Sentence examples for much larger electron from inspiring English sources

Potassium has almost twice the number of electrons as sodium or magnesium; therefore, K+ was identified by a much larger electron density peak than that for the smaller sodium metal.

By contrast, the σ* orbital displays interactions with four groups in the xy plane, namely the oxo, Asp133, His187 and succinate groups, and, therefore, it will be considerably higher in energy than the LUMO in R. Consequently, R′ will have a much larger electron affinity than R and it will cost R more energy to abstract electrons from substrates.

In physical situations the ion mass is usually much larger than the electron mass so that the electrons move much faster than the ions.

At 1.5 K, the measured electron density (mobility) was 1.80×1011 cm −2(2.17×106cm2V−1s−1) therefore, the mean free path is over 10 μm which is much larger than the electron propagation length.

Taking into account the AFM data on the QD sizes, we used the model of infinitely thick QDs (the height is much larger than the electron inelastic mean free path) on the surface with a thin wetting layer.

While most of the previous studies have focused on the long-wavelength range, a full-particle simulation with much larger ion-to-electron mass ratio (RM = 400) shows the growth of the hybrid scale CSKI as predicted by linear analyses.

Because the thermal speed of electrons is much larger than that of ions, the electron impact on satellites is of prime interest for satellite anomaly diagnosis, especially in low Earth orbit (LEO) environments below an altitude of 1000 km.

This is because it leads to a transfer of the much larger polarization of these electron spins under suitable irradiation to surrounding nuclei, greatly increasing NMR sensitivity.

The main difference appears to come from the higher metal concentration leading to spatially and temporally more extended regions of high temperature around metal particles in the matrix, enabling much larger diffusion distances of electrons and metal ions or atoms.

The fraction of the fast-electron energy lost in the form of bremsstrahlung is less than 1 percent for low-energy electrons in light materials but becomes a much larger fraction for high-energy electrons in materials with high atomic numbers.

In thin plasma with a density of < ~ 100 cm−3 (outside of the plasmapause), the inflow photoelectron current, I ph (few nA/cm2, few 10 s nA), is much larger than the outflow ambient electron current, I e (< 1 nA/cm2, < 10 nA).