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Waves, electrons

Continuous-Wave Electron Spin Resonance ed L Kevan and M Bowman (New York Wiley) oh 7, pp 285-363... [Pg.1588]

Lebedev Y S 1990 High-frequency continuous-wave electron spin resonance Modern Pulsed and... [Pg.1589]

Earle K, Budll D and Freed J 1996 Millimeter wave electron spin resonance using quasloptical techniques Advances in Magnetic and Optical Resonance vol 19, ed W Warren (San Diego ... [Pg.1590]

Allgeler J, DIsselhorst A, Weber R, Wenckebach W and Schmidt J 1990 High-frequency pulsed electron spin resonance Modern Pulsed and Continuous-Wave Electron Spin Resonance ed L Kevan and M K Bowman (New York Wley) ch 6, pp 267-83... [Pg.1590]

Kevan, L. and M. K. Bowman (1990). Modem Pulsed and Continuous-Wave Electron Spin Resonance. New York Wiley. [Pg.187]

Modern Pulsed and Continueous-Wave Electron Spin Resonance, ed. L. Kevan and M.K. Bowman, John Wiley, New York, 1990. [Pg.20]

D. Collison, M. Helliwell, V.M. Jones, F.E. Mabbs, E.J.L. Mclnnes, P.C. Riedi, G.M. Smith, R.G. Pritchard and W.I. Cross, Single and double quantum transitions in the multi-frequency continuous wave electron paramagnetic resonance (cwEPR) of three six-co-ordinate nickel(II) complexes ... [Pg.165]

Gray, H. B. and Malmstrom, B. G. (1989). Biochemistry 28, 7449 Grupp, A. and Mehring, M. (1990). In Modern Pulsed and Continuous Wave Electron Spin Resonance, p. 195. Wiley, New York... [Pg.42]

Radio waves Electron excitation o A 1 7 o Radar radio transmission... [Pg.430]

The modification of an x-wave sample state due to the existence of the tip is similar to the case of the hydrogen molecule ion. For nearly free-electron metals, the surface electron density can be considered as the superposition of the x-wave electron densities of individual atoms. In the presence of an exotic atom, the tip, the electron density of each atom is multiplied by a numerical constant, 4/e 1.472. Therefore, the total density of the valence electron of the metal surface in the gap is multiplied by the same constant, 1.472. Consequently, the corrugation amplitude remains unchanged. [Pg.195]

A practical application of the wave properties of fast-moving electrons is the electron microscope, which focuses not visible-light waves but rather electron waves. Because electron waves are much shorter than visible-light waves, electron microscopes are able to show far greater detail than optical microscopes, as Figure 5.15 shows. [Pg.155]

Table II. Energy Calculations for Plane Wave Electrons in Helium... Table II. Energy Calculations for Plane Wave Electrons in Helium...
Studying RNA Using Site-Directed Spin-Labeling and Continuous-Wave Electron Paramagnetic Resonance Spectroscopy... [Pg.303]

If these super-real visions involve wave phenomena, then the external world takes on a radiance and a revelation that is staggeringly clear. The experienced insight that the world of phenomena exists in the form of waves, electronic images, can produce a sense of illuminated power. Everything is experienced as consciousness. [Pg.27]

Although the physical thickness of the liquid crystal is only about 15 Angstrom, it is quantum-mechanically resonant at the wavelength of the incident photons due to its slow-wave electronic structure. The spatial profile of the anisotropic absorption spectrum is shown without dimensions. It is dependent on the absorption cross section of the liquid crystalline film. The array factor for this array cannot be determined easily using conventional antenna theory because of its sub-wavelength dimensions and other currently unknown parameters. [Pg.61]

Recently we developed a new approach which improves the sensitivity to a variation of a by more than an order of magnitude [1,2]. The relative value of any relativistic corrections to atomic transition frequencies is proportional to a2. These corrections can exceed the fine structure interval between the excited levels by an order of magnitude (for example, an s-wave electron does not have the spin-orbit splitting but it has the maximal relativistic correction to energy). The relativistic corrections vary very strongly from atom to atom and can have opposite signs in different transitions (for example, in s-p and d-p transitions). Thus, any variation of a could be revealed by comparing different transitions in different atoms in cosmic and laboratory spectra. [Pg.565]

All beryllium nuclei contain four protons and therefore +4 electronic units, so that four electrons orbit the nucleus of the neutral atom. Its electronic configuration is is2 2s2. This can be abbreviated as an inner core of inert helium (a noble gas) plus two s-wave electrons in the second radial s state (He)2S2. This locates Be at the top of Group IIA (Mg, Ca, Sr, Ba) of the periodic table. Beryllium therefore has valence +2. [Pg.41]

Zucchi MR, Nascimento OR, Faljoni-Alario A et al (2003) Modulation of cytochrome c spin states by lipid acyl chains a continuous-wave electron paramagnetic resonance (CW-EPR) study of haem iron. Biochem J 370 671-678... [Pg.314]

L Kevan, M K Bowman, Modem Pulsed and Continuous-wave Electron Spin resonance, Wiley, New York, 1990... [Pg.302]


See other pages where Waves, electrons is mentioned: [Pg.9]    [Pg.25]    [Pg.100]    [Pg.166]    [Pg.471]    [Pg.123]    [Pg.457]    [Pg.131]    [Pg.213]    [Pg.73]    [Pg.213]    [Pg.1576]    [Pg.1613]    [Pg.242]    [Pg.37]    [Pg.364]    [Pg.364]    [Pg.445]    [Pg.13]    [Pg.157]   
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See also in sourсe #XX -- [ Pg.155 , Pg.156 , Pg.157 , Pg.158 , Pg.159 , Pg.160 ]

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Adiabatic electron wave function

Adiabatic electronic wave functions

Antisymmetric many-electron wave

Antisymmetric many-electron wave function

Antisymmetrized wave function, electronic

Antisymmetrized wave function, electronic structure calculations

Approximations to the Many-Electron Wave Function

Atomic Many-Electron Wave Function and -Coupling

Atomic models electron-wave model

Basis Sets for Electronic Wave Functions

Basis-Set Expansions of Relativistic Electronic Wave Functions

Calculation of molecular electronic wave functions and energies

Charge density waves . high electronic structure

Coherent electron waves

Conducting polymers electronic wave functions

Continuous wave electron paramagnetic resonance

Continuous-wave electron paramagnetic

Continuous-wave electron spin resonance

Continuous-wave electron spin resonance modes

Continuous-wave electron spin resonance pulsed methods

Coupled-cluster wave functions, derivatives electronic energy

Cyclic Voltammetry of Fast Electron Transfers Nernstian Waves

Definition of Electronic Charges from the Wave Function

Determinantal wave function, electron nuclear

Diabatic electron wave function

ELECTRONS EXHIBIT WAVE PROPERTIES

Electron Affinities and Half-Wave Reduction Potentials

Electron Waves and Chemical Bonds

Electron beam lithography waves

Electron behaving as waves

Electron configurations orbital wave functions

Electron cyclotron wave resonance

Electron densities wave function properties

Electron particle-wave duality

Electron self-energy partial wave renormalization

Electron spherical wave model

Electron standing waves

Electron wave function

Electron wave functions for two

Electron wave nature

Electron wave packet

Electron wave structure

Electron wave vector

Electron wave-like properties

Electron wave-mechanical picture

Electron waves, refractive index

Electron-density wave

Electron-wave model

Electronic absorption spectroscopy wave functions

Electronic coupling, between donor and acceptor wave functions

Electronic energy coupled-cluster waves functions

Electronic energy wave functions

Electronic single cyclic voltammetric wave

Electronic states partial wave expansion

Electronic states time-dependent wave functions

Electronic structure augmented plane waves

Electronic structure augmented spherical waves

Electronic structure wave function description

Electronic structure wave-function calculations

Electronic transition, wave packet, nonadiabatic

Electronic wave function

Electronic wave function angular

Electronic wave function anthracene

Electronic wave function butadiene

Electronic wave function determination

Electronic wave function ethylene

Electronic wave function for molecule

Electronic wave function for the

Electronic wave function for the H2 molecule

Electronic wave function fundamental property

Electronic wave function many-electron atoms

Electronic wave function radial

Electronic wave function symmetry properties

Electronic wave function transferring electron

Electronic wave function, permutational

Electronic wave function, permutational symmetry

Electronic wave functions Electron-repulsion potentials

Electronic wave functions electrostatic energy

Electronic wave functions electrostatic interactions

Electronic wave functions of homonuclear diatomic molecules

Electronic wave functions transitions

Electronic wave functions, stationary

Electronics lead-free wave soldering

Electrons as waves

Electrons plan wave

Electrons wave character

Electrons wave length

Electrons wave properties

Electrons wave theory

Equivalence of the electronic wave function and electron density

Fermions electronic wave functions

Force constants from electronic wave functions

Geometric phase effect electronic wave function

Ground-state electronic wave function

Ground-state wave function electronic Hamiltonian, spin-orbit

Hartree-Fock wave functions multiple electronic states

Homonuclear diatomic molecules electronic wave functions

Homonuclear molecules, permutational electronic wave function

Incident electron wave

Irreducible representations electronic wave function

Laser wave, evanescent, electron reflection

Many-electron atoms wave function

Many-electron atoms, radial wave functions

Many-electron molecular wave functions

Many-electron wave

Many-electron wave functions Slater determinants

Many-electron wave functions atomic orbitals approximation

Many-electron wave functions the Hartree-Fock equation

Many-electron wave functions, electronic structure

Many-electron wave functions, electronic structure calculations

Multi-determinant wave functions electron correlation methods

Multiconfigurational wave function electron correlation

N-electron wave function

Nonlinear molecules electronic wave function

Nuclear dynamics electronic wave function

Photophysics electronic wave

Plane-Wave Expansion - The Free-Electron Models

Plasma Absorption and Reflection of Electromagnetic Waves Bouguer Law Critical Electron Density

Point group symmetry electronic wave function

Polarons electronic wave function

Quasi-degenerate electronic wave functions

Semiempirical wave functions electronic states

Single-electron wave functions

Solvated electron electronic wave function

Spin waves electrons

Square-wave voltammetry, first electronic

Standing waves, electronic

Symmetric properties electronic wave function

Tensor Structure of the Many-Electron Hamiltonian and Wave Function

Thouless determinantal wave function, electron

Three-dimensional electron waves, crystals

Two-electron wave

Valence electron wave function

Wave Function Electronic Structure Methods

Wave Function for Many Electrons

Wave Functions for Many-Electron Systems

Wave Model of the Electron

Wave Properties of Electrons in Orbitals

Wave Theory of the Spin Electron

Wave equation electronic

Wave equation many-electron

Wave function analysis electron density

Wave function determination from electron density

Wave function electron density from

Wave function electron nuclear dynamics

Wave function many-electron

Wave function one-electron

Wave function two electrons

Wave function, electronic excited state

Wave function, electronic total

Wave function, electronic vibrational

Wave functions, factoring into electronic

Wave length of electrons

Wave nature of electrons

Wave nature of the electron

Wave one electron

Wave properties of electrons

Wave theory of electrons

Waves of Electrons in Three-Dimensional Space

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