How are atoms not in superposition if the electrons are

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Discussion Overview

The discussion revolves around the nature of electrons in atoms, particularly in relation to superposition and chemical bonding. Participants explore concepts of electron transitions, the state of atoms in different environments, and the implications of quantum mechanics on atomic behavior.

Discussion Character

  • Exploratory
  • Debate/contested
  • Technical explanation
  • Conceptual clarification

Main Points Raised

  • Some participants express confusion about how chemical bonds form from electron transitions and question the idea that some atoms can exist without electrons.
  • There is a request for clarification on the sources of information regarding atomic behavior and electron states.
  • One participant suggests that the mass difference between electrons and atomic nuclei affects the visibility of quantum effects.
  • Another participant questions whether individual atoms or cells can exist in superposition, with a response indicating that while individual electrons can, atoms and cells likely do not.
  • A participant describes superposition in terms of quantum mechanics, using the double-slit experiment as an example to illustrate how particles can exhibit wave-like behavior.
  • Another viewpoint emphasizes that all objects, including larger ones, are subject to quantum mechanics and that decoherence explains why superposition is not generally observed in macroscopic objects.
  • There is a discussion about different types of chemical bonds, including ionic and covalent bonds, and how they relate to electron behavior.

Areas of Agreement / Disagreement

Participants express differing views on the existence of superposition in atoms and the implications of quantum mechanics on atomic behavior. There is no consensus on the interpretation of these concepts, and the discussion remains unresolved.

Contextual Notes

Participants reference various interpretations of quantum mechanics and the role of decoherence without reaching a definitive conclusion. The discussion includes assumptions about the visibility of quantum effects and the nature of chemical bonds.

batmanandjoker
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From what I understand chemical bonds arrive from the transitions of electrons between atoms and some atoms for a period of time don't have electrons. I don't understand, I thought electrons were tied to specific atoms. Any help would be greatly appreciated.
 
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batmanandjoker said:
From what I understand chemical bonds arrive from the transitions of electrons between atoms and some atoms for a period of time don't have electrons. I don't understand,

Where exactly did you understand this from? Were you taught this, or did it come from something you read?

Zz.
 
I read this online but what's the truth? Any clarification would be greatly appreciated. And by atoms I mean those not isolated from the enviorment.
 
batmanandjoker said:
I read this online but what's the truth? Any clarification would be greatly appreciated. And by atoms I mean those not isolated from the enviorment.

I'd like to know the source. If you misread or misunderstood the source, then the rest of your question is moot, and it will be a waste of time trying to correct a non-existent concept. We should be correcting your misinterpretation of the source instead.

Zz.
 
batmanandjoker said:
From what I understand chemical bonds arrive from the transitions of electrons between atoms and some atoms for a period of time don't have electrons. I don't understand, I thought electrons were tied to specific atoms. Any help would be greatly appreciated.

Partly the difference has to do with mass. An atomic nucleus is thousands of times more massive than an electron. Quantum effects are less noticeable for more massive objects. That might be the basis for whatever it is that you read.
 
ZapperZ said:
I'd like to know the source. If you misread or misunderstood the source, then the rest of your question is moot, and it will be a waste of time trying to correct a non-existent concept. We should be correcting your misinterpretation of the source instead.

Zz.
Quote Quote by batmanandjoker View Post
But are some of the individual atoms or even cells inside my body in superposition?

sci advisor nugatory
Cells or even atoms? No. (OK, you can say "maybe" if you want, but as with my flying table we're talking "maybe" so small that it is might as well be "never").

Individual electrons? Sure, happens all the time, it's part of how chemical bonds are formed.
 
batmanandjoker said:
Quote Quote by batmanandjoker View Post
But are some of the individual atoms or even cells inside my body in superposition?

sci advisor nugatory
Cells or even atoms? No. (OK, you can say "maybe" if you want, but as with my flying table we're talking "maybe" so small that it is might as well be "never").

Individual electrons? Sure, happens all the time, it's part of how chemical bonds are formed.

And my immediate response here is to ask you why you didn't pursue this question right there and then, rather than starting a new thread that is out of context to the original situation? What thread is this from, and why didn't you get the clarification in that thread?

Zz.
 
The way I interpret superposition is as such:

You have a really tiny object, so small you can't see it or detect it directly (such as an electron), and since we can't see it, we can't say exactly what state it is in, we have a good idea from our indirect measurements, but how accurate are our measurements? What exactly is happening to our object? Take the double slit for example:

If we launch an electron at our interference device, which slit is it going to go through? left or right? we have virtually no way of knowing without interfering with the results even more. So what we say is (based on the interference and duality of particles in states of quantum superposition) that it goes through both slits at the same time.

You say that atoms don't exist in superimposed states? Explain this to me then: Why do we experience the same interference pattern when we perform the double slit with much larger objects, such as hydrogen atoms?
http://www.livescience.com/19268-quantum-double-slit-experiment-largest-molecules.html
Check out this link, I might not be hitting your question right on the nose, but a lot of quantum effects do come from superposition, and this is one of them, demonstrated with molecules containing upwards of 114 atoms each!
I hope this sheds some light.

--BYH
 
BiGyElLoWhAt said:
The way I interpret superposition is as such

There is one way, and one way only, to interpret superposition.

The pure states form a vector space.

That's it - that's all. All objects - subatomic particles, atoms, everyday objects, stars, galaxies, everything, obeys the laws of QM. The principle of superposition applies to them all.

Why we 'generally' do not detect it in the macro world has to do with decoherence.

Thanks
Bill
 
  • #10
Are you speaking about ion and dipole bonds?
 
  • #11
Do a search for ionic bonds and covalent bonds. In ionic bonds an electron is transferred from one atom to another:
H+ Cl-(aq) , Na+Cl-
In covalent bonds electrons are shared, but not always with equal distance : H2O is a polar covalent bond.
To clarify above in case of Hydrogen Chloride gas HCl (g) This is a covalent bonded molecule. In solution it
is ionized to H+ Cl- and hydrated by water molecules.
 
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