electron charge

electron charge

[i′lek‚trän ‚chärj]
(physics)
The charge carried by an electron, equal to about -1.602 × 10-19 coulomb, or -4.803 × 10-10 statcoulomb.
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While conventional electronics control the movement of electrons by means of electric fields acting upon the electron charge, the electron also has a magnetic moment, as if the charged particle were "spinning" about an axis through its centre.
"In fractional quantum Hall states - a type of collective electron state observed only in two dimensional samples at very high magnetic fields - the quasiparticles are known to have precisely a rational fraction of the electron charge, implying that they are anyons," Young said in the release.
Moving to the atomic scale, LCLS has provided the first direct evidence of superfluidity in nanometer-sized quantum systems, and has imaged the process of electron charge transfer to better understand how to harness photosynthesis for energy generation.
To permeate the ether inside the electron, it will exert a force on all internal points where there is the electron charge. This force will be determined by the state of existing ether within it.
Millikan was so successful in his endeavor that he came within one percent of the currently accepted value of the electron charge and was subsequently able to determine the mass of the electron.
The two terms in (1) represent respectively the Coulomb repulsion between the electron charge and the separate PV charges, and their mutual gravitational attraction.
Q is a point on the loop containing a line element a[delta][theta], [upsilon]' is electron drift velocity for a steady loop current, I, where I = nA[upsilon]'e and n is free electron density, A is cross sectional area of conductor and e is electron charge. An electron beam, speed v is directed parallel to the x axis and P is a typical point on the beam, coordinates (b, h, z).
Since changing the direction of the spin does not require much power, the replacement of electron charge with spin can be an appropriate solution to overcome problems in power increasing when dimensions become small in nanoelectronic devices.
Electron Fish attractors are said to create a positive ion field that attracts fish from a distance and a negative electron charge that makes them bite.
Section 4 gives the calculations of the electron charge and the QED coupling constant up to the two-loop level, whereas Section 5, the last section, is devoted to the discussions of the results of all the calculations to explicitly prove the renormalizability of the theory up to the two-loop level, below the decoupling temperature.
An illustrative energy level diagram (Figure 7) describes the electron charge donation from the sensitizer Dye 1 [16].
The research deals with the flow properties of electron charge carriers in memory devices.

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