By | Education | 04-Mar-2026 11:46:44
As global technology races ahead, India is quietly transforming the way it
shapes its engineers. The focus is shifting from short-term employability to
cultivating deep-tech capabilities that can fuel long-term innovation and
bolster strategic autonomy.
The nation’s higher education ecosystem is
undergoing a significant recalibration, with artificial intelligence, robotics,
quantum computing, and other frontier technologies taking centre stage.
Engineering education, traditionally anchored in domain-specific training, is
being re-imagined to meet evolving national and global technology priorities.
With technological prowess increasingly tied to
economic competitiveness and strategic independence, universities are being encouraged
to foster systems thinking, interdisciplinary research, and long-horizon
problem-solving—particularly in deep-tech domains with high national impact.
The era of engineers defined solely by coding skills or narrow specialization
is giving way to a new breed of holistic, research-driven technologists.
Institutions are reassessing academic
structures to prioritize long-term research capability over immediate industry
readiness. A leading example is the Sajjan
Agarwal School of Technology at Rishihood University, established as
an endowed deep-tech academic unit with a ₹100 crore philanthropic contribution
from Sajjan Agarwal, Chairman and CEO of GreenHawk Corporation.
The initiative signals a shift toward
research-oriented, cross-domain learning that integrates AI, robotics,
cybersecurity, biotechnology, and quantum systems while addressing ethical and
societal implications.
“Traditional engineering programmes in India
have largely been siloed and focused on immediate industry readiness,” says Professor (Dr.) Shobhit Mathur, Vice
Chancellor of Rishihood University. “Emerging technologies demand engineers who
can design, integrate, and evaluate complex systems across multiple layers of
technology and society.”
Rishihood’s deep-tech model follows a 10-year
roadmap aimed at strengthening research infrastructure, faculty expertise, and
interdisciplinary learning rather than short-term expansion. Students are
encouraged to engage in applied research early while developing the skills to
navigate integrated technology systems aligned with India’s strategic
technology needs.
“Deep-tech education cannot be delivered
through curriculum updates alone,” notes Professor Mathur. “It requires an
ecosystem where research, teaching, and experimentation reinforce each other
over time.”
Across India, universities are prioritizing
advanced computing environments, applied research labs, and interdisciplinary
learning spaces designed to support sustained enquiry. Faculty recruitment now
emphasizes global research exposure, and seed funding for student-led
innovation is being deployed to embed a research mindset at undergraduate and
postgraduate levels.
India’s drive to reduce reliance on imported
technologies and outsourced engineering services has placed deep-tech education
at the intersection of national capability, ethical responsibility, and
societal relevance. Universities are being encouraged to craft context-specific
models that tackle India’s developmental challenges while maintaining global
competitiveness.
“Academic institutions will increasingly be
judged by how they contribute to national capability and public value, not just
placement outcomes or rankings,” says Professor Mathur.
Success metrics are also evolving. Enrollment
growth alone is no longer the benchmark. Instead, universities are measuring
research output, interdisciplinary project quality, prototype development,
patent activity, and graduates progressing to advanced research or doctoral
studies.
The broader objective is clear: India’s engineering institutions are no longer just teaching factories—they are becoming engines of research, innovation, and strategic technological capability.