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... • (Error probability) x #(physical gate operations per logical gate) < 1 => reduce error by hierarchically concatenating error correction codes (i.e. using th l i l bit f l l th h i l bit f th the logical qubits of on level as the physical qubits of the next higher level). t hi h l l) ...
... • (Error probability) x #(physical gate operations per logical gate) < 1 => reduce error by hierarchically concatenating error correction codes (i.e. using th l i l bit f l l th h i l bit f th the logical qubits of on level as the physical qubits of the next higher level). t hi h l l) ...
Resonances, dissipation and decoherence in exotic and artificial atoms
... be approached exactly in the same way. This raises the question how the electron confinement in the dot should be modelled. The most common choice is a two-dimensional (or, in case of spherical quantum dots, three-dimensional) harmonic oscillator potential, since the solutions for the one-particle p ...
... be approached exactly in the same way. This raises the question how the electron confinement in the dot should be modelled. The most common choice is a two-dimensional (or, in case of spherical quantum dots, three-dimensional) harmonic oscillator potential, since the solutions for the one-particle p ...
THE NOTION OF INFORMATION IN QUANTUM PHYSICS AND THE
... and rigorous access to the contents of humanistic cultures to everybody — also to people not acquainted with that given culture, and even not trained at all in humanities —, but also that it is possible, in principle, the artificial simulation of semantic and intentional tasks in computer and cogni ...
... and rigorous access to the contents of humanistic cultures to everybody — also to people not acquainted with that given culture, and even not trained at all in humanities —, but also that it is possible, in principle, the artificial simulation of semantic and intentional tasks in computer and cogni ...
AJP Journal
... Second, we note that for the case without a which-way marker, Eq. 共2兲 is equivalent to the uncertainty relations for ⌬ x ⌬ y and ⌬ y ⌬ z , Eqs. 共12兲 and 共13兲. This equivalence can be read in both directions: In one direction, as discussed above, the uncertainty relation implies Eq. 共2兲. In t ...
... Second, we note that for the case without a which-way marker, Eq. 共2兲 is equivalent to the uncertainty relations for ⌬ x ⌬ y and ⌬ y ⌬ z , Eqs. 共12兲 and 共13兲. This equivalence can be read in both directions: In one direction, as discussed above, the uncertainty relation implies Eq. 共2兲. In t ...
Wigner functions for arbitrary quantum systems
... Out of all available choices, one can argue that the Wigner function [1] presents the most natural phase-space representation of quantum mechanics [2]. The main advantage is that it simultaneously retains the intuitiveness with respect to classical phase-space while rendering clearly, important quan ...
... Out of all available choices, one can argue that the Wigner function [1] presents the most natural phase-space representation of quantum mechanics [2]. The main advantage is that it simultaneously retains the intuitiveness with respect to classical phase-space while rendering clearly, important quan ...
Quantum computing with photons: introduction to the circuit model
... quantum gates, which realize a coherent unitary evolution [30]. In contrast, in measurement-based models, quantum information is processed by sequences of adaptive measurements [31, 32]. Among measurement-based models there are two different approaches: the teleportation-based model [33], which is b ...
... quantum gates, which realize a coherent unitary evolution [30]. In contrast, in measurement-based models, quantum information is processed by sequences of adaptive measurements [31, 32]. Among measurement-based models there are two different approaches: the teleportation-based model [33], which is b ...
Classical and Non-Classical Representations in Physics
... possible states is called the state space. The evolution of the system can then be described by a timeparametrized trajectory in the state space, representing the states of the system at subsequent instants. In order to determine the trajectory, one needs two further structures: operators and dynami ...
... possible states is called the state space. The evolution of the system can then be described by a timeparametrized trajectory in the state space, representing the states of the system at subsequent instants. In order to determine the trajectory, one needs two further structures: operators and dynami ...