Inquiry-Based Learning in Science and Social Sciences: How Redbricks Fosters Critical Thinking and Curiosity
Most of us were taught through a fairly predictable cycle: the teacher explained a concept, we listened, we practised what we were told, and we reproduced it in a test. The information moved in one direction from the teacher to the student and success was measured by how accurately the student could recall what had been delivered.
This model is familiar, and it is not without its merits. But it has a significant limitation: it teaches children what to think, not how to think. It builds the ability to remember, but not necessarily the ability to question, investigate, reason, or apply knowledge in unfamiliar situations skills that matter enormously in a world where the problems worth solving rarely come with a textbook answer.
Inquiry-based learning represents a shift toward more student-centred learning an approach that places the child’s curiosity, questions, and investigations at the heart of the learning process. In the sciences and social sciences especially, where understanding the world requires observation, evidence, and critical thought, this shift makes a profound difference. Here is what inquiry-based learning means in practice, and how it shapes the way children learn at Redbricks.
What inquiry-based learning actually is
At its core, inquiry-based learning begins not with the teacher delivering content, but with a question often the student’s own. The child wonders about something, observes something that does not quite make sense, or is presented with a problem that does not have an obvious answer. From that point of curiosity, they are guided through a process: forming a question, making predictions, planning how to investigate, gathering and recording evidence, analysing what they find, and connecting it to what they already know.
This is not unstructured discovery. The teacher plays a critical role designing the environment, choosing the provocations, asking the right questions at the right moments, and ensuring that the inquiry leads to genuine conceptual understanding. But the direction of learning shifts. Instead of absorbing information passively, the child is actively constructing knowledge observing, testing, reasoning, and making meaning for themselves. It is experiential learning in the truest sense: children learn by doing, not just by being told.
The result is understanding that goes deeper and lasts longer, because the child has arrived at it through their own thinking rather than through memorisation.
Why it matters especially in science and social sciences
The sciences and social sciences are, by nature, disciplines of inquiry. Science is built on observation, hypothesis, experimentation, and evidence. The social sciences history, geography, civics, environmental studies are built on asking questions about how societies function, how environments shape human life, and how the past informs the present. When these subjects are taught through lecture and memorisation alone, something essential is lost: the very mode of thinking that defines them.
Inquiry-based learning restores that mode of thinking. It develops scientific thinking skills the ability to observe carefully, form testable questions, gather and interpret evidence, and revise one’s understanding in light of new information. These are not abstract competencies. They are the practical tools of clear thinking, and they serve children well in every domain of life, not just in a science classroom.
There is also a motivational dimension. Children who learn through inquiry tend to be more engaged, more curious, and more willing to persist through difficulty because they experience learning as something they do, not something that is done to them. When a child designs an experiment or investigates a real community issue, the learning has a purpose and an energy that no worksheet can replicate.
What it looks like in a science classroom
In a science classroom at Redbricks, learning begins with direct encounter with materials, living things, and phenomena rather than with a textbook definition. The approach is rooted in the belief that children develop scientific thinking skills most effectively when they are given the opportunity to behave like scientists: to observe, question, hypothesise, test, and draw conclusions from their own experience.
In a primary classroom, this might look like Class 1 students closely observing the shapes and forms of leaves in their natural environment and making representational drawings learning not from a textbook diagram but from the living thing itself.
At Redbricks, every decision curriculum or policy is made with children’s developmental needs at the centre. When we design timetables, plan transitions between grades, set behaviour expectations, or decide how feedback reaches families, we ask: does this serve the child’s development and well-being? When those decisions conflict with outside demands, we stand by what is right for the children.
By Class 4, the same broad theme deepens: students conduct critical inquiry into why leaves are shaped differently in different environments, investigating how form connects to function and how plants adapt to survive. The conceptual demand grows with the child, but the inquiry stance observe, question, investigate, understand remains constant.
In each case, the child is doing the thinking. The teacher has designed the conditions for that thinking to happen, but the cognitive work belongs to the student.
What it looks like in social sciences
In the social sciences, inquiry takes children beyond the classroom walls and into the world they are trying to understand. Real-world learning in social sciences is not an occasional field trip it is a consistent approach to making the subject come alive through direct experience, investigation, and engagement with the community.
Class 4 students visit local heritage monuments and study their architecture, design, and cultural significance learning history not as a set of dates to memorise, but as a living story embedded in the places around them.
Class 6 students assess and compare the impact of floods and droughts across India and globally, learning to think about environmental challenges at multiple scales and to connect geography with human consequences.
Class 5 students conduct fieldwork and interact with media professionals to understand how mass communication works learning about institutions not from a textbook description, but from the people who work within them.
At the senior school level, students engage in mock Lok Sabha assemblies to understand the legislative process, debating the procedure for introducing and passing a bill. They participate in Model United Nations to grapple with global issues. In both cases, students are not memorising how democratic and international systems function they are enacting them, developing a felt understanding of processes that would otherwise remain abstract.
Connecting knowledge across subjects
One of the distinctive features of inquiry-based learning at Redbricks is the deliberate effort to build connections across disciplines. The real world does not divide itself into subject silos, and neither should a child’s understanding of it.
When students studying the skeletal and respiratory systems create mathematical word problems based on what they have learned, they are not just practising maths they are building the habit of seeing knowledge as interconnected. When students read literature about how stress affects the nervous system as part of a broader unit on body systems, they are developing an interdisciplinary mindset that mirrors how knowledge actually works outside the classroom. These connections are not accidental. They are designed into the curriculum through thematic and project-based learning structures, so that children learn to think across boundaries rather than within them.
What this means for parents
Parents sometimes worry that modern learning approaches in education inquiry, projects, experiential methods are slow, or that children are not covering enough content. These concerns are understandable, especially in an education culture that often equates speed and volume with quality. But research consistently shows that depth of understanding predicts long-term academic success far better than breadth of coverage. A child who truly understands a concept who can explain it, apply it, connect it to other ideas, and use it in unfamiliar situations is better prepared than one who has been exposed to more topics but understood fewer of them.
Inquiry-based learning also develops something that is harder to measure but equally important: a child’s relationship with learning itself. Children who grow up asking questions, testing ideas, and making meaning for themselves tend to become students and eventually adults who are intellectually curious, resourceful, and confident in their ability to figure things out. That disposition may be the most valuable thing a school can cultivate.
The question worth asking about any school’s approach to teaching is not simply what children are being taught, but how they are being asked to think. Student-centred, inquiry-based learning is one answer to that question grounded in evidence, tested in practice, and designed to prepare children not just for the next examination, but for a lifetime of learning.