This doctoral programme is designed to train the next generation of research leaders in the rapidly advancing field of Quantum Sciences. It provides a strong foundation in both theoretical and experimental aspects of quantum technologies, enabling scholars to explore and contribute to cutting-edge innovations in the field. The areas of research currently being pursued under this programme are quantum computation (theory), quantum information (theory), quantum computing using superconducting quantum circuits, photonic integrated circuits and NV centres for sensing and computing, quantum sensing using cold atoms, as well as quantum algorithms and machine learning. Through close mentorship and interdisciplinary collaboration, candidates develop the expertise required to push the boundaries of quantum research and drive future technological breakthroughs.

The programme prepares researchers to drive impactful energy innovations from laboratory breakthroughs to real-world applications. Current research places strong emphasis on next-generation battery systems, including solid-state designs, advanced cathode and electrolyte materials, and device development across formats such as coin, cylindrical, and pouch cells. State-of-the-art in-operando and ex-situ characterization tools are employed to uncover fundamental mechanisms and accelerate practical deployment. In parallel, the programme explores green hydrogen production and clean fuel generation through water splitting, microbial fuel cells, and carbon dioxide reduction, supported by the development of efficient, low-cost functional catalysts.

This programme combines advanced research training with a strong foundation in neuroscience, emphasizing scientific inquiry, critical thinking, and technical expertise. It aims to equip researchers to advance translational neuroscience at a global scale. Through a structured laboratory rotation programme, PhD candidates are encouraged to engage with multiple research groups at CHINTA before selecting their supervisor. Coursework includes core subjects in fundamental neuroscience and advanced electives such as Computational Neuroscience, Stem Cell and Regenerative Medicine, Developmental Neurobiology, and Learning and Memory.

This comprehensive programme provides advanced training in both fundamental cancer biology and therapeutic development, uniquely integrating basic research with clinical perspectives. Each PhD candidate is co-mentored by a research faculty member and a clinical expert—enabling hands-on experience that bridges laboratory discoveries with patient care. The curriculum combines rigorous coursework with an in-depth research project, equipping students to address the multifaceted challenges of cancer. Through this dual-mentorship model, the programme aims to develop future leaders who will drive innovation in cancer prevention, diagnosis, and treatment.

This programme prepares researchers to drive innovation and sustainability in the global food sector. With advanced training in food science, biochemistry, microbiology, and sensory analysis, students conduct high-impact research using state-of-the-art facilities. Strong industry collaboration ensures a focus on real-world challenges, enabling scholars to translate scientific discoveries into practical and commercially relevant food technologies.

It is designed to build strong foundations in chemistry, materials science, and advanced energy technologies. The curriculum integrates theoretical knowledge with extensive hands-on laboratory training, preparing students to contribute to emerging solutions in energy storage and conversion. Across four semesters, learners engage with core areas including thermodynamics, electrochemistry, material synthesis, solid-state chemistry, spectroscopy, and device fabrication, culminating in a major research project focused on sustainable energy innovations.

The programme aims to develop theoretical, computational, and experimental skills in neuroscience through core subjects such as neuroanatomy, cellular and molecular neuroscience, sensory and behavioural neuroscience, and advanced imaging techniques. With a focus on interdisciplinary thinking, scientific inquiry, and practical research exposure from the first year onward, the programme prepares graduates to contribute to cutting-edge neuroscience research and pursue careers across academia, healthcare, and technology-driven industries.

It is designed to provide a strong foundation in modern quantum science and technology. Through a curriculum that spans core areas of physics—including quantum mechanics, electrodynamics, statistical mechanics, and condensed matter physics—alongside specialised training in quantum information, quantum algorithms, and experimental quantum technologies, students gain both theoretical and practical expertise. The programme integrates classroom learning with laboratory training and culminates in a dedicated research project, preparing graduates for advanced doctoral studies or careers in the rapidly growing quantum technology industry.