Principal investigator
Introduction
Our research is focused on using the rich theory of Quantum Mechanics to advance the knowledge of physical phenomena, protocols and their implementation. Current areas of research include machine learning to control nonlinear quantum systems, classical and quantum algorithms for simulation, wavelet theory, collective Rydberg blockade and its application to many body Physics, scalable quantum networks, quantum walks, topological orders, quantum annealing, measures of coherence, quantum channels and their decomposition, quantum cryptography and classical discord.
Members
Related Publications
- Double-double electromagnetically induced transparency with amplification. Physical Review A 89, 021802 (2014).
- Effects of temperature and ground-state coherence decay on enhancement and amplification in a \textlessmath\textgreater \textlessmi\textgreater$\Delta$\textless/mi\textgreater \textless/math\textgreater atomic system. Physical Review A 90, 043859 (2014).
- Evolutionary algorithms for hard quantum control. Physical Review A 90, 032310 (2014).
- Long-distance quantum communication through any number of entanglement-swapping operations. Physical Review A 90, 032304 (2014).
- Nonlinear phase shifts of light trapped in a two-component Bose-Einstein condensate. Physical Review A 89, 063823 (2014).
- Observation of quasiperiodic dynamics in a one-dimensional quantum walk of single photons in space. New Journal of Physics 16, 053009 (2014).
- Quantum resource theory for charge-parity-time inversion. Physical Review A - Atomic, Molecular, and Optical Physics 90, 1-11 (2014).
- Stability of the Trotter–Suzuki decomposition. Journal of Physics A: Mathematical and Theoretical 47, 265206 (2014).
- Accessing quantum secrets via local operations and classical communication. Physical Review A 88, 022340 (2013).
- Controlling and reversing the transition from classical diffusive to quantum ballistic transport in a quantum walk by driving the coin. Physical Review A 87, 022334 (2013).