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Ion energy

Ion energy loss spectrum. A spectrum that shows the loss of translation energy among ions involved in ion/neutral reactions. [Pg.444]

The spectroscopy of ion lasers is generally less well understood than that of neutral atom lasers because of the lack of detailed knowledge of ion energy-level schemes. Indeed, ion lasers were first produced accidentally and attempts to assign the transitions came later. [Pg.355]

The physical removal of surface material is called sputtering, where energetic, chemically inert ions such as Ar" or Xe" are accelerated toward the wafer and physically eject material from the surface. The yield is defined as the ratio of the number of ejected surface atoms to the number of incoming ions per given ion energy. [Pg.352]

Figure 7 shows a contribution from ion energy straggling in the sample. This, of course, is zero for near-surface layers and gets rapidly worse for layers several thousand A deep, or for (a, <[)) in grazing configurations. [Pg.499]

The curve labeled geometry illustrates the kinematic energy spread due to the finite acceptance angle of the detector. The multiple scattering contribution arises from the spread in ion energies introduced by secondaiy scattering events. [Pg.499]

Ni(IIO). The top part of the figure shows the scattering geometry. The primary ion energy was 101 keV. [Pg.509]

Fig. 3.21. SIMS spectra obtained from a high-speed steei. (A) primary ions OJ no secondary ion energy iimitation eiec-tropositive eiements are sensitive many moiecuie ions are visibie. (B) same conditions but 300 Voffset was used the moiecuie ion intensities are reduced significantiy. (C) Primary ions Cs" 300 Voffset was used therefore eiectronegative eiements are detected more sen-sit iveiy. Fig. 3.21. SIMS spectra obtained from a high-speed steei. (A) primary ions OJ no secondary ion energy iimitation eiec-tropositive eiements are sensitive many moiecuie ions are visibie. (B) same conditions but 300 Voffset was used the moiecuie ion intensities are reduced significantiy. (C) Primary ions Cs" 300 Voffset was used therefore eiectronegative eiements are detected more sen-sit iveiy.
After post-ionization in the 3 cm long cylindrical plasma space between sample surface and the opposite wall, SN" enter a 90° electrostatic ion energy analyzer (ion optics) suppressing ionized plasma gas particles to a degree of 10 -10 noise levels are correspondingly low (1 cps). The transmission of the electrostatic ion optics is in the range of a few per cent. [Pg.126]

A solid sample is bombarded with a stream of inert gas ions. Some of these ions are backscattered with some loss of energy after colliding with the surface atoms. Analysis of the scattered ion energies is done for identification of the surface atoms present. [Pg.518]


See other pages where Ion energy is mentioned: [Pg.309]    [Pg.309]    [Pg.800]    [Pg.1830]    [Pg.2806]    [Pg.2927]    [Pg.2927]    [Pg.2932]    [Pg.125]    [Pg.130]    [Pg.394]    [Pg.395]    [Pg.395]    [Pg.381]    [Pg.518]    [Pg.521]    [Pg.19]    [Pg.360]    [Pg.362]    [Pg.473]    [Pg.473]    [Pg.474]    [Pg.474]    [Pg.474]    [Pg.497]    [Pg.499]    [Pg.502]    [Pg.507]    [Pg.534]    [Pg.681]    [Pg.683]    [Pg.683]    [Pg.690]    [Pg.107]    [Pg.107]    [Pg.117]    [Pg.164]    [Pg.165]    [Pg.414]    [Pg.417]    [Pg.442]   
See also in sourсe #XX -- [ Pg.360 , Pg.361 ]




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Apparatus for Mass Spectrometric Studies of Ion-Molecule Reactions at Pressures Above 1 Torr and Thermal Energies

Barsukov and V. S. Tverdokhleb omposite Anode Materials for High Energy Density ithium-Ion Batteries

Collision energy reactant ions)

Critical ion energy deficit

Dimethyl metal ions, bond energies

Effect of Inelastic Energy Loss on Ion Mobility

Electrode potential and ion energy levels in electrodes

Electrostatic Free Energy of Ion Transfer

Electrostatic energy of ions in a uniform background

Energies dimethyl metal ions

Energies of Atoms and Atomic Ions

Energies of Ion Systems and the Born Treatment

Energies of confined helium and isoelectronic ions

Energy Distribution in Products of Ion-Molecule Reactions

Energy Effects in Ion-Molecule Reactions

Energy Ion Scattering

Energy Ion Scattering (MEIS)

Energy Level Diagrams for the Lanthanide Ions, and their Electronic Spectra

Energy Transfer Between Two Rare Earth Ions

Energy analysis of product ions

Energy dependence of ion mixing

Energy diatomic positive ions

Energy distribution of ions

Energy level diagrams and crystal field spectra of transition metal ions

Energy level diagrams lanthanide ions

Energy levels atoms + atomic ions

Energy levels molecules + molecular ions

Energy lithium ion battery

Energy lithium-ion

Energy molecular ion

Energy of the free ion

Energy transfer between ions

Energy transfer between organic ligands and rare earth ions

Energy transfer from transition metal ions

Energy transfer from transition metal ions elements

Enolate ions stabilization energy

Field ion energy distributions

Free energy of ion transfer

Free-ion energy level structure for

Free-ion energy levels

Gibbs energy change on transfer of ions from water to organic

Gibbs energy of an ion

Gibbs energy of ion transfer

HEIS (high-energy ion scattering

Halide ions, HOMO energies

High Energy Secondary Ions

High-energy ion scattering

High-energy ion scattering spectroscopy

Hydrated ions binding energies

Hydrogen ions, translational energy

Hydronium ions solvation free energy

Incident ion energy

Internal Energy and the Further Fate of Ions

Internal energy of +ions

Ion Damage Energy

Ion Energy Determination

Ion Transfer Energies and Galvani Potentials

Ion energy distribution

Ion energy spectrum

Ion free energy

Ion internal energy

Ion kinetic energy

Ion recombination energy

Ion transfer energy

Ion translational energy

Ion, solvation energies

Ion-Molecule Collision Energies

Ion-dipole energy

Ion-molecule interaction energies

Ionization energy atoms and ions

Ions, isolated, self-energy

Isoelectronic ions, energies

Isomeric ions, reactive probing potential energy surfaces

Kinetic energy of the ions

Kinetic energy of the scattered ion

Kinetic energy, of ions

Lanthanide ions energy levels

Lattice Energy and Ion Solvation Enthalpy

Low Energy Ion Implantation

Low energy ion scattering spectroscopy

Low energy ion scattering spectroscopy LEISS)

Low-energy ion scattering, LEIS

Low-energy-ion scattering spectrometry

MEIS (medium-energy ion

Mass-analysed ion kinetic energy

Mass-analysed ion kinetic energy spectrometry

Mass-analysed ion kinetic energy spectroscopy

Mass-analyzed ion kinetic energy

Mass-analyzed ion kinetic energy spectrometer

Mass-analyzed ion kinetic energy spectrometry

Mass-analyzed ion kinetic energy spectroscopy

Mass-analyzed ion kinetic energy spectrum

Medium - Energy Ion Scattering (MEIS

Medium energy ion scattering

Medium-Energy Ion Scattering with Channeling and Blocking, MEIS

Metal hydride ions, bond energies

Metal oxide ions, potential energy surface

Necessary Basics Elements, Isotopes, Ions, Chemical Reactions, Energy Metabolism, and Bacterial Structures

Nitrogen ions energy levels

Non-Linear Approach to the Energy Loss of Ions in Solids

Nonradiative Transitions in Rare Earth Ions The Energy-Gap Law

Patterns in Hydration Energies (Enthalpies) for the Lanthanide Ions

Potassium ion channel Potential energy curves

Potential energy of ion

Potential energy surface hydronium ions

Primary ion energy

Reactions of Ions with Known Internal Energies

Recombination Energies of Positive Ions

Recombination energy doubly-charged ions

Reduced cluster ion energy

Rigid ion lattice energy minimization

Rigid ion lattice energy minimization calculations

Scattering low-energy ion

Secondary Ion Mass, Energy, and Intensity Scales

Secondary ion energy distribution

Standard Gibbs energy of ion transfer

The Coulomb interaction energy of two polarized ions at distance

The Energy Level Diagrams of Individual Ions

The Inner-Shell Reorganization Energy Exchange Rates of Aquo Ions

The dissociation energy of a spherical ion pair at zero kelvin

The hydrogen molecular ion energy consideration

The potential energy curve of a spherical ion pair

Transition metal ions, potential energy surface

Translational energy release in the decomposition of metastable ions

Trends in Lattice Energies Ion Size

Trivalent ions, energy levels

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