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Invariant and Freezing Dynamics of Quantum Correlations in Qubit-Qutrit Systems Under Collective Dephasing Colored Noise

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Abstract

We analyze in details the time-evolution of measurement-induced disturbance (MID) and local quantum uncertainty (LQU) in a qubit-qutrit system influenced by a collective dephasing pink or brown noise. We investigate the cases where each noise spectrum is generated by either a single two-states stochastic fluctuator, or a set of multiple ones. We further consider for our study, two non-equivalent classes of one-parameter qubit-qutrit initial states, namely the p-states and the x-states. We demonstrate that the initial state is particularly relevant for the future evolution of quantum correlations (QCs). In fact MID and LQU are less powerful against decoherence effects in x-states than in p-states, where we show the joint existence of time-invariant and freezing dynamics of QCs. In general, MID is always stronger than LQU, but we show that both measures can capture the same correlations (i.e. they are equal to each other) for carefully selected ranges of entanglement parameter in p-states. However, MID and LQU are more powerful in the system when subjected to brown noise than to pink noise no matter the initial state or the number of fluctuators generating the decoherent process. The relevance of separable states for the community is further reinforced by our results, as both QCs measures perfectly certify the existence of QCs without entanglement in ranges of separability for the selected input states.

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Correspondence to Tsamouo Tsokeng Arthur.

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Arthur, T.T., Pernel, N.N., Fabrice, K.F. et al. Invariant and Freezing Dynamics of Quantum Correlations in Qubit-Qutrit Systems Under Collective Dephasing Colored Noise. Int J Theor Phys 60, 4078–4090 (2021). https://doi.org/10.1007/s10773-021-04957-z

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  • DOI: https://doi.org/10.1007/s10773-021-04957-z

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