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Quantum Machine Learning
Quantum Simulation
Wishart and random density matrices: Analytical results for the mean-square Hilbert-Schmidt distance
arXiv
Authors: Santosh Kumar
Year
2020
Paper ID
21539
Status
Preprint
Abstract Read
~2 min
Abstract Words
122
Citations
N/A
Abstract
Hilbert-Schmidt distance is one of the prominent distance measures in quantum information theory which finds applications in diverse problems, such as construction of entanglement witnesses, quantum algorithms in machine learning, and quantum state tomography. In this work, we calculate exact and compact results for the mean square Hilbert-Schmidt distance between a random density matrix and a fixed density matrix, and also between two random density matrices. In the course of derivation, we also obtain corresponding exact results for the distance between a Wishart matrix and a fixed Hermitian matrix, and two Wishart matrices. We verify all our analytical results using Monte Carlo simulations. Finally, we apply our results to investigate the Hilbert-Schmidt distance between reduced density matrices generated using coupled kicked tops.
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- Hilbert-Schmidt distance is one of the prominent distance measures in quantum information theory which finds applications in diverse problems, such as construction of...
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