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Field-induced

Tang S L, McGhie A J and Suna A 1993 Molecular-resolution imaging of insulating macromolecules with the scanning tunnelling microscope via a nontunnelling, electric-field-induced mechanism Phys. Rev. B 47 3850... [Pg.1722]

If we compare with figure C2.2.I I, we can see that this defonnation involves bend and splay of the director field. This field-induced transition in director orientation is called a Freedericksz transition [9, 106, 1071. We can also define Freedericksz transitions when the director and field are both parallel to the surface, but mutually orthogonal or when the director is nonnal to the surface and the field is parallel to it. It turns out there is a threshold voltage for attaining orientation in the middle of the liquid crystal cell, i.e. a deviation of the angle of the director [9, 107]. For all tliree possible geometries, the threshold voltage takes the fonn [9, 107]... [Pg.2561]

Now the Lagrangean associated with the nuclear motion is not invariant under a local gauge transformation. Eor this to be the case, the Lagrangean needs to include also an interaction field. This field can be represented either as a vector field (actually a four-vector, familiar from electromagnetism), or as a tensorial, YM type field. Whatever the form of the field, there are always two parts to it. First, the field induced by the nuclear motion itself and second, an externally induced field, actually produced by some other particles E, R, which are not part of the original formalism. (At our convenience, we could include these and then these would be part of the extended coordinates r, R. The procedure would then result in the appearance of a potential interaction, but not having the field. ) At a first glance, the field (whether induced internally... [Pg.151]

Ire boundary element method of Kashin is similar in spirit to the polarisable continuum model, lut the surface of the cavity is taken to be the molecular surface of the solute [Kashin and lamboodiri 1987 Kashin 1990]. This cavity surface is divided into small boimdary elements, he solute is modelled as a set of atoms with point polarisabilities. The electric field induces 1 dipole proportional to its polarisability. The electric field at an atom has contributions from lipoles on other atoms in the molecule, from polarisation charges on the boundary, and where appropriate) from the charges of electrolytes in the solution. The charge density is issumed to be constant within each boundary element but is not reduced to a single )oint as in the PCM model. A set of linear equations can be set up to describe the electrostatic nteractions within the system. The solutions to these equations give the boundary element harge distribution and the induced dipoles, from which thermodynamic quantities can be letermined. [Pg.614]

Nonlinear Optical Devices. A transparent, optically active, sol—gel-derived organic—inorganic glass has been synthesized (68). This hybrid consists of a 2,4-dinitroaminophenylpropyl-triethoxysilane covalently bound to a siUcon alkoxide-derived siUca network. This hybrid exhibits a strong electric field-induced second harmonic signal and showed no signs of crystallization. [Pg.331]

Assuming that the current in the gas is carried mostly by electrons, the induced electric field uB causes transverse electron motion (electron drift), which, being itself orthogonal to the magnetic field, induces an axial electric field, known as the Hall field, and an axial body force, F, given by... [Pg.413]

The lesponsivity becomes independent of the bias voltage, V when the electric field-induced sweep time of the holes equals the hole lifetime. [Pg.434]

Both C and C, are related to the system voltage, as can be inferred from Table 24,1(b). The field induced by them is termed an electric field (non-magnetic). This field, i.e. content of Qand Cj, rises with an increase in the system voltage. [Pg.736]

X (p in Q cm) as in Table 30.1 /= frequency of the system in Hz p = effective permeability of the medium in which the field exists (aluminium in the present case), and will depend upon the electric field induced in the enclosure... [Pg.938]

For many problems it is convenient to separate the piezoelectric (i.e., strain induced) polarization P from electric-field-induced polarizations by defining D = P + fi , where s is the permittivity tensor. For uniaxial strain and electric field along the 1 axis, when the material is described by Eq. (4.1) with the E term omitted. [Pg.73]

A brief review is given on electronic properties of carbon nanotubes, in particular those in magnetic fields, mainly from a theoretical point of view. The topics include a giant Aharonov-Bohm effect on the band gap and optical absorption spectra, a magnetic-field induced lattice distortion and a magnetisation and susceptibility of ensembles, calculated based on a k p scheme. [Pg.63]

The situation changes drastically in the presence of a high magnetic field perpendicular to the axis. As has been discussed in Sec. 2, Landau levels without dispersion appear at the Fermi level considerably, leading to a magnetic-field induced distortion [13,14]. [Pg.71]

Electronic properties of CNTs, in particular, electronic states, optical spectra, lattice instabilities, and magnetic properties, have been discussed theoretically based on a k p scheme. The motion of electrons in CNTs is described by Weyl s equation for a massless neutrino, which turns into the Dirac equation for a massive electron in the presence of lattice distortions. This leads to interesting properties of CNTs in the presence of a magnetic field including various kinds of Aharonov-Bohm effects and field-induced lattice distortions. [Pg.73]

Generally speaking, tbe flow field induced by a gas explosion is characterized by two different gas-dynamic discontinuities ... [Pg.104]

Deshaies, B., and J. D. Leyer. 1981. Flow field induced by unconfined spherical accelerating flames. Combust, and Flame. 40 141-153. [Pg.138]


See other pages where Field-induced is mentioned: [Pg.228]    [Pg.1273]    [Pg.1280]    [Pg.2557]    [Pg.2865]    [Pg.178]    [Pg.258]    [Pg.49]    [Pg.670]    [Pg.250]    [Pg.209]    [Pg.64]    [Pg.91]    [Pg.540]    [Pg.419]    [Pg.411]    [Pg.321]    [Pg.451]    [Pg.338]    [Pg.2484]    [Pg.2484]    [Pg.236]    [Pg.372]    [Pg.652]    [Pg.737]    [Pg.949]    [Pg.232]    [Pg.11]    [Pg.13]    [Pg.68]    [Pg.81]    [Pg.364]    [Pg.364]    [Pg.301]    [Pg.287]    [Pg.133]   
See also in sourсe #XX -- [ Pg.68 ]

See also in sourсe #XX -- [ Pg.68 ]

See also in sourсe #XX -- [ Pg.68 ]

See also in sourсe #XX -- [ Pg.352 ]




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Absorption field-induced

Alternating fields induced transients

Anisotropy field-annealing induced

Benzene induced magnetic field

Corrosion-induced fields

Coupling field-induced

Crystal-field induced anisotropy

Current field induced

Decaying, field-induced

Degenerate four-wave mixing electric field induced second

Dipole field-induced

Distortion field-induced

EFISH (electric field-induced second

EFISH electric field-induced second harmonic

EFISHG - electric field induced second harmonic

EFISHG - electric field induced second harmonic generation

Electric Field-Induced Patterning Theory

Electric Field-Induced Patterning of Polymer Bilayers

Electric and Magnetic Field-induced Deformations

Electric field induced aggregate formation

Electric field induced deformations

Electric field induced distortions

Electric field induced distortions cholesterics

Electric field induced light scattering

Electric field induced polarization force

Electric field induced quenching

Electric field induced second

Electric field induced second harmonic EFISH) technique

Electric field induced second harmonic generation , nonlinear optical

Electric field-induced alignment

Electric field-induced alignment polymers

Electric field-induced phenomena

Electric field-induced second harmonic

Electric field-induced second harmonic generation

Electric field-induced second harmonic generation EFISH)

Electric-field induced birefringent materials

Electric-field induced birefringent materials photorefraction

Electric-field induced nanostructuring

Electric-field induced second-harmonic frequency mixing

Electric-field-induced

Electric-field-induced metal

Electric-field-induced metal migration

Electric-field-induced resistive

Electric-field-induced resistive switching

Electric-field-induced second harmonic generation experiment

Electric-field-induced second harmonic generation technique (EFISH

Electric-field-induced second harmonic generation technique)

Electrical Field-Induced Membrane Fusion

Electrical field-induced Pockels

Electrical field-induced Pockels effect

Electron transfer field-induced

Field Aided Optically Induced Nonlinear Optical Effects in Liquid Crystals Photorefractivity

Field Induced Anharmonicity and Dynamics of the Helix

Field induced cholesteric-nematic transition

Field induced direct ionization

Field induced distortions, chiral nematics

Field induced magnetostriction

Field induced resonances

Field-Induced Changes in Symmetry

Field-Induced Dielectric Instabilities of Cholesterics

Field-Induced Director Axis Reorientation Effects

Field-Induced Dissociation

Field-Induced Distortions in Chiral Nematics

Field-Induced Effects and Dynamics

Field-Induced Nanoscale Water Bridges and Tip-Based Oxidation Nanolithography

Field-Induced Order in the Isotropic Phase

Field-Induced Periodic Structures

Field-Induced Refractive Index Change and Phase Shift

Field-Induced Shifts of the Phase Transition Temperatures

Field-Induced Surface Phenomena

Field-Induced Water Bridge Formation between Two Parallel Metallic Plates

Field-Induced Water Bridge Formation in a Nonplanar Interface

Field-induce order

Field-induced alignment

Field-induced barrier

Field-induced birefringence

Field-induced birefringence dipole suspension

Field-induced birefringence dynamic susceptibilities

Field-induced birefringence evaluation and comparison

Field-induced birefringence first order

Field-induced birefringence function

Field-induced birefringence generation

Field-induced birefringence mechanical orientation

Field-induced birefringence moment

Field-induced birefringence optical anisotropy orientation

Field-induced birefringence results

Field-induced birefringence second order

Field-induced birefringence third order

Field-induced carriers, transport

Field-induced disengagement time

Field-induced droplet ionization

Field-induced electromigration

Field-induced ferroelectricity

Field-induced injection

Field-induced isothermal magnetic

Field-induced mixing of states

Field-induced ordering

Field-induced orientation

Field-induced orientational order

Field-induced quantities

Field-induced quantities resonances

Field-induced refractive index changes

Field-induced reorientation

Field-induced superconducting

Field-induced superconducting state

Field-induced three-dimensional

Field-induced three-dimensional ordering

Field-induced transition

Hyperpolarizability electric field-induced second harmonic

Induced Dipole Forces in a Radiation Field

Induced Magnetic Fields and NMR Parameters

Induced electric field induction

Induced field effects

Induced magnetic field

Induced magnetic field quantum mechanics

Initiation electric field induced

Kerr effect, field-induced birefringence

Magnetic Field-Induced Director Deformation

Magnetic field effects induced distortions

Magnetic field induced martensite

Magnetic field induced orientation

Magnetic field-induced deformation

Magnetic field-induced enantiomeric

Magnetic order field-induced

Magnetic phase transitions field-induced

Mobility field induced shift

Molecular distortion induced electric field

Nonlinear optics electric-field-induced technique

Observation of Field-Induced Water Bridges with a Force Microscope

Optical magnetic field-induced

Optical-Field-Induced Orientational Order

Optical-field-induced director reorientation

Orientation electric field-induced

Orientational optical-field-induced

Oxidation field-induced process

Pattern Formation by Electric-Field-Induced Dewetting

Pattern electric field-induced

Phase transitions field-induced

Pockels effect, electric field induced

Proton transfer electric field induced

Quadrupole Contribution and Field-Induced Symmetry Breaking

Radiation-induced conductivity high field

Refractive electric field-induced changes

Refractive index, electric-field-induced

Refractive index, electric-field-induced anisotropy

Reorientation optical-field-induced

Second electric field-induced alignment

Secondary effects of an induced electromagnetic field by external laser fields

Some field induced effects

Splitting crystal field-induced

Strain electric field-induced

Superconductivity field-induced

Superconductivity magnetic field-induced

Switching electric field inducing

Switching external field-induced

Third electric field-induced second harmonic

Third order susceptibility, optical field induced

Third-harmonic generation electric field induced second

Transition, induced by electric field

Twist transitions, optical-field-induced

Water Bridge Formation Induced by an Electric Field

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