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Quantum Information @ NMR
Quantum Information @ NMR
A powerful experimental platform for studying these phenomena is Nuclear Magnetic Resonance (NMR). NMR allows precise manipulation and control of quantum states of nuclear spins, providing a clean and highly controllable environment for testing quantum computing and quantum metrology protocols. In my research, I explore how NMR techniques can be used to simulate quantum circuits, perform quantum state tomography, implement relevant algorithms, and investigate fundamental aspects such as irreversibility in quantum thermodynamic processes, weak measurements, and the role of correlations in the efficiency of quantum tasks.
Quantum Thermodynamics
Quantum Thermodynamics
Quantum thermodynamics is a vibrancy branch of physics that extends classical thermodynamics principles to quantum systems. It explores how thermodynamic quantities like energy, heat, work, and entropy behave in systems governed by the laws of quantum mechanics. This field is fundamental for understanding and developing technologies at the nanoscale, such as quantum computers, quantum heat engines, and nanoscale refrigerators.
Quantum Metrology
Quantum Metrology
Quantum metrology leverages the principles of quantum mechanics to achieve highly precise measurements of physical quantities, such as time, frequency, magnetic fields, and gravitational forces. By exploiting phenomena like quantum entanglement, superposition, and squeezing, quantum metrology surpasses the precision limits of classical measurement techniques, paving the way for advancements in fundamental science and technology.
Quantum foundations @ Correlated Gaussian States
Quantum foundations @ Correlated Gaussian States
Quantum foundation and Gouy's phase for matter waves
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