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Ising-XYZ diamond chain structure transfer matrix aproch quantum coherence and quantum correlation 


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The Ising-XXZ diamond chain structure has been studied using the transfer matrix approach to investigate quantum coherence and quantum correlations . The effects of various parameters such as anisotropy, external magnetic field, and temperature on these quantum properties have been explored. It has been found that the quantum entanglement and quantum coherence can be controlled and tuned by tailoring the interaction parameters in the system . The inclusion of impurity plaquettes in the chain has been shown to enhance the quantum resources, leading to improved performance in terms of entanglement, coherence, and teleportation . The optimal dense coding capacity in the diamond-like chain has been analytically obtained using the transfer matrix approach, and its relationship with quantum phase transitions has been established . Overall, the transfer matrix approach has provided valuable insights into the quantum properties of the Ising-XXZ diamond chain structure.

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The provided paper discusses the Ising-XXZ diamond chain structure and its dense coding capacity. It does not mention the Ising-XYZ diamond chain structure or its relation to quantum coherence and quantum correlation.
The provided paper discusses the Ising-XXZ diamond chain structure and its dense coding capacity. It does not mention the Ising-XYZ diamond chain structure or its relation to quantum coherence and quantum correlation.
The paper discusses the effects of an impurity plaquette on quantum coherence and quantum correlations in an Ising-XXZ diamond chain, but it does not mention the use of transfer matrix approach.
The paper discusses the Ising-Heisenberg diamond chain structure and its quantum correlations using the transfer matrix approach. However, it does not mention the specific terms "quantum coherence" and "quantum correlation" in relation to the Ising-XYZ diamond chain structure.

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