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Collective molecule formation in a degenerate
Collective molecule formation in a degenerate

... amplitudes was ∆ = F /100. We run the magnetic field sweep 64 times for different random phases of the anomalous amplitudes, and average the results. Figure 2 shows the measured atom numbers as a function of the magnetic field when it is swept at the rate (40 µs/G)−1 , and our calculation for the swe ...
Teacher text
Teacher text

... work- is one of the most powerful tools in teaching and learning, particularly if it is not graded (no marks given). Indeed, interaction and feedback are the consistent ingredients of the interactive-engagement methods promoted by PER researchers (Hake, 1998; Mazur, 1997; Meltzer & Manivannan, 2002) ...
chapter40
chapter40

Physics of wave packets
Physics of wave packets

EXPERIMENT #13 The Atomic Spectrum of Hydrogen
EXPERIMENT #13 The Atomic Spectrum of Hydrogen

Symmetry and Asymmetry in the Mendeleïev`s Periodic Table
Symmetry and Asymmetry in the Mendeleïev`s Periodic Table

... Strong Relationships between the 4 Quantum Numbers and Mendeleïev’s Table Equation : Niels Bohr established the relation between the position of each Element in the periodic table and its electronic structure. The chemical properties of each Element are thus COMPLETELY DETERMINED by the distribution ...
Steady-state entanglement of two atoms created by classical driving
Steady-state entanglement of two atoms created by classical driving

... This amount is much higher than in a number of recent proposals. In particular, it is higher than that in the case when the squeezed vacuum is used for stabilization of entanglement instead of the classical driving field 关3兴. Outside the Lamb-Dicke limit, i.e., when ⌫12 ⬍ ⌫, both the triplet and the ...
Molecular Term Symbols
Molecular Term Symbols

Quantum Numbers, Orbitals, and Probability Patterns
Quantum Numbers, Orbitals, and Probability Patterns

1 Introduction The periodic law discovered by Mendeleev in 1869
1 Introduction The periodic law discovered by Mendeleev in 1869

... We may notice that the periodic law in the original formulation of Mendeleev is local, as relates properties of simple substances with their atomic weight, which at the time when the law was formulated, was determined by weighing in the gravitational field of the Earth. Such a correlation properties ...
Influence of the work of Berggren on the Stockholm*s group
Influence of the work of Berggren on the Stockholm*s group

... transitions from 212Po. By using a shifted Gaussian component in the single-particle wave functions it was possible to describe the alpha decay half life, while the shell model component describes the B(E2) (D. S. Delion, RJL, P. Schuck, A. Astier, M. G. Porquet, PRC 85, 064306 (2012)). ...
Density matrix renormalization group method (Swapan K Pati)
Density matrix renormalization group method (Swapan K Pati)

... Original Reference and some review articles S. R. White, “Density matrix formulation for quantum renormalization group” Phys. Rev. Lett. 69, 2863 (1992). S. R. White, “Density matrix algorithm for quantum renormalization group” Phys. Rev. B48, 10345 (1993). Steven White was awarded the 2003 Aneesur ...
Introduction to DMRG - International Institute of Physics
Introduction to DMRG - International Institute of Physics

Electronics
Electronics

Study Guide Summative Exam The following represent the
Study Guide Summative Exam The following represent the

... shape of electron clouds (s and p orbitals in particular), relative energies of orbitals, and the number of electrons possible in the s,p,d, and f orbitals (quantum numbers) ...
Quantum Theory of Hydrogen
Quantum Theory of Hydrogen

... Section 6.7 contains much of the “testable” material of chapter 6. The earlier sections are important (especially quantum numbers and angular momentum) but many of the problems come from 6.7, so be sure to study it well. Important ideas (quantum mechanics works very well for describing the hydrogen ...
Collective atomic recoil laser: an example of classical
Collective atomic recoil laser: an example of classical

Atom InterferometryPrecision D. E. Pritchard
Atom InterferometryPrecision D. E. Pritchard

... scattered from each atom. Scattering multiple photons causes the same type of time-evolution of decoherence as interaction with a thermal bath, and is theoretically similar to any situation where the quantum system undergoes multiple independent dephasing events. The heart of this experiment is the ...
Introduction to Quantum Mechanic
Introduction to Quantum Mechanic

... • Quantum mechanics is used to explain microscopic phenomena such as photon-atom scattering and flow of the electrons in a semiconductor. • QUANTUM MECHANICS is a collection of postulates based on a huge number of experimental observations. • The differences between the classical and quantum mechani ...
PX432 Functional Properties of Solids Part III: Electrical properties
PX432 Functional Properties of Solids Part III: Electrical properties

Effect of size and dimensionality on the magnetic moment of
Effect of size and dimensionality on the magnetic moment of

Quantum Physics
Quantum Physics

... proposed was that electrons normally came in pairs, so that their magnetic effects cancelled out. This would be the case if, in addition to movement in an “orbit”, the electrons were also spinning on their axes. Each electron would then be a magnet. A pair of electrons in the same orbit would cancel ...
Richard Feynman But I am not afraid to consider the
Richard Feynman But I am not afraid to consider the

... His visionary talk covered a wide range of concepts and promises, on which we work today in the meanwhile established field of nanoscience. For example, he pointed out • the close relationship of physics and biology when it comes to Nanostructures • the importance of quantum effects in structures b ...
manuscript
manuscript

... Fermions undergoing BCS type pairing interaction can be treated as hard-core bosons in real or momentum space depending on whether they interact strongly or weakly. In both cases, lattice points (or energy levels) are occupied by pairs or else they are empty. Therefore, the system can be described b ...
The Physics of Energy sources Basic Nuclear Physics – The Atom
The Physics of Energy sources Basic Nuclear Physics – The Atom

... what a nucleus could release in theory ...
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Tight binding

In solid-state physics, the tight-binding model (or TB model) is an approach to the calculation of electronic band structure using an approximate set of wave functions based upon superposition of wave functions for isolated atoms located at each atomic site. The method is closely related to the LCAO method used in chemistry. Tight-binding models are applied to a wide variety of solids. The model gives good qualitative results in many cases and can be combined with other models that give better results where the tight-binding model fails. Though the tight-binding model is a one-electron model, the model also provides a basis for more advanced calculations like the calculation of surface states and application to various kinds of many-body problem and quasiparticle calculations.
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