Big Chemical Encyclopedia

Chemical substances, components, reactions, process design ...

Articles Figures Tables About

Negative electrons

For simplicity a cell consisting of two identical electrodes of silver immersed in silver nitrate solution will be considered first (Fig. 1.20a), i.e. Agi/AgNOj/Ag,. On open circuit each electrode will be at equilibrium, and the rate of transfer of silver ions from the metal lattice to the solution and from the solution to the metal lattice will be equal, i.e. the electrodes will be in a state of dynamic equilibrium. The rate of charge transfer, which may be regarded as either the rate of transfer of silver cations (positive charge) in one direction, or the transfer of electrons (negative charge) in the opposite direction, in an electrochemical reaction is the current I, so that for the equilibrium at electrode I... [Pg.77]

The sign of V(r) at any point in space depends on whether the nuclear contribution (positive) or the electronic (negative) dominates. For neutral, spherically-averaged free atoms, V(r) is positive everywhere, decreasing monotonically with radial distance from the nucleus [3, 4]. When atoms interact to form molecules, however, the concomitant polarization of their charge distributions (relatively minor but very important) results in the development of regions of negative potential. These occur primarily... [Pg.233]

Hydrogen formation by electrons, negative ions and hydrogen atoms... [Pg.164]

There are as many electrons as protons in each atom, so the electrons negative charge and the protons positive charge balance each other out. As a result, atoms have a neutral charge. Neon has 10 protons and 10 electrons. Some elements tend to gain or lose one or more electrons, but it s still the same element. [Pg.15]

Electrons Negatively charged particles found in the space around the nucleus of an atom. [Pg.100]

Pulse Radiolysis Studies on the Mechanism of the High Sensitivity of Chloromethylated Polystyrene as an Electron Negative Resist... [Pg.151]

L For the same configuration, that is to say, for an equal number of electrons, negative ions will be considerably larger than positive ions, e.g. rj.- > r a+. [Pg.35]

Fig. 1.11 Photoelectron spectroscopy, (a) Schematic illustration of apparatus, comprising radiation source, sample, electron energy analyser and detector, all in a vacuum chamber, (b) Spectrum obtained from solid CdO, using X-rays of photon energy 1284 eV. (c) Interpretation of peaks in spectrum. The zero of energy in this scale corresponds to electrons with just sufficient energy to leave the solid positive values are the kinetic energies of emitted electrons, negative values correspond to the binding energies of electrons in the solid. Fig. 1.11 Photoelectron spectroscopy, (a) Schematic illustration of apparatus, comprising radiation source, sample, electron energy analyser and detector, all in a vacuum chamber, (b) Spectrum obtained from solid CdO, using X-rays of photon energy 1284 eV. (c) Interpretation of peaks in spectrum. The zero of energy in this scale corresponds to electrons with just sufficient energy to leave the solid positive values are the kinetic energies of emitted electrons, negative values correspond to the binding energies of electrons in the solid.
Figure 5-34. The deprotonation of an iron(m) complex of a macrocyclic amine to give an iron(m)-amido complex. The presence of the lone pair of electrons (negative charge) on the deprotonated nitrogen atom is emphasised ( ). Figure 5-34. The deprotonation of an iron(m) complex of a macrocyclic amine to give an iron(m)-amido complex. The presence of the lone pair of electrons (negative charge) on the deprotonated nitrogen atom is emphasised ( ).
Atoms and molecules that contain a charge are called tons. Ions have either a positive charge or a negative charge. Positive ions have more protons than electrons. Negative ions have more electrons than protons. Sodium chloride, which is the chemical name for table salt, is made of positive sodium ions and negative chlorine ions. [Pg.2]

Electrons Negatively charged, subatomic particles inside the atom they allow one atom to bond with another atom. [Pg.105]

The current from the left (i = L) or right (i = R) contact to the nanosystem is determined by (note, that we consider e as the charge of the electron (negative) or the hole (positive))... [Pg.257]

Electrons Negatively charged (-1) particles that exist in "clouds" around the atomic nucleus. Electrons have a mass of approximately 1/1837 amu. [Pg.1]


See other pages where Negative electrons is mentioned: [Pg.13]    [Pg.467]    [Pg.631]    [Pg.462]    [Pg.84]    [Pg.199]    [Pg.101]    [Pg.155]    [Pg.20]    [Pg.156]    [Pg.370]    [Pg.203]    [Pg.37]    [Pg.76]    [Pg.143]    [Pg.29]    [Pg.170]    [Pg.33]    [Pg.43]    [Pg.412]    [Pg.1185]    [Pg.1298]    [Pg.89]    [Pg.233]    [Pg.88]    [Pg.44]    [Pg.242]    [Pg.51]    [Pg.140]    [Pg.271]    [Pg.101]    [Pg.407]    [Pg.108]    [Pg.12]    [Pg.141]    [Pg.389]    [Pg.292]   
See also in sourсe #XX -- [ Pg.27 ]

See also in sourсe #XX -- [ Pg.164 ]




SEARCH



Cross-linking negative electron

Effective negative electron affinity

Electron A negatively charged particle that

Electron A negatively charged particle that mass and charge

Electron A negatively charged subatomic

Electron affinity The negative

Electron affinity negative

Electron capture negative ion

Electron capture negative ion mass spectrometry

Electron capture negative ionization

Electron capture negative ionization ECNI)

Electron ionization negative ions produced

Electron microscopy negative scanning

Electron negative charge

Electron negativity equalization

Electron resists negative

Electron resonance capture negative ionization

Electron transfer reactions negative charge

Electron-beam resist negative

Electron-capture negative ionisation

Electrons Negatively charged particles

Electrons Negatively charged particles valence, 7, 8 (Table

Electrons, with negative energy

Gas chromatography/electron-capture negative-ion chemical ionization

Negative Electron Affinity (NEA) Devices

Negative electron affinity silicon

Negative electron beam resist methacrylate)

Negative electron beam resist poly

Negative electron beam resists

Negative electron beam resists resolution

Negative electron capture

Negative electron capture dissociation

Negative electron resist

Negative electron resist chloromethylated polystyrene

Negative electron resist properties

Negative electron resist sensitivity curve

Negative electron transfer dissociation

Negative electron transfer dissociation NETD)

Negative electron-beam resists characteristics

Negative electrons, indicating

Negative-Ion Mass Spectra and Electron Affinities

Negative-electron ionization

Negatively charged electron

Phenolic resin based negative electron beam

Phenolic resin based negative electron beam resist

Photocathodes negative electron affinity

Photodetachment from negative ions and photo-assisted electron diffusion

Poly , cross-linking negative electron resists

Scanning electron micrograph of negative

Scanning electron micrograph of negative images

Transmission electron microscopy negative staining

© 2024 chempedia.info