dorsal/arxiv
View SchemaComplementarity and Entanglement in Quantum Information Theory
| Authors | Tracey E. Tessier |
|---|---|
| Categories | |
| ArXiv ID | quant-ph/0412060 |
| URL | https://arxiv.org/abs/quant-ph/0412060 |
Abstract
The restrictions that nature places on the distribution of correlations in a multipartite quantum system play fundamental roles in the evolution of such systems, and yield vital insights into the design of protocols for the quantum control of ensembles with potential applications in the field of quantum computing. We show how this entanglement sharing behavior may be studied in increasingly complex systems of both theoretical and experimental significance and demonstrate that entanglement sharing, as well as other unique features of entanglement, e.g. the fact that maximal information about a multipartite quantum system does not necessarily entail maximal information about its component subsystems, may be understood as specific consequences of the phenomenon of complementarity extended to composite quantum systems. We also present a local hidden-variable model supplemented by an efficient amount of classical communication that reproduces the quantum-mechanical predictions for the entire class of Gottesman-Knill circuits. The success of our simulation provides strong evidence that the power of quantum computation arises not directly from entanglement, but rather from the nonexistence of an efficient, local realistic description of the computation, even when augmented by an efficient amount of nonlocal, but classical communication. Finally, we note that the findings presented in this thesis support the conjecture that Hilbert space dimension is an objective property of a quantum system since it constrains the number of valid conceptual divisions of the system into subsystems.
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"abstract": "The restrictions that nature places on the distribution of correlations in a\nmultipartite quantum system play fundamental roles in the evolution of such\nsystems, and yield vital insights into the design of protocols for the quantum\ncontrol of ensembles with potential applications in the field of quantum\ncomputing. We show how this entanglement sharing behavior may be studied in\nincreasingly complex systems of both theoretical and experimental significance\nand demonstrate that entanglement sharing, as well as other unique features of\nentanglement, e.g. the fact that maximal information about a multipartite\nquantum system does not necessarily entail maximal information about its\ncomponent subsystems, may be understood as specific consequences of the\nphenomenon of complementarity extended to composite quantum systems. We also\npresent a local hidden-variable model supplemented by an efficient amount of\nclassical communication that reproduces the quantum-mechanical predictions for\nthe entire class of Gottesman-Knill circuits. The success of our simulation\nprovides strong evidence that the power of quantum computation arises not\ndirectly from entanglement, but rather from the nonexistence of an efficient,\nlocal realistic description of the computation, even when augmented by an\nefficient amount of nonlocal, but classical communication. Finally, we note\nthat the findings presented in this thesis support the conjecture that Hilbert\nspace dimension is an objective property of a quantum system since it\nconstrains the number of valid conceptual divisions of the system into\nsubsystems.",
"arxiv_id": "quant-ph/0412060",
"authors": [
"Tracey E. Tessier"
],
"categories": [
"quant-ph"
],
"title": "Complementarity and Entanglement in Quantum Information Theory",
"url": "https://arxiv.org/abs/quant-ph/0412060"
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