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Stationary entanglement and discord for dissipating qubits by local
Stationary entanglement and discord for dissipating qubits by local

lecture1-introduction
lecture1-introduction

Undergraduate Laboratories Using Correlated Photons: Experiments on the Fundamentals of Quantum Physics
Undergraduate Laboratories Using Correlated Photons: Experiments on the Fundamentals of Quantum Physics

E + - IPAM
E + - IPAM

... translationally-invariant with a Hamiltonian which has a non-degenerate ground state? – If the system is described by a single Hamiltonian term applied to all pairs of particles (with bounded precision), how do we encode a circuit?... – Show high entanglement in the ground state. • Bounded entanglem ...
Quantum linear Boltzmann equation with finite intercollision time
Quantum linear Boltzmann equation with finite intercollision time

... It is obvious that after our single collision the particle’s density matrix ␳ˆ , whatever it was before the collision, becomes perfect diagonal in P储. Gradually, after many collisions, the state ␳ˆ becomes a mixture of plane waves, no off-diagonal mechanism will be left at all. This result contradic ...
Adiabatic=Quantum.Ah.. - Duke Computer Science
Adiabatic=Quantum.Ah.. - Duke Computer Science

ppt - Pavel Stránský
ppt - Pavel Stránský

... Gutzwiller formula (given by the sum of all classical periodic orbits and their repetitions) ...
A Brief Review on Quantum Bit Commitment
A Brief Review on Quantum Bit Commitment

... Although not unconditionally secure, an experimental demonstration of a practical QBC protocol whose security is based on current technological limitations was presented by Danan and Vaidman [13]. The technological limitations in question are the lack of non-demolition measurements and long-term sta ...
56 COPYRIGHT 2006 SCIENTIFIC AMERICAN, INC.
56 COPYRIGHT 2006 SCIENTIFIC AMERICAN, INC.

... great real-world importance. For example, certain widely used encryption methods could be cracked given a computer capable of breaking a large number into its component factors within a reasonable length of time. Virtually all encryption methods used for highly sensitive data are vulnerable to one q ...
Fully Quantum Measurement of the Electron Magnetic Moment
Fully Quantum Measurement of the Electron Magnetic Moment

... cavity modes of cylindrical traps are expected to have higher Q values and a lower spectral density than those of hyperbolic traps ...
Quantum Brownian motion and the Third Law of thermodynamics
Quantum Brownian motion and the Third Law of thermodynamics

Energy Spectra of an Electron in a Pyramid-shaped
Energy Spectra of an Electron in a Pyramid-shaped

Zeno dynamics in quantum open systems
Zeno dynamics in quantum open systems

... dynamics more difficult. Moreover, we find that for a definite temperature T , γ̇(0) declines first and increases then as s increases. Thus, to realize the Zeno dynamics for this model depends on the temperature and the spectral density function of the bath. Quantum Zeno dynamics via operator-sum re ...
Galilei covariance and Einstein`s equivalence principle in quantum
Galilei covariance and Einstein`s equivalence principle in quantum

Quantum Numbers
Quantum Numbers

... Each Quark is assigned a new quantum number Colour – can have 3 values Red, Green & Blue and the particle wave function has an extra factor |Ψcolor> Which is anti-symmetric All particles – baryons & mesons are colourless – so each of the 3 quarks in a baryon has a different colour (r, g, b) ! In a m ...
Quantum Physics 2005 Notes-4 The Schrodinger Equation (Chapters 6 + 7)
Quantum Physics 2005 Notes-4 The Schrodinger Equation (Chapters 6 + 7)

... • There are an infinite number of possible solutions to the free space Schrodinger equation. All we have found is the relation between the possible time solutions and the possible space solutions. • We need to give more information about the state for you to limit the set of possible solutions. – If ...
Quantum Imaging I
Quantum Imaging I

... • Study the physics of multi-photon imaging for entangled state, coherent state and chaotic thermal state: distinguish their quantum and classical nature, in particular, the necessary and/or unnecessary role of quantum entanglement in quantum imaging and lithography. • “Magic” mirror for “ghost” ima ...
A foundational approach to the meaning of time reversal
A foundational approach to the meaning of time reversal

Alternative Approach to Time Evaluation of Schrödinger Wave
Alternative Approach to Time Evaluation of Schrödinger Wave

Quantum Nash Equilibria and Quantum Computing
Quantum Nash Equilibria and Quantum Computing

arXiv:hep-th/0006105v1 15 Jun 2000 Quotient Construction of `t
arXiv:hep-th/0006105v1 15 Jun 2000 Quotient Construction of `t

... quantum states,which is spanned by the equivalence classes according to ’t Hooft, with the quotient space and naturally re-formulate the time-reversible evolution at the atomic scale by the mechanism of induced representation of the dissipative deterministic evolution operator on the quotient space. ...
An Effective Quantum Potential for Particle
An Effective Quantum Potential for Particle

... quantum-corrected one. The pseudo-differential operator (PDO) for the effective quantum potential we build on here is based on a perturbation theory around thermal equilibrium [1, 2], was first derived in [3], and used to include the interaction between potential wells and single electrons in previo ...
Hidden symmetries in the energy levels of excitonic `artificial atoms`
Hidden symmetries in the energy levels of excitonic `artificial atoms`

Turing machine
Turing machine

... Step 5: All that was left was to sequence the DNA, revealing the path from A to B to C to D to E to F to G. ...
A Model of Time
A Model of Time

... In special relativity space and time are linked through the assumption that the speed of light in vacuum, c, is a constant and the maximal speed at which any signal can pass through space. Light signals are used to gauge clocks and the framework of relativity is thus derived. In the EPR (Einstein-Po ...
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Quantum machine learning

Quantum machine learning is a newly emerging interdisciplinary research area between quantum physics and computer science that summarises efforts to combine quantum mechanics with methods of machine learning. Quantum machine learning models or algorithms intend to use the advantages of quantum information in order to improve classical methods of machine learning, for example by developing efficient implementations of expensive classical algorithms on a quantum computer. However, quantum machine learning also includes the vice versa approach, namely applying classical methods of machine learning to quantum information theory.Although yet in its infancy, quantum machine learning is met with high expectations of providing a solution for big data analysis using the ‘parallel’ power of quantum computation. This trend is underlined by recent investments of companies such as Google and Microsoft into quantum computing hardware and research. However, quantum machine learning is still in its infancy and requires more theoretical foundations as well as solid scientific results in order to mature to a full academic discipline.
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