Is Gravity Directly Related to Groupings of Atoms?

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Discussion Overview

The discussion revolves around the relationship between gravity and the groupings of atoms, particularly in the context of Quantum Theory of Gravity. Participants explore whether atomic interactions could influence gravitational effects and how mass density relates to gravity, especially in extreme cases like black holes.

Discussion Character

  • Exploratory
  • Debate/contested
  • Conceptual clarification

Main Points Raised

  • One participant suggests that gravity is proportional to the amount of mass, questioning if atomic interactions could be a trigger for gravity.
  • Another participant challenges the initial claims, stating that there are no known models supporting the idea that atomic interactions trigger gravity.
  • Some participants emphasize that gravity is proportional to total mass rather than density, raising questions about the relevance of particle interactions.
  • A thought experiment is proposed regarding whether 1 trillion hydrogen atoms would produce the same gravitational effect as 1 trillion iron atoms in the same space.
  • Concerns are raised about misconceptions regarding black holes and their gravitational effects on surrounding bodies.
  • Participants discuss the implications of mass density in extreme gravitational scenarios, such as black holes, and whether the gravitational effects would change if the sun were to collapse into a black hole.
  • One participant references the gravitational force equation, suggesting that understanding it could help clarify the discussion on atomic groupings and gravity.

Areas of Agreement / Disagreement

Participants generally disagree on the initial premise regarding gravity and atomic interactions. While some agree that gravity is proportional to mass, there is no consensus on the role of atomic interactions or the implications of density in gravitational effects.

Contextual Notes

There are unresolved assumptions regarding the nature of atomic interactions and their potential influence on gravity. The discussion also highlights a lack of clarity in the initial claims made about gravity and mass.

EsquireWilliam
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According to observations and known models mass is equal to the amount of atoms in a given space, and gravity is proportional to the amount of mass in a given space (ie. Sun > Earth > Moon) If those observations are undeniable then my question remains: is gravity directly related to groupings of atoms (mass) and if so could atoms interactions between one another be the trigger behind the phenomenon we call gravity?

This is a legitimate question regarding personal research into Quantum Theory of Gravity, I am not presenting any personal theory simply asking a scientific question directed towards any readers that have a high-level background in the fields of Quantum, Particle and Theoretical physics. Thanks for reading and any comments/responses.
 
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Hi Bill, :welcome:

My guess is your post will go into a black hole once discovered by a moderator. You ask at an advanced level but you state at a subzero level. I don't know of any observations or known models that claim what you claim. Any references ?

The logic is also somewhat weird, but perhaps your mother tongue is very different from english. There is no trigger behind gravity.

Good thing you're not presenting any personal theory. Keep asking.
 
Your question is very unspecific. What sort of interaction do you have in mind?

Also, gravity is proportional to the total mass, but not the density. If it were due to the interaction between particles, rather than due to a property of each individual particle, would the distance between adjacent particles and hence mass density not be relevant?
 
PeroK said:
Your question is very unspecific. What sort of interaction do you have in mind?

Also, gravity is proportional to the total mass, but not the density. If it were due to the interaction between particles, rather than due to a property of each individual particle, would the distance between adjacent particles and hence mass density not be relevant?

Okay so we can agree gravity produced by a body is proportional to the mass it has, sorry I did not mention a specific interaction. I cannot be but so specific because of my lack of particle/quantum physics, but i believe it has something to do with the quantum interactions of at least two atoms. Density would be relevant in the observations of black holes covering little space yet producing tremendous gravity, a thought experiment: would 1 trillion hydrogen atoms produce the same gravitational effects as the same amount of atoms of iron contained in the same area? Thanks for the response, great rebuttal!
 
BvU said:
Hi Bill, :welcome:

My guess is your post will go into a black hole once discovered by a moderator. You ask at an advanced level but you state at a subzero level. I don't know of any observations or known models that claim what you claim. Any references ?

The logic is also somewhat weird, but perhaps your mother tongue is very different from english. There is no trigger behind gravity.

Good thing you're not presenting any personal theory. Keep asking.

I'm sorry if you did not understand the question, it takes an 'out of the box' thought process. A simplistic version would be: Does 1 trillion hydrogen atoms grouped in a given space produce the same gravitational effect as would 1 trillion helium atoms in the same space? Also gravity does not exist without a mass, so would it not be in a relationship with mass, possibly on the quantum scale? I'm simply trying to gather answers whether i am on a correct path so far.
 
EsquireWilliam said:
Okay so we can agree gravity produced by a body is proportional to the mass it has, sorry I did not mention a specific interaction. I cannot be but so specific because of my lack of particle/quantum physics, but i believe it has something to do with the quantum interactions of at least two atoms. Density would be relevant in the observations of black holes covering little space yet producing tremendous gravity, a thought experiment: would 1 trillion hydrogen atoms produce the same gravitational effects as the same amount of atoms of iron contained in the same area? Thanks for the response, great rebuttal!

If the sun were much smaller and denser than it is but had the same mass, then its gravitational effect on the planets would be unchanged.

It's a common misconception that if the sun became a black hole it would consume the planets and the rest of the solar system by its supergravity. In fact it wouldn't, and the planets orbits would be unaffected.
 
PeroK said:
If the sun were much smaller and denser than it is but had the same mass, then its gravitational effect on the planets would be unchanged.

It's a common misconception that if the sun became a black hole it would consume the planets and the rest of the solar system by its supergravity. In fact it wouldn't, and the planets orbits would be unaffected.

Okay I understand and your first part agrees with my hypothesis, but if the Sun were to collapse into a black hole logic shows that it would create a inward pull. Is that not correct?
 
EsquireWilliam said:
I'm sorry if you did not understand the question, it takes an 'out of the box' thought process. A simplistic version would be: Does 1 trillion hydrogen atoms grouped in a given space produce the same gravitational effect as would 1 trillion helium atoms in the same space? Also gravity does not exist without a mass, so would it not be in a relationship with mass, possibly on the quantum scale? I'm simply trying to gather answers whether i am on a correct path so far.
It may be a big step back from quantum gravity, but have you ever see this equation:

##F = \frac{GMm}{r^2}##

if you understand this and know the difference between a hydrogen and helium atom, then you could answer your own question.
 
EsquireWilliam said:
Okay I understand and your first part agrees with my hypothesis, but if the Sun were to collapse into a black hole logic shows that it would create a inward pull. Is that not correct?
It already has an inward pull. It's called its gravitational pull/force. That would not in general change if it were a black hole.

You ought to learn some of the basics, you know. You're unlikely to make a breakthrough without them!
 
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EsquireWilliam said:
According to observations and known models mass is equal to the amount of atoms in a given space, and gravity is proportional to the amount of mass in a given space (ie. Sun > Earth > Moon) If those observations are undeniable then my question remains:
As this is incorrect (google for "Einstein field equations" and then study the stress-energy tensor), any conclusions drawn from it will be based on a false premise.

This thread is closed.
 
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