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Niaboc67
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As the title suggests. What is the space between the nucleus and electrons of an atom?
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Yes, there IS an energy bond, but I don't understand how you are relating that to the amount of space.mainliner said:Its some sort of energy bond?
As phinds says, that's not really a clearly defined concept. However, we can give you an answer that may be close to what you're trying to ask:Niaboc67 said:As the title suggests. What is the space between the nucleus and electrons of an atom?
Niaboc67 said:Ok, I thought I was clear. What is in the space between them. Meaning not what the nucleus or electron are composed of and not there distance. But what is in the SPACE of the atom excluding the nucleus and electron.
Niaboc67 said:Ok, I thought I was clear.
It's one angstrom.Niaboc67 said:As the title suggests. What is the space between the nucleus and electrons of an atom?
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Uh, that is not what I would say. There are some very strong fields in that region, both the electron field and the EM field.Nugatory said:Ah - that's easy. Nothing - it's a vacuum.
DaleSpam said:There are some very strong fields in that region, both the electron field and the EM field.
You are probably right. I would guess that the OP was not asking about fields, but that is all there is at the subatomic level. At that level even matter is just fields.Nugatory said:was thinking that fields (which are present everywhere) wasn't what OP had in mind.
At those scales matter is also described by fields. In other words there is a field for electrons and the electron around the nucleus is an excitation of this field. That matter field is quite strong in the space surrounding the nucleus.Niaboc67 said:I know those fields exist. Is there any sort of matter that resides in those places?
That certainly would be correct in the Rutherford and Bohr models of the atom, but both of those have been superseded for quite some time. In modern theories that region is filled with fields, including matter fields.JLowe said:The way I understood this question is that there is quite a bit of "empty space" in a normal atom under normal conditions.
DaleSpam said:That certainly would be correct in the Rutherford and Bohr models of the atom, but both of those have been superseded for quite some time. In modern theories that region is filled with fields, including matter fields.
Compressibility does not imply the existence of empty space, and the fact that energy is required seems to imply the opposite. After all, how much work does it take to compress vacuum?JLowe said:To me this implies that an object like the Earth has plenty of room to compress its size, although I realize the energy required is immense.
A field is any physical quantity that has a value (which may be 0) at each event in spacetime.Niaboc67 said:I'd like to hear you idea of what a field is even if you aren't an expert on it.
DaleSpam said:Compressibility does not imply the existence of empty space, and the fact that energy is required seems to imply the opposite. After all, how much work does it take to compress vacuum?
Exactly. Compressing vacuum is easy. Compressing atoms is not.JLowe said:And compression of vacuum is "easy" until pressure is equalized correct? At which point it begins taking more and more energy to force more matter into the same volume.
In a neutron star the material is fundamentally different. There are no longer atoms which have been squeezed. The squeezing destroys the electrons and protons and creates neutrons. It is primarily the absence of electrons which accounts for the higher density.JLowe said:What is it that is actually gets compressed then in a neutron star?
DaleSpam said:In a neutron star the material is fundamentally different. There are no longer atoms which have been squeezed. The squeezing destroys the electrons and protons and creates neutrons. It is primarily the absence of electrons which accounts for the higher density.
The space between the nucleus and electrons is known as the electron cloud. It is a region surrounding the nucleus where electrons are most likely to be found.
The space between the nucleus and electrons is determined by the energy level of the electrons. Electrons with higher energy levels are found further from the nucleus, while those with lower energy levels are closer to the nucleus.
Yes, the space between the nucleus and electrons can change. When an electron gains or loses energy, it can move to a different energy level, thus changing its distance from the nucleus.
The space between the nucleus and electrons is important because it determines the chemical and physical properties of an atom. The number and arrangement of electrons in the electron cloud affects how atoms bond and interact with other atoms.
No, we cannot measure the exact space between the nucleus and electrons. The electron cloud is constantly in motion and its exact location cannot be determined. We can only calculate the probability of finding an electron in a certain region of space.