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Gravity is the resultant dynamic of entropic field interaction(s). Energetic systems are propagated through space and time along entropic potential geodesics, energetically attracted to and falling into states of favorable higher entropy.

 

I have a field theory and everything.

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Gravity is the resultant dynamic of entropic field interaction(s). Energetic systems are propagated through space and time along entropic potential geodesics, energetically attracted to and falling into states of favorable higher entropy.

 

I have a field theory and everything.

 

gibberish

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How many other names does this bird have? In any language?<br /><br />I only know of one other conceptual equivalence- acceleration. And it, thus far, has only been expressed as an effective field theory which becomes invalid at the edges.<br /><br />This does not become invalid at the edges.<br /><br /><br /><br /><br /><br /><br /><br /><br /><br /><br />

<br />gibberish<br />
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Gravity is the resultant dynamic of entropic field interaction(s). Energetic systems are propagated through space and time along entropic potential geodesics, energetically attracted to and falling into states of favorable higher entropy.

 

I have a field theory and everything.

 

 

Have you ever seen, "Manmade Gravity" or / Gravity,s fingerprint in Nature?

 

Well, I have in broth cases!

Edited by Amateur -1
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Gravity is the resultant dynamic of entropic field interaction(s).

 

Are you talking about Erik Verlinde's idea [1]?

 

This has attracted some interest over the past few years. It has something like 229 citations!

 

There are of course some deep connections between thermodynamics and general relativity: black hole physics is probably the best place to see this. The idea is that gravity could be some kind of collective phenomena. This is interesting and gives possible links between condensed matter physics and quantum gravity.

 

From what I can gather, experts in the field of gravity, quantum gravity and similar are divided on this.

 

References

 

[1]Erik P. Verlinde. On the Origin of Gravity and the Laws of Newton. JHEP 1104:029,2011

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Doubtful at best

 

So --you ---can ---See---for ---yourself.

 

 

post-66453-0-59851100-1328334709_thumb.jpg

 

 

 

 

 

This action is only momentary, just (A) Is a set of balance scales that are non-magnetic.

 

(a-1) This half is set over the (B) piece of iron

 

(a-2)This half is set out over free space

 

(B) Is a 1ft.x1ft.x1ft. piece of Iron at a temp as [Cold] as you can make it

 

© Is a high temp insulator

 

(D) Is a 1ft.x1ft.x 2ft piece of Iron at a temp as [Hot] as you make it

 

(E) Is a stand to hold the experiment.

 

(F) Is a glass pan filled with sand or any non-magnetic[ Mass] like pea

 

gravel.Once this is set up remove © the high temp insulator

 

(a-1) will lose gravitational pull on it making it rise and

 

(a-2) to lower and at the same time causing the non-magnetic

 

mass in (F) to be attracted to bottom of (D) thus we have man made gravity fields.

 

until the thermal differences equalizes.

Edited by Amateur -1
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So --you ---can ---See---for ---yourself.

 

 

post-66453-0-59851100-1328334709_thumb.jpg

 

 

 

 

 

This action is only momentary, just (A) Is a set of balance scales that are non-magnetic.

 

(a-1) This half is set over the (B) piece of iron

 

(a-2)This half is set out over free space

 

(B) Is a 1ft.x1ft.x1ft. piece of Iron at a temp as [Cold] as you can make it

 

© Is a high temp insulator

 

(D) Is a 1ft.x1ft.x 2ft piece of Iron at a temp as [Hot] as you make it

 

(E) Is a stand to hold the experiment.

 

(F) Is a glass pan filled with sand or any non-magnetic[ Mass] like pea

 

gravel.Once this is set up remove © the high temp insulator

 

(a-1) will lose gravitational pull on it making it rise and

 

(a-2) to lower and at the same time causing the non-magnetic

 

mass in (F) to be attracted to bottom of (D) thus we have man made gravity fields.

 

until the thermal differences equalizes.

 

 

HA! Rubbish

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Thanks for a reply. I thought it presumptuous of the moderator to call my post baseless science and random speculation. I admit that I stated it according to my own understanding but the idea of gravitational attraction, expressed in thermal/entropic dynamics is not fringe. Call me an early adopter.

 

Anyhow, Verlinde's work in a number of different areas helped me along. A paper of his- "On the Origins of Gravity and the Laws of Newton" (early 90's?), was one of the first of which I am aware to give credible arguments regarding the thermal/entropic nature of gravity. I disagreed with his conclusions but liked his approach- associating mutual degrees of freedom between thermal processes and gravitational attraction.

 

Since the early-mid 90's there has been growing momentum (a sense, if I may wax philosophical) in the physical sciences to approach the laws of thermodynamics more pedantically. There does seem to be thermal/entropic dynamics tying all systems together. It may not be a G.U.T. (yet) but entropic dynamics can function as a Rosetta Stone, a framework- giving quantumists the ability to communicate with the relativists and the string people. Not trying to be funny, it's literally what I mean.

 

I have been working on this a long time. I have not been in a position in my life where I could settle in and really focus on it- work, rent, women, kids,etc. Now, at 51, I see a lot of the same ideas I have tinkered with for the last 30 years becoming others' ideas also.

 

Here's the fun part. If one can conceptually and mathematically defend the argument that gravitational attraction is the result of thermal/entropic dynamics, it is not much of a leap to hypothesize it as the fundamental nature of other interactions/phenomena that have been puzzling us. I've been working on using pedantic thermodynamic expressions to explain the nature of energy, motion, matter, quantum properties, string properties, the constancy of c, all sorts of phenomena. My own opinion is that it works. But that is fringe.

 

I put my gravity post up originally because it is, at the very least, a mainstream consideration in regard to the nature of gravity.

 

 

 

 

 

Are you talking about Erik Verlinde's idea [1]?

 

This has attracted some interest over the past few years. It has something like 229 citations!

 

There are of course some deep connections between thermodynamics and general relativity: black hole physics is probably the best place to see this. The idea is that gravity could be some kind of collective phenomena. This is interesting and gives possible links between condensed matter physics and quantum gravity.

 

From what I can gather, experts in the field of gravity, quantum gravity and similar are divided on this.

 

References

 

[1]Erik P. Verlinde. On the Origin of Gravity and the Laws of Newton. JHEP 1104:029,2011

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Erik Verlinde's preprint of this paper was put on the arXiv on Wednesday, 6th January 2010.

 

The general idea that gravity is a phenomenological force due to thermodynamics is older than that. Ted Jacobson in 1995 derived the field equations in a thermodynamic setting [1]. The seeds of these idea are probably much older and lie in black hole thermodynamics.

 

I don't think the jury is still out deliberating these ideas.

 

 

References

 

[1] Ted Jacobson. Thermodynamics of Spacetime: The Einstein Equation of State. Phys.Rev.Lett.75:1260-1263,1995. Also available as arXiv:gr-qc/9504004v2

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Have you done the experiment you propose in the diagram?

If so, what were the conditions and results (and how did you exclude things like convection currents)

If not then you are speculating and shouldn't complain when this is put in speculations.

 

Now, do you actually have any evidence?

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Evidently you do not like to learn for yourself by experimenting.

 

 

It's all well and good experimenting but it is more important to properly understand and interpret the results of your experiments.

 

The chances are if your results say you've produced "man-made-gravity" you've misunderstood something...

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Have you done the experiment you propose in the diagram?

If so, what were the conditions and results (and how did you exclude things like convection currents)

If not then you are speculating and shouldn't complain when this is put in speculations.

 

Now, do you actually have any evidence?

 

I like this point you are making. Just so you know, I will show you some experiments i have done when i figure out how to tape with a webcam. And thanks for bringing up experimentationActuality precedes potentiality.

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  • 3 weeks later...

I like this point you are making. Just so you know, I will show you some experiments i have done when i figure out how to tape with a webcam. And thanks for bringing up experimentationActuality precedes potentiality.

To

 

Tres Juicy, John Cuthber, Homie12

 

Sorry that has taken so long for to get back to you for answers.

 

Yes I have done the experiment sixteen times at a cost of a little over $16,450.

 

with the same results, but I still have the question of, is it blocking gravity to the

 

mass hinging from the balance bar or is it repelling the mass.

 

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mass in (F) to be attracted to bottom of (D) thus we have man made gravity fields.

 

Curious... but what kind of numbers are we talking about here?

 

Mass in (F) will be gravitationally attracted to (D) anyway, but are you saying that (F) will actually levitate and be pulled upward by a force greater than g?

 

How hot is as [Hot] as you can make it and how cold is as [Cold] as you can make it?

 

Do you have photographic or video evidence of it? Thanks.

 

 

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To

 

Tres Juicy, John Cuthber, Homie12

 

Sorry that has taken so long for to get back to you for answers.

 

Yes I have done the experiment sixteen times at a cost of a little over $16,450.

 

with the same results, but I still have the question of, is it blocking gravity to the

 

mass hinging from the balance bar or is it repelling the mass.

 

 

Do you have a link to your data?

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What happens if you only have the very hot iron(d) without the very cold iron(b) in your experiment.What results do you get then.And vice versa cold without hot.

Also what is in a1 and a2 and how much does it weight before and during your experiment?

Edited by derek w
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So --you ---can ---See---for ---yourself.

 

 

post-66453-0-59851100-1328334709_thumb.jpg

 

 

 

 

 

This action is only momentary, just (A) Is a set of balance scales that are non-magnetic.

 

(a-1) This half is set over the (B) piece of iron

 

(a-2)This half is set out over free space

 

(B) Is a 1ft.x1ft.x1ft. piece of Iron at a temp as [Cold] as you can make it

 

© Is a high temp insulator

 

(D) Is a 1ft.x1ft.x 2ft piece of Iron at a temp as [Hot] as you make it

 

(E) Is a stand to hold the experiment.

 

(F) Is a glass pan filled with sand or any non-magnetic[ Mass] like pea

 

gravel.Once this is set up remove © the high temp insulator

 

(a-1) will lose gravitational pull on it making it rise and

 

(a-2) to lower and at the same time causing the non-magnetic

 

mass in (F) to be attracted to bottom of (D) thus we have man made gravity fields.

 

until the thermal differences equalizes.

 

 

What is being demonstrated is hot air rising. The cold iron above gets heated, causing the cold air around it to also heat by thermal induction and rising (as hot air does) pushing against the balance above the cold piece of iron as it heats up. Once it heats up to room temperature (or higher as the metal below simultaneously cools as it transfers heat into the cold lump above and both head towards room temperature) the effect ceases - proving nothing new. I would imagine this experiment would not work nearly so well (at all) in a vacuum. It makes an interesting Rube Goldberg device, though.

 

I'm not sure what to make of the original post that started this thread... I agree that gravity is most likely a field, but I can make heads nor tails of the post itself.

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Curious... but what kind of numbers are we talking about here?

 

Mass in (F) will be gravitationally attracted to (D) anyway, but are you saying that (F) will actually levitate and be pulled upward by a force greater than g?

 

How hot is as [Hot] as you can make it and how cold is as [Cold] as you can make it?

 

Do you have photographic or video evidence of it? Thanks.

 

 

 

Well the hottest that I had was 1854° F and the coldest that I was able to get

 

with my equipment was 17°F.

 

And yes I did have video but I lost it and all my best equipment in hurricane Ike

 

few years back.

 

 

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