Research Area
Quantum optics, Quantum information processing, Bose-Einstein condensation and General physics
Research Interests
My main research focus is to understand nontrivial physics, both theoretically and experimentally. The research projects on the quantum imaging of transparent objects with hyper-entangled photons comprised of continuous variable Einstein Podolsky Rosen entangled state and discrete variable polarization entangled state, non-trivial imaging in six-dimensional space and experiments of foundational significance have been completed successfully in March 2024.
The current research is focused on the applied aspects of quantum optics and quantum entanglement for quantum information processing and quantum computing. In parallel, new experiments on the foundations of quantum mechanics are continued.
I was fascinated by the concepts and electronic circuits of computing, electrical machines, signal processing, and fundamental physics when I was a school and undergraduate student. This combination of interests is rare however, it has been the guiding force since the beginning. A constant and unshakeable zeal inspired me, from early school days, to continue fundamental physics and electronics. In brief, my first successful experiments were on the realization of a steam turbine, an electromechanical oscillator and an electrochemical cell at the age of eleven.
My current research interests overlap with the foundational and applied regimes of physics. I designed experiments on my own, my workflow to design and realize Bose-Einstein condensation category of complex experiments is natural. I have established one of the best labs in the country for research on photon entanglement, foundations of quantum mechanics, quantum information processing, quantum optics and Bose-Einstein condensation.
Since 2020 : Associate Professor of physics, IISER Mohali
2012 - 2020 : Assistant professor of physics, IISER Mohali
Post. Doc : University of Vienna (IQOQI)-Zeilinger group (Nobel Laureate 2022).
2004 - 2008 : PhD, Swinburne University of Technology, Australia
2000 - 2001 : M.Tech, Indian Institute of Technology, Delhi
Full GATE scholarship in M.Tech. Category: General
Best Teacher Award 2016, IISER Mohali.
Manpreet Kaur, Sheenam Saxena and Mandip Singh. Subtomographic imaging of a polarisation sensitive phase pattern localised in phase space. Scientific Reports 14(1):2641, 2024. Aditya Saxena, Manpreet Kaur, Vipin Devrari and Mandip Singh. Quantum ghost imaging of a transparent polarisation sensitive phase pattern. Scientific Reports 12(1):21105, 2022. Mandip Singh. Nonlocal action at a distance also acts in the past. arXiv preprint arXiv:2109.04151, 2021. Manpreet Kaur and Mandip Singh. Quantum imaging of a polarisation sensitive phase pattern with hyper-entangled photons. Scientific Reports 11(1):23636, 2021. Manpreet Kaur and Mandip Singh. Quantum double-double-slit experiment with momentum entangled photons. Scientific Reports 10(1):11427, 2020. Samridhi Gambhir and Mandip Singh. Quantum diffraction of position momentum entangled photons from a sharp edge. Physics Letters A. 383(28):125889, 2019. Samridhi Gambhir, Arvind and Singh Mandip. Intrinsic nonlinearity of a PN-junction diode and higher order harmonic generation. IAPT- Physics Education (Apr-Jun 2018.), 2018. Samridhi Gambhir and Mandip Singh. Diffraction effects in mechanically chopped laser pulses. American Journal of Physics 86:406, 2018. Mandip Singh and Samridhi Gambhir. Three-dimensional classical imaging of a pattern localized in a phase space. Phys. Rev. A. 98:053828, 2018. Mandip Singh. Quantum Stern-Gerlach experiment and path entanglement of a Bose-Einstein condensate. Physical Review A 95(4):043620, 2017. Mandip Singh. Macroscopic quantum oscillator based on a flux qubit. Physics Letters A 379(36):2001–2006, 2015. Michael Keller, Mateusz Kotyrba, Florian Leupold, Mandip Singh, Maximilian Ebner and Anton Zeilinger. Bose-Einstein condensate of metastable helium for quantum correlation experiments. Physical Review A 90(6):063607, 2014. Johannes Kofler, Mandip Singh, Maximilian Ebner, Michael Keller, Mateusz Kotyrba and Anton Zeilinger. Einstein-podolsky-rosen correlations from colliding bose-einstein condensates. Physical Review A—Atomic, Molecular, and Optical Physics 86(3):032115, 2012. Mandip Singh and Peter Hannaford. Effect of projection velocity and temperature on the reflection of ultracold atoms from a periodic one-dimensional corrugated magnetic potential. Physical Review A—Atomic, Molecular, and Optical Physics 82(1):013416, 2010. Mandip Singh. Macroscopic entanglement between a Bose Einstein condensate and a superconducting loop. Optics Express 17(4):2600–2610, 2009. Mandip Singh, Russell McLean, Andrei Sidorov and Peter Hannaford. Dynamics of reflection of ultracold atoms from a periodic one-dimensional magnetic lattice potential. Physical Review A—Atomic, Molecular, and Optical Physics 79(5):053407, 2009. Mandip Singh. A magnetic lattice and macroscopic entanglement of a BEC on an atom chip. Swinburne University of Technology, Centre for Atom Optics and Ultrafast Spectroscopy, 2008. M Singh, S Whitlock, R Anderson, S Ghanbari, BV Hall, M Volk, A Akulshin, R McLean, Andrei Sidorov and P Hannaford. Bose-Einstein condensates on magnetic film microstructures. In Laser Spectroscopy. 2008, pages 228–239. Alexander Akulshin, Mandip Singh, Andrei Sidorov and Peter Hannaford. Steep atomic dispersion induced by velocity-selective optical pumping. Optics Express 16(20):15463–15468, 2008. Mandip Singh, Michael Volk, Alexander Akulshin, Andrei Sidorov, Russell McLean and Peter Hannaford. One-dimensional lattice of permanent magnetic microtraps for ultracold atoms on an atom chip. Journal of Physics B: Atomic, Molecular and Optical Physics 41(6):065301, 2008.