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Fundamentals of the Physics of Solids
Fundamentals of the Physics of Solids

Exact diagonalization of quantum spin models
Exact diagonalization of quantum spin models

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Magnetic Order in Kondo-Lattice Systems due to Electron-Electron Interactions

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... Landau levels. Here the special case is m  1, where the dependence of the pseudopotential on the Landau-level index is nonmonotonic; viz., the pseudopotential has the maximum value at n  1. At all of the other m values, the trend is the same as for the nonrelativistic case; i.e., for m  0 the pse ...
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Interplay between Classical Magnetic Moments and Superconductivity in Quantum

... helical structure is general, the essential ingredient being the RKKY interaction. Therefore, the same mechanism can apply if the nuclear spins are replaced by classical magnetic moments forming a 1D lattice (not necessarily a regular one), such as magnetic adatoms on top of a metallic surface [14]. ...


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Time reversal and the symplectic symmetry of the electron spin.

... superconductors, allowing a description of the development of valence bonds in a spin fluid, and the transmission of their pair correlations to the electron sea[20, 21]. For the first time, this physics can now be explored within a controlled large N approach. As an example of this physics in action ...
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Quantum Spin Hall Effect in Graphene

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Magnetism of the Localized Electrons on the Atom

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... weak rf field is sharp, but the spin resonance is broadened and has a shape Gs (v). One may convince oneself that moving the sharp frequency of the rf field upwards over the broad spin resonance should produce the same results as moving a broad rf field of spectral shape ρ(v) a Gs(v) downwards over ...
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Electronic Structure of Multi-Electron Quantum Dots

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... In La (just before RE) 4f is empty, Ce+++ has one 4f electron, this number increases to 13 for Yb and 4f14 at Lu, the radii contracting from 1.11 Å (Ce) to 0.94 Å (Yb) → Lanthanide Contraction. The number of 4f electrons compacted in the inner shell with a radius of 0.3 Å is what determines the magn ...
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Lecture 13 - UD Physics

Atom-Light Interactions - Durham University Community
Atom-Light Interactions - Durham University Community

... causes the atom to oscillate between the ground and excited states. If we think in terms of energy transfer, then the conservation of energy implies that energy must be transferred to and from the monochromatic external light field. The processes that exchange energy with the driving field are known ...
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Absorption Spectra and Electron-Vibration Coupling of Ti:Sapphire

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Nitrogen-vacancy center



The nitrogen-vacancy center (N-V center) is one of numerous point defects in diamond. Its most explored and useful property is photoluminescence, which can be easily detected from an individual N-V center, especially those in the negative charge state (N-V−). Electron spins at N-V centers, localized at atomic scales, can be manipulated at room temperature by applying a magnetic field, electric field, microwave radiation or light, or a combination, resulting in sharp resonances in the intensity and wavelength of the photoluminescence. These resonances can be explained in terms of electron spin related phenomena such as quantum entanglement, spin-orbit interaction and Rabi oscillations, and analysed using advanced quantum optics theory. An individual N-V center can be viewed as a basic unit of a quantum computer, and it has potential applications in novel, more efficient fields of electronics and computational science including quantum cryptography and spintronics.
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