Yes, as electrons get farther from the atomic nucleus they are less attracted to that nucleus, which is exactly what you would expect on the basis of Coulomb's Law, F=q1q2/r2 as the radius of the orbit increases the attractive force becomes decreased.
attraction forces between the electrons of one atom and the nucleus of the other atom are balanced by the repulsive force caused by the two + charged nuclei as they are forced together~attractive forces have a little attraction for the atoms.
electric forces can be attractive or repulsive, whereas gravitational forces are only attractive.
Inside an atom's nucleus there is a neutron, which has no charge, therefore no attractive or repulsive forces. The proton carries a positive charge, though, and repels the negative charge of the electron particle which exists somewhere outside of the nucleus.I'm yet of the old technology which thinks that protons and electron attract. Of course, that doesn't explain why the electron don't crash into the proton, but that's another story.
It is only attractive in nature. I am not sure which nuclear force you talk about. Electrical forces of the nucleus are repulsive to the positively charged. There are "strong forces" and the like which are attractive.
The main difference in the equations is that electrical forces can be attractive or repulsive, while gravitational forces are always attractive.
attraction forces between the electrons of one atom and the nucleus of the other atom are balanced by the repulsive force caused by the two + charged nuclei as they are forced together~attractive forces have a little attraction for the atoms.
kolorita
The electrostatic forces between the protons and the electrons keep it in orbit.
Because they are farther away from the nucleus than protons, and they have more freedom as in where to move, because they fly around the nucleus in no particular order.
Well scientifically speaking the strong force causes protons and neutrons to be attracted to each other. Attractive forces between the protons and neutrons keeps the nucleus together. This is one of the four basic forces in nature.But when the protons and neutrons start to move farther apart the strong force gets weaker, and weaker the farther they move and will be repelled.
The reason a heavy atom breaks apart is, precisely, because of an instability in its nucleus. Note that the forces within the nucleus are several orders of magnitude stronger than the forces between the nucleus and the electrons.
Yes, dipersion forces increase moving down the halogens, ie from fluorine to chlorine, then bromine, and then iodine. This is a general trend in most groups due to increasing numbers of electrons farther from the nucleus. However, it is especially evident in the halogens. Fluorine is the least polarizable element because of it's electronegativity and the proximty of the electrons to the nucleus (there is a high effective nuclear charge). In iodine, the electronegativity is lower and the electrons are father from the nucleus. Thus, it has much higher dispersion forces caused by temporary dipoles. The trend is true for the rest of the halogens as well.
The positive charge of some components in the nucleus.
The attractive forces are electrical forces between opposing charges.
The coulomb force is the dominant force between the electrons of an atom and the nucleus. It is the standard force of attraction between positive and negative charges. (Of course, the electrons also interact with each other also through the repulsive coulomb force expected of like charges.) The forces between the nucleus and the electrons is the same basic coulomb force fo all electrons, inner electrons or outer electrons or any electrons. (Of course, the type of force is the same but the strength of the force varies with distance being weaker for more distant electrons.) Essentially all of chemistry is determined by this simple inverse square force of attraction and repulsion. Other forces such as the force of gravity or the more exotic nuclear forces and electroweak interactions are so small as to be irrelevant except in special circumstances.)
When metals react, they lose electronsto become stable and sometimes form a compound.Now, electrons are negatively charged, and the nucleus, due to the presence of protons, is positively charged.As the atom of the metalgets bigger in size, the valency shell, which holds the valency electron, becomes farther away from the nucleus.The attraction between the valency electron (on the last shell) and the nucleus decreases, so the atom of this type of metal is considered to be reactive as the electron becomes easily lost due to weak forces pulling it towards the nucleus.
when a bond is formed then the forces of attraction are dominant to the forces of repulsion.for a chemical bond to be formed this is compulsory.