A volume inequality for quantum Fisher information and the uncertainty principle
arXiv:0706.0791 · doi:10.1007/s10955-007-9454-2
Abstract
Let be complex self-adjoint matrices and let be a density matrix. The Robertson uncertainty principle gives a bound for the quantum generalized covariance in terms of the commutators . The right side matrix is antisymmetric and therefore the bound is trivial (equal to zero) in the odd case . Let be an arbitrary normalized symmetric operator monotone function and let be the associated quantum Fisher information. In this paper we conjecture the inequality that gives a non-trivial bound for any natural number using the commutators . The inequality has been proved in the cases by the joint efforts of many authors. In this paper we prove the case N=3 for real matrices.
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- Introduction to quantum Fisher information
- Uncertainty principle with quantum Fisher information
- Generalized Wigner-Yanase Skew Information and the Affiliated Inequality
- Quantumness of pure-state ensembles via coherence of Gram matrix based on generalized --relative Rényi entropy
- From quasi-entropy to skew information
- Uncertainty principle for Wigner-Yanase-Dyson information in semifinite von Neumann algebras