rather than treat it as a separate school activity.

03

How large is the challenge, with about 247 million Indian primary and secondary students needing education for the future?

India’s education challenge is vast because about 247 million children are in primary and secondary education. Preparing this population for an AI-driven future requires more than adding digital content. Schools must update teaching methods, develop personal qualities, and provide fair access to technology. The size of the student population makes structural change especially urgent.

The leaders described a system still rooted largely in nineteenth-century methods, even though society has moved from the information age into the intelligence era. Students need technology integrated into ordinary learning. They also need resilience, engagement, accountability, and creative problem-solving, because future success will not be measured only by academic scores.

The pressure will continue as young Indians enter the workforce. Santhosh Viswanathan referred to 250 million children coming forward in the next five years and asking about their livelihoods. Better AI mentorship, teacher training, and hardware access could help turn this large youth population into a source of creative innovation.

04

How could digital mentors such as Sri Chaitanya’s AINA change the way students receive feedback and support?

Digital mentors such as Sri Chaitanya’s AINA can change feedback from a one-time judgement into ongoing support. A student can receive guidance while learning, rather than waiting for a formal test or teacher review. This matters because harsh or poorly timed feedback can cause demotivation or offence, especially when a learner is struggling.

AINA is described as delivering friendly, non-judgemental feedback. That means it can guide children without making mistakes feel like personal failures. Combined with AI’s ability to personalise lessons, a digital mentor could respond to a student’s pace, interests, and language. It could help explain a concept again or encourage the learner to continue.

AINA would not replace the human role in education. Teachers still need to provide empathetic guidance and recognise student strengths. Parents and educators must also treat setbacks as learning opportunities. Together, supportive digital feedback and human mentorship could build resilience while keeping students engaged.

05

Why might resilience, engagement, accountability, and creative problem-solving become more important as AI handles routine tasks?

Resilience, engagement, accountability, and creative problem-solving become more important when automated tools handle routine tasks. Test scores may no longer be the only useful signal of readiness. Students will need to adapt, stay involved, take responsibility, and develop original responses to unfamiliar problems. These qualities support learning and work beyond standard examinations.

The article connects resilience directly with failure. Boppana argues that setbacks help children become resilient, while success alone does not. Parents and educators should therefore avoid fearing every failure or projecting their own unfulfilled ambitions onto children. Teachers are also being encouraged to highlight strengths before discussing areas for improvement.

This shift changes the purpose of education. Students may aspire less only to traditional jobs and more to creative problem-solving and entrepreneurship. AI can provide personalised instruction and routine support, but human qualities will shape how learners use those tools. Building these qualities could help young people manage changing livelihoods with confidence.

06

Why is teaching computer skills as a separate school subject less useful when technology and work are becoming inseparable?

Treating computer skills as a separate laboratory subject is less useful because technology now supports nearly every kind of work. Students do not simply study computers and then return to ordinary tasks. They use digital tools while researching, solving problems, communicating, and creating. Education should reflect that combined reality.

Santhosh Viswanathan described the central shift plainly: in the real world, people do not have separate work time and technology time. Tech and work are merged. Schools could apply this principle by embedding digital tools in everyday instruction rather than presenting them as an auxiliary feature. Lessons would use technology as part of the task itself.

The change also includes adapting teaching methods to modern digital habits. Viswanathan said learning tools may need to respond to a “30-second Instagram Reel mindset.” This does not mean reducing every subject to short clips. It means making instruction more responsive and engaging while still developing deeper understanding and creative problem-solving.

07

What is computing capacity, and why does unequal access to devices and powerful computers threaten educational opportunity, especially for rural students?

Computing capacity means access to the devices and powerful computers needed to create and use digital tools. It matters because AI-supported learning cannot reach students who lack suitable hardware or reliable computing access. Content alone is not enough. Without the infrastructure to run tools, students cannot fully benefit from personalised lessons, digital mentors, or technology-rich instruction.

The article highlights a major gap. Compute penetration is less than 10% in India, compared with 95% in the US and 75% in China. This difference shows that access to computing is uneven between countries and likely within India. Students with limited access may have fewer chances to practise modern digital skills.

The consequences could be especially serious for ambitious rural students. A hardware shortage may cause them to lose learning opportunities early. Closing the gap requires richer compute creation and usage across the country. Combined with empathetic mentorship, wider access could make AI education more equitable.

This brief was written by AI from the original reporting and checked by other models. Names, figures and quotes come from the source; read it for full context.

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