This is a reasonable assumption if the spacing between atoms is (much) larger than the atomic extent.
The artificial atoms are much smaller than the wavelength of the transmitted signals, which is of the order of the length of the resonator (23 mm).
Moreover, we also compare the different roles of Ga and N atoms in the crystal property, and find that the system containing more N atoms is much more instable than that containing more Ga atoms.
On the one hand, the number of surface atoms is much greater than the normal bulk catalysts and the size of nanoparticle is small.
Hydroxyl (OH) and ozone (O3) are the most abundant tropospheric oxidants, but chlorine atoms are much more reactive and can oxidize functional groups or whole molecules that are resistant to the weaker common oxidants.
In PF5, for example, the fluorine atoms, being much more electronegative than the phosphorus atom, draw away a portion of the phosphorus electrons, leaving the outer d orbitals more exposed to the phosphorus nucleus and therefore more stable.
Diffusion-controlled reactions involving C, O and N atoms are much less efficient on grain surfaces, and the predicted abundances of several molecules, formed in many published models of grain surface chemistry have to be revised downwards.
A stream of such atoms is thus also a wave-beam with an extremely short wavelength for the heavier a particle, the shorter the wave associated with it, and rubidium atoms are much heavier than photons, the particles of light.Theories of quantum gravity predict that atomic beams will feel the pull of the space-time continuum itself.
The carbon atoms are much more easily bonded to the tungsten atoms than hydrogen atoms, though a few of the latter can also penetrate into the tungsten sample.
Thus, the distance between Fe atoms is much greater than the distance between the Fe atom and the oxygen vacancy V(O).
