Dr. Dushyant Pradeep
On 28 February 1928, in a modest laboratory in Kolkata, C. V. Raman observed a faint but decisive change in the colour of scattered light, a phenomenon that would be celebrated as the Raman Effect and earn India its first science Nobel in Physics. Nearly a century later, Indian students are tinkering with robots, coding artificial intelligence models, and analyzing climate data on laptops and supercomputers. The journey from Raman’s spectroscope to today’s robotics labs tells a powerful story: when a nation nurtures scientific curiosity, it gradually acquires the capacity to create, not merely consume, technology. National Science Day 2026, with its theme “Women in Science: Catalyzing Viksit Bharat,” offers a timely opportunity to ask what it truly means to guide our students “from curiosity to creation”. The question is not only about celebrating past achievements; it is about consciously designing an education ecosystem where every child in India can experience science as a living, creative, nation‑building force.
Raman’s Legacy|Scientific Temper As National Ethos:
Raman’s discovery was not an accident of luck but the outcome of a particular mindset: intense curiosity, careful observation, and a belief that world‑class research could be done in India with limited resources. His work at the Indian Association for the Cultivation of Science and later at the Indian Institute of Science and the Raman Research Institute helped establish a culture of rigorous experimentation and independent thinking. It is this culture-rather than any single device or formula—that remains most relevant to our classrooms today.
National Science Day, instituted after a proposal by the National Council for Science and Technology Communication in 1986, was envisioned as a way to celebrate Raman’s discovery and to “encourage scientific thinking and awareness among the Indian population”. In schools and colleges, this spirit translates into helping students ask better questions, test ideas systematically, and connect scientific concepts to the challenges they see around them.
India’s New Scientific Landscape: India’s scientific landscape in 2026 looks very different from Raman’s time, yet it rests on the same foundation of curiosity and perseverance. In recent years, the country has achieved notable milestones-from deep‑space missions and high‑precision satellite technology to indigenous quantum processors, advanced supercomputing and generative AI models tailored to Indian languages. Initiatives under the National Supercomputing Mission have created tens of petaflops of computing capacity for climate modelling, drug discovery and materials research, while new AI platforms are being developed for agriculture, healthcare, and public services. These achievements send a powerful signal to students: Indian science is not confined to textbooks; it is actively shaping satellites, medicines, chips, and climate models. The question for education is how to translate this macro‑level progress into micro‑level inspiration that reaches every classroom.
From Rote Recall To Creative Exploration: For many learners, science still appears as a dense list of facts, definitions, and derivations to be memorized for examinations. Yet the demands of a Viksit Bharat by 2047 call for something more: young people who can observe patterns, frame problems clearly, test hypotheses, and build workable solutions in domains as diverse as energy, health, mobility, food systems, and digital governance. National Science Day celebrations offer a natural platform to shift the emphasis from rote recall to creative exploration. When schools organize exhibitions, innovation challenges, tinkering festivals and hackathons, students experience science as “doing” rather than merely “knowing”. Models of climate‑resilient crops, low‑cost water filters, simple robots, and AI‑driven chatbots for local languages can become entry points into deeper study of physics, chemistry, biology and computer science.
Robotics, AI As New Playgrounds For Curiosity: Robotics and AI are particularly powerful playgrounds for student curiosity. A simple line‑following robot or sensor‑based device allows children to see immediate cause‑and‑effect relationships between code, circuitry and real‑world movement. AI experiments-such as training a basic image classifier, creating a recommendation engine for books, or building a chatbot that answers questions on the Raman Effect-show how data, algorithms and human choices interact to produce intelligent behaviour. India’s growing ecosystem of Atal Tinkering Labs, school innovation hubs, and university‑led outreach programmes is already offering many students their first hands‑on exposure to such technologies. When guided thoughtfully, these experiences do more than teach robotics or AI; they build persistence, teamwork, systematic thinking, and the confidence to tackle open‑ended problems. In other words, they operationalize the movement “from curiosity to creation”.
Women In Science| Catalyzing Viksit Bharat: The theme for National Science Day 2026-“Women in Science: Catalyzing Viksit Bharat”-adds an essential dimension to this conversation. India has seen a steady rise in the participation and leadership of women in science, technology, engineering and mathematics, from ISRO’s mission teams to biotechnology labs, climate research groups and supercomputing centres. Schemes such as WISE (Women in Science and Engineering) and targeted fellowships have enabled hundreds of women scientists to pursue advanced research and leadership roles. Highlighting these journeys in classrooms is crucial. When girls encounter role models who look like them-engineers, physicists, biotechnologists, roboticists-they can more easily see science as a space where their aspirations belong. Celebrating women’s contributions on National Science Day can include inviting local women scientists and engineers to interact with students, curating exhibitions on Indian women pioneers in STEM, and organizing mentorship circles that connect schoolgirls with women researchers and innovators. This is not only a matter of representation but of national capacity. A Viksit Bharat that fully taps the scientific talents of half its population will be richer in ideas, perspectives, and solutions.
Linking School Science To National Missions: One powerful way to guide students from curiosity to creation is to connect school‑level projects with national science and technology missions. India’s priorities-from clean energy and green hydrogen to space exploration, quantum technologies, digital public infrastructure, and precision health—offer rich contexts for age‑appropriate inquiry. For example, a middle‑school project on solar cookers can be situated within the country’s broader renewable energy goals. A high‑school robotics challenge can be themed around assistive technologies for elderly care or disaster response, echoing the humanitarian applications of science. Simple data‑driven projects on local rainfall, air quality, or crop patterns can be linked to national efforts in climate modelling and sustainable agriculture, supported by India’s expanding supercomputing infrastructure. When students see their experiments as part of a wider national narrative, science becomes both personally meaningful and socially relevant.
“National Science Day honors the journey from C.V. Raman’s 1928 discovery to modern robotics. It emphasizes that nurturing curiosity and creativity leads to inclusive innovation, which serves as a vital foundation for India’s technological and social development.”
Cities, Villages And The Pluralism Of Scientific Creativity: India’s scientific creativity is not confined to big laboratories or metropolitan campuses. Rural innovators, grassroots engineers and community problem‑solvers have long found low‑cost, context‑specific solutions to everyday challenges. National Science Day can be an occasion to recognize and learn from this pluralism. Schools can invite local innovators-farmers who have modified equipment, artisans who have repurposed materials, health workers who have devised simple diagnostic tools-to share their stories. Students can document these practices, analyze the scientific principles behind them, and suggest improvements, thus learning that “doing science” is not limited to those with formal degrees. This bridges the gap between textbook science and lived experience, and encourages respect for different ways of knowing and solving problems.
Building Ecosystems Of Support|Teachers, Labs, Platforms: For students to move from curiosity to creation, they need ecosystems of support. Teachers are at the heart of this ecosystem. Across the country, many educators are already experimenting with inquiry‑based science, project‑centered learning, and integration of digital tools, often with limited resources. National and state‑level training programmes on AI, robotics and innovative pedagogy can amplify their efforts, allowing good practices to diffuse across regions. Infrastructure, too, matters. Well‑designed laboratories, tinkering spaces and digital platforms increase the range of experiences students can access. Online repositories of experiments, virtual labs and open‑source tools allow schools without sophisticated physical labs to still participate in hands‑on science. When combined with community engagement and mentorship networks, these resources can turn National Science Day from a one‑day event into a sustained culture of scientific exploration.
Celebrating Science As A Way Of Thinking: At its core, Raman’s work and today’s robotics projects are united by a common thread: the scientific way of thinking. This way of thinking values evidence over superstition, questions over blind acceptance, and testable explanations over vague assertions. It is as relevant to public health and environmental decisions as it is to designing a rover or a quantum chip. National Science Day is an invitation to nurture this mindset in students. Classroom discussions around how Raman designed his experiments, how space missions are planned, or how vaccines are developed can help young people appreciate the rigour and humility that science demands. Encouraging students to say “I don’t know, but I can find out” is perhaps the most powerful shift we can make.
From Curiosity To Creation, From Classroom To Nation: As India looks towards 2047 and the vision of Viksit Bharat, the role of science education becomes even more central. The children who walk into school on National Science Day 2026 will be adults shaping policy, designing technologies and leading institutions at the centenary of Independence. Their capacity to move from curiosity to creation will influence not only their personal futures but the trajectory of the nation. From Raman’s painstaking observations in 1928 to today’s student‑built robots and AI projects, the message is clear: when curiosity is nurtured, creativity follows; when creativity is supported, innovation emerges; and when innovation is guided by inclusion and public purpose, it becomes a pillar of national development. National Science Day, celebrated in this spirit, can be more than a commemoration; it can be a yearly milestone on India’s journey towards a scientifically enlightened, technologically confident, and socially compassionate future.
(The author is a professional Physics Educator and academic content creator. The views, opinions and conclusions expressed in this article are those of the author and aren’t necessarily in accord with the views of “Kashmir Horizon”)
