The Leggett-Garg inequality (LGI) delineates a boundary between quantum and classical
systems. While the temporal quantum correlations represented by LGIs have been …

The ability of achieving strong quantum spatial correlations has helped the emergence of
quantum information science. In contrast, how to achieve strong quantum temporal …

Quantum correlations, both spatial and temporal, are the central pillars of quantum
mechanics. Over the last two decades, a big breakthrough in quantum physics is its complex …

Coherent manipulation of three-level systems is of critical significance to quantum
information processing. Here, we propose a scheme to achieve quantum state engineering …

The electron shelving effect significantly improves the control accuracy of medium energy
level transitions, enabling high-sensitivity fluorescence signal detection in precision …

The Leggett-Garg inequality (LGI) is a powerful tool for distinguishing between quantum and
classical properties in studies of macroscopic systems. Applying the LGI to non-Hermitian …

Bell's theorem revealed that a local hidden-variable model cannot completely reproduce the
quantum mechanical predictions. Bell's inequality provides an upper bound under the …

The Leggett-Garg inequality (LGI) places a bound for the distinction between quantum
systems and classical systems. Despite that the tests of temporal quantum correlations on …

Any pure state of a qubit can be geometrically represented as a point on the extended
complex plane through stereographic projection. By employing successive conformal maps …

The powerful ability of achieving and manipulating strong spatial quantum correlations has
helped the emergence of quantum information science. In contrast, strong temporal quantum …