Most of us grew up in classrooms where the teacher spoke and students listened. This model is widely familiar to us. However, this is not the only way learning happens. In 1999, educational researcher Dr Sugata Mitra ran an experiment challenging this traditional approach. He installed a computer in a wall bordering a New Delhi slum, connected it to the internet, and walked away. Within weeks, children with no formal training had taught themselves to use it and were teaching each other. Mitra called this ‘Minimally Invasive Education’ (MIE): a model where learning is driven by curiosity rather than instruction. It is a form of learning in which children operate in largely unsupervised environments, driven by access to technology, curiosity and peer collaboration, with little to no formal instruction. Sugata Mitra is now a world-recognised educational futurist and learning scientist, best known for his “Hole in the Wall” experiment. His project led to the development of the theory of minimally invasive education and the model of self-organised learning environments.
The terminology has been borrowed from the concept of minimally invasive surgery, the idea being that just as a surgeon intervenes as little as possible to achieve a result, education too can work with the least possible disruption to the learner’s natural process of discovery. Critically, MIE does not argue that teachers are unnecessary. Rather, it proposes a reimagined role for educators, one where the teacher acts as a facilitator, rather than a primary source of all information. Sugata Mitra fundamentally challenged assumptions about how children learn through a deceptively simple experiment. Children who had never seen computers before taught themselves to use them, browse the internet and learn complex content through collaborative discovery. The project showed that within hours, children discovered the computer and began experimenting. Within days, they had taught themselves to navigate the interface, access the internet and search for information. Within months, they had developed sophisticated usage patterns, including downloading and playing games, creating documents and teaching younger children what they had learned. The speed and depth of self-organised learning stunned Mitra and challenged fundamental assumptions about the necessity of formal instruction for computer literacy. Several important points emerged from this research. Children aged six to thirteen taught themselves computer basics within days without adult instruction, learning entirely peer-to-peer. The experiment was replicated in rural villages with similar results, and the findings attracted global attention.
Subsequent ‘Hole in the Wall’ installations across India produced consistent findings. Children in rural villages with no prior computer exposure taught themselves not just basic computer operation but also complex skills, including browsing, emailing, playing advanced games and even rudimentary programming. The collaborative nature of learning emerged as a key factor, with children working in groups, teaching each other and solving problems collectively rather than individually. Mitra extended the experiments to test whether children could learn academic content through self-organisation. He placed computers with access to educational materials in locations without schools or teachers, posing big questions to motivate exploration. Children taught themselves biological concepts, physics principles and even biotechnology fundamentals by searching, reading, watching videos and discussing findings with peers. The quality of learning, measured through standardised tests, often exceeded that of children receiving traditional instruction.
Two factors emerged as essential for successful self-organised learning. Curiosity provided motivation, with children driven to explore when presented with intriguing questions or access to novel resources. Collaboration enabled knowledge construction, with groups solving problems that individuals could not, teaching each other and developing shared understanding through discussion and experimentation. These findings suggested that schools might achieve better outcomes by cultivating curiosity and facilitating collaboration rather than primarily transmitting information through lectures. We know curiosity is a key driver of motivation in learning, enhancing engagement, memory and the desire to acquire knowledge. It is a mental state characterised by a desire to acquire specific information, often triggered by perceiving a gap between what one knows and what one wants to know.
Mitra formalised his findings into Self-Organised Learning Environments (SOLE), a pedagogical approach where children work in small groups with internet access to investigate big questions. The teacher’s role transforms from information transmitter to question poser and learning facilitator. Children receive broad questions requiring synthesis across multiple sources, encouraging deep investigation rather than searching for single correct answers.
Mitra argues that traditional teacher-directed instruction is unnecessary for many learning goals, particularly when children have internet access and peer collaboration. However, minimally invasive education does not mean that teachers should disappear from teaching and learning environments. It means their role should change. This does not mean the teacher is irrelevant; rather, the teacher must work differently, with restraint, observation and strategic support rather than constant direction. Traditional classrooms, designed for a different era, often suppress students’ curiosity. To avoid this, efforts must be made to nurture curiosity in any educational setting, whether in the classroom or outside it. Therefore, teachers should first be motivated to ensure such an environment for learners.
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The writer is President, English Teachers’ Association of Bangladesh (ETAB). He can be reached at [email protected]