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International Journal of Quantum Information

High-dimensional quantum state manipulation and tracking

Mevludin Licina

Published Oct 1, 2020• 1 citation
Publisher

Abstract

Dynamical high-dimensional quantum states can be tracked and manipulated in many cases. Using a new theoretical framework approach of manipulating quantum systems, we will show how one can manipulate and introduce parameters that allow tracking and descriptive insight in the dynamics of states. Using quantum topology and other novel mathematical representations, we will show how quantum states behave in critical points when the shift of probability distribution introduces changes.

DOI
10.1142/s0219749920500458

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Dynamical high-dimensional quantum states can be tracked and manipulated in many cases. Using a new theoretical framework approach of manipulating quantum systems, we will show how one can manipulate and introduce parameters that allow tracking and descriptive insight in the dynamics of states. Using quantum topology and other novel mathematical representations, we will show how quantum states behave in critical points when the shift of probability distribution introduces changes.
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This paper explores the theoretical foundations of dimensional quantum topology, proposing a novel framework for understanding and utilizing this fascinating quantum phenomenon. We delve into the potential of this approach to revolutionize computation and offer insights into its implications for future quantum technologies. The core claim is that dimensional quantum topology provides a fundamentally different perspective on quantum information processing, enabling the development of new algorithms and computational paradigms. This work investigates the theoretical connections between dimensional topology, quantum entanglement, and the emergence of novel quantum states.
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