
Quantum Probability Quantum Information Theory Quantum
... left and Pγ on the right. The same outcomes are found, violating Bell’s three variable inequality, thus strengthening the case against classical probability. 1.3 The decisive experiment Advocates of classical probability could still find serious fault with the argument given so far. Indeed, do we re ...
... left and Pγ on the right. The same outcomes are found, violating Bell’s three variable inequality, thus strengthening the case against classical probability. 1.3 The decisive experiment Advocates of classical probability could still find serious fault with the argument given so far. Indeed, do we re ...
1 Engineering Entanglement: Quantum Computation, Quantum
... mechanical conditions. Rather, it consists of preparing single atoms at simple quantum states, carefully changing these states, and following their amplitude and phase variations. The manipulation of single, coherent quantum states has become an indispensable aspect of engineering. Second, the part ...
... mechanical conditions. Rather, it consists of preparing single atoms at simple quantum states, carefully changing these states, and following their amplitude and phase variations. The manipulation of single, coherent quantum states has become an indispensable aspect of engineering. Second, the part ...
GASEOUS IONIZATION AND ION TRANSPORT: An Introduction to
... Gas-phase ions are ubiquitous in the universe, and are often cited as making up more than 99 % of known matter [REF-Burnett] in the universe - all stars, for example are in a plasma state consisting of gaseous ions and electrons. However, in every day life on Earth, gaseous ions are not as common an ...
... Gas-phase ions are ubiquitous in the universe, and are often cited as making up more than 99 % of known matter [REF-Burnett] in the universe - all stars, for example are in a plasma state consisting of gaseous ions and electrons. However, in every day life on Earth, gaseous ions are not as common an ...
CHAPTER 19 ELECTRIC POTENTIAL ENERGY AND THE
... top-left corner. When the first charge (q = 5.0 µC) is placed at a corner 1, the charge has no electric potential energy, EPE1 = 0. This is because the electric potential V1 produced by the other three charges at corner 1 is zero, since they are infinitely far away. Once q is in place, the electric ...
... top-left corner. When the first charge (q = 5.0 µC) is placed at a corner 1, the charge has no electric potential energy, EPE1 = 0. This is because the electric potential V1 produced by the other three charges at corner 1 is zero, since they are infinitely far away. Once q is in place, the electric ...
FEYNMANWS PATH INTEGRAL APPROACH TO QUANTUM FIELD
... something goes from point A to point B. But the simplicity of the propagator is illusory. In many ways, it’s the key to everything that quantum mechanics represents, and it can even be looked upon as an allegory of life itself. Take the quantity h0; 1j0; 1i, for example: in the beginning you arise o ...
... something goes from point A to point B. But the simplicity of the propagator is illusory. In many ways, it’s the key to everything that quantum mechanics represents, and it can even be looked upon as an allegory of life itself. Take the quantity h0; 1j0; 1i, for example: in the beginning you arise o ...
Measurements of Photoionization Cross Sections of Positive and
... Chapter 2: Describes the experimental setup. To a large extent this will follow the work done by former students (see references in chapter 2) and will therefore not be so detailed. Chapter 3: The subject of producing an appropriate ion beam is adressed with emphasis on the description of the two ty ...
... Chapter 2: Describes the experimental setup. To a large extent this will follow the work done by former students (see references in chapter 2) and will therefore not be so detailed. Chapter 3: The subject of producing an appropriate ion beam is adressed with emphasis on the description of the two ty ...
The additivity problem in quantum information theory
... tensor product H1 ⊗ H2 describes the composite (bipartite) system. Vectors that are not of the form ψ1 ⊗ψ2 , as well as the corresponding pure states, are called entangled. In an entangled pure state of a bipartite quantum system, neither of the parts is in a pure state, in a sharp contrast to the c ...
... tensor product H1 ⊗ H2 describes the composite (bipartite) system. Vectors that are not of the form ψ1 ⊗ψ2 , as well as the corresponding pure states, are called entangled. In an entangled pure state of a bipartite quantum system, neither of the parts is in a pure state, in a sharp contrast to the c ...
Atoms, Molecules and Clusters in Intense Laser Fields
... true wavefunction. In the momentum gauge, maximal overlap was obtained for ² = .26, while in the length gauge, maximal overlap was obtained for ² = 1. Both images have been normalized and rotated to give a purely real overlap with the true wavefunction. . . . . . . . . . . . . . ...
... true wavefunction. In the momentum gauge, maximal overlap was obtained for ² = .26, while in the length gauge, maximal overlap was obtained for ² = 1. Both images have been normalized and rotated to give a purely real overlap with the true wavefunction. . . . . . . . . . . . . . ...
quant-ph
... Figure 4: An example of how numerical error may lead to wrong predictions. The simulation shown in Figure 3 was repeated with a soft step potential (9) with L = 0.005 for different values of the step height ∆E. The plot shows the numerical values for the reflection probability R = kψrefl k2 . These ...
... Figure 4: An example of how numerical error may lead to wrong predictions. The simulation shown in Figure 3 was repeated with a soft step potential (9) with L = 0.005 for different values of the step height ∆E. The plot shows the numerical values for the reflection probability R = kψrefl k2 . These ...
Turbulence-induced fluctuations in ionization and application to PMSE R. J. Hill
... and Pr = 1. The resulting hydrodynamic solution applies to any values of U0 , h, and N that satisfy Eq. (2); for the present solution this is N 2 /(U0 / h)2 = 0.05. Thus, we are free to assign values to U0 and h to simulate the KH instability in many different flow cases. Choosing values for U0 and ...
... and Pr = 1. The resulting hydrodynamic solution applies to any values of U0 , h, and N that satisfy Eq. (2); for the present solution this is N 2 /(U0 / h)2 = 0.05. Thus, we are free to assign values to U0 and h to simulate the KH instability in many different flow cases. Choosing values for U0 and ...
IBM Josephson junction qubit
... --Write circuit equations of motion: these are equations of classical mechanics --Technical challenge: it is a classical mechanics with constraints; must find the “unconstrained” set of circuit variables --find a Hamiltonian/Lagrangian from which these classical equations of motion arise --then, qua ...
... --Write circuit equations of motion: these are equations of classical mechanics --Technical challenge: it is a classical mechanics with constraints; must find the “unconstrained” set of circuit variables --find a Hamiltonian/Lagrangian from which these classical equations of motion arise --then, qua ...
Kinetics of Interactions of Matter, Antimatter and Radiation
... Keywords: thermodynamic time; CPT-invariance; negative temperatures; kinetic equation; interaction of radiation with matter ...
... Keywords: thermodynamic time; CPT-invariance; negative temperatures; kinetic equation; interaction of radiation with matter ...
Randomness in (Quantum) Information Processing
... The main focus of this thesis are applications of randomness in classical and quantum information processing, especially in cryptography. The accent is on production of high-quality randomness (randomness extraction), efficient usage of randomness (design of applications consuming as little randomne ...
... The main focus of this thesis are applications of randomness in classical and quantum information processing, especially in cryptography. The accent is on production of high-quality randomness (randomness extraction), efficient usage of randomness (design of applications consuming as little randomne ...
A group-theoretical approach to the periodic table
... law [ , ] (with [X,Y] = XY – YX).8 In this case (that corresponds to the general situation in quantum chemistry), we can construct polynomials from the elements of A and the algebra of these polynomials is called the enveloping algebra of A. Some particular polynomials play an important rôle, viz., ...
... law [ , ] (with [X,Y] = XY – YX).8 In this case (that corresponds to the general situation in quantum chemistry), we can construct polynomials from the elements of A and the algebra of these polynomials is called the enveloping algebra of A. Some particular polynomials play an important rôle, viz., ...
Hydrogen atom
A hydrogen atom is an atom of the chemical element hydrogen. The electrically neutral atom contains a single positively charged proton and a single negatively charged electron bound to the nucleus by the Coulomb force. Atomic hydrogen constitutes about 75% of the elemental (baryonic) mass of the universe.In everyday life on Earth, isolated hydrogen atoms (usually called ""atomic hydrogen"" or, more precisely, ""monatomic hydrogen"") are extremely rare. Instead, hydrogen tends to combine with other atoms in compounds, or with itself to form ordinary (diatomic) hydrogen gas, H2. ""Atomic hydrogen"" and ""hydrogen atom"" in ordinary English use have overlapping, yet distinct, meanings. For example, a water molecule contains two hydrogen atoms, but does not contain atomic hydrogen (which would refer to isolated hydrogen atoms).