A priori 3d magnetic field imaging from quantum diamond microscopy
Qmet Tech Foundation is a Section-8 not-for-profit
organization incorporated by IIT Bombay under the National Quantum Mission of DST, Government of India
Qmet Tech Foundation is India’s official hub for Quantum Sensing, Imaging, and Metrology, established under the National Quantum Mission (NQM) by the Department of Science & Technology (DST).
Qmet drives a unified national effort to transform quantum research into deployable technologies — from NV-centre-based magnetometers to atomic sensing systems and photonics-enhanced imaging tools.
IIT Gandhinagar
TIFR Mumbai
IIT Bombay,
Mumbai
University of
Hyderabad, Telangana
TIFR, Hyderabad
Department of
Physics, IIT Madras
Centre for nanoscience
and Engineering (CeNSE),
IISC Bangalore
IIT Ropar
BITS Pilani
IIT Delhi
IIT Kanpur
Harish-Chandra Research
Institute, Allahabad
IISER Bhopal
School of Physical Sciences
at Indian Association for the
cultivation of Science, Kolkata
S.N. Bose National
Centre for Basic
Sciences, Kolkata
TCG CREST,
Kolkata
Pioneering next-generation measurement science, our Quantum Sensing & Metrology division is advancing ultra-precise quantum sensors and imagers, from magnetometers to microscopes.
Building a quantum-ready workforce through UG/PG programs, STEM curriculum integration, and joint international degrees. Our fellowships, workshops, and training initiatives equip learners with the skills to lead in the quantum era.
We encourage quantum innovation by supporting start-ups, driving tech transfer, and building strong industry-academia partnerships.
Collaborate with leading global institutes, drive joint technology development, and actively participate in international sensor networks.
At QMET, we are building state-of-the-art fabrication and testing facilities, developing quantum-grade components, and establishing advanced materials growth centers to accelerate breakthroughs in quantum technologies.
Our magnetometers are built on fundamental research and designed to advance industries such as defense, semiconductors, and biomedical diagnostics. Operating at room temperature, these compact, portable sensors offer exceptional spatial resolution. Prof. Saikat Ghosh who leads our magnetometry research, is driving innovations that enhance the sensitivity of our sensors and expand their potential applications. These systems are aimed at transforming real-world applications, offering unprecedented precision for sectors that require high-level sensing.
Qmet’s quantum microscopes are designed for both room-temperature and cryogenic environments, providing groundbreaking imaging capabilities. These systems will continue to evolve, enhancing early-stage disease detection and semiconductor diagnostics. Led by Prof. Kasturi Saha, our microscopy efforts are focused on pushing the boundaries of visibility and enabling more accurate imaging in a variety of fields. The microscopes are set to advance the limits of visibility, unlocking insights that were once beyond reach.
Photonics are another priority in Qmet’s quantum sensing platform, where we are developing systems to enhance depth, resolution, and contrast for biomedical and materials research. These systems are poised to transform optical clarity in the quantum sensing landscape. Prof. Anand Jha, who is overseeing our photonics work, is working on systems that set new standards in precision and imaging quality. With continuous advancements, we are shaping the future of high-precision imaging that will change how we interact with the world at the quantum level.
Qmet’s atomic magnetometers use laser-cooled atoms to measure magnetic fields with extreme sensitivity and minimal noise. Designed for real-world deployment, these sensors are ideal for geophysics, navigation, and biomedical research. Prof. Saikat Ghosh is leading the development of these sensors, focusing on improving their performance and portability for a range of applications. These systems are designed to redefine precision, enabling applications across industries that rely on unrivaled accuracy.
A priori 3d magnetic field imaging from quantum diamond microscopy
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Developing intermediate-scale quantum computers (50-1000 qubits) to drive computational breakthroughs.
Launching satellite-based quantum communications for secure, unbreakable data transfer.
Achieving unprecedented precision with advanced magnetometers and atomic clocks for critical applications in navigation and timekeeping.
Advancing superconductors and topological materials to build next-gen quantum devices.
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