if gravity A exist, why when you put 2 protons in
proxymity together they dont stick together becus
the high gravity?

then how to convert this gravity A to gravity B?

why is relativity only working for gravity B?

are there a gravity C?

xgl wrote:
if gravity A exist, why when you put 2 protons in
proxymity together they dont stick together becus
the high gravity?

I have no idea what you mean by "gravity A", "B", or "C".

But I do know that for two protons, _classically_, the attractive force
of gravity is some 10^38 times smaller than the electromagnetic
repulsion between them. So classically, they don't "stick together" by
an enormous factor.

Note, however, that such a classical estimate has no bearing on whether
protons stick together; quantum effects are important. While two protons
do not bind together, add a neutron and they do (He-3).


Tom Roberts

Tom Roberts wrote:
xgl wrote:
if gravity A exist, why when you put 2 protons in
proxymity together they dont stick together becus
the high gravity?

I have no idea what you mean by "gravity A", "B", or "C".

But I do know that for two protons, _classically_, the attractive force
of gravity is some 10^38 times smaller than the electromagnetic
repulsion between them. So classically, they don't "stick together" by
an enormous factor.

Note, however, that such a classical estimate has no bearing on whether
protons stick together; quantum effects are important. While two protons
do not bind together, add a neutron and they do (He-3).


Tom Roberts

dear Mister Tom

thank you for your email

mister lazar bob said that gravity A is a strong gravity
holding the nucleus of the atoms together

does it helps?

xgl wrote:
then how to convert this gravity A to gravity B?

why is relativity only working for gravity B?

are there a gravity C?

I don't if this might help, but when I hear Gravity B, I assume someone
is talking about Gravity Probe B, the space shots meant to measure some
subte GR effects. There was a Gravity Probe A as well. We expect
results from GP-B to be published early next year.

http://en.wikipedia.org/wiki/Scout_rocket_experiment

http://en.wikipedia.org/wiki/Gravity_Probe_B

Neither would have any obvious connections to sticking protons together
though.

--
Randy M. Dumse

Caution: Objects in mirror are more confused than they appear.

Tom Roberts wrote:
But I do know that for two protons, _classically_, the attractive force
of gravity is some 10^38 times smaller than the electromagnetic
repulsion between them. So classically, they don't "stick together" by
an enormous factor.

Note, however, that such a classical estimate has no bearing on whether
protons stick together; quantum effects are important. While two protons
do not bind together, add a neutron and they do (He-3).

Hey, here's a thoht: As protòns are composite, there are gaps between
their quarks. So it would be possibil to force two protòns together
with finite ènèrjy so they hit neutral acceleration and make a
hèxaquark.