Einsteins view of gravity is not true reality

[truedreamm]

I am trying to create new gravitational theory , almost mixture of quantum theory and newtons gravitational theory,So I need to review myview.
Placement of planets in solar system is almost perfectly placed in horizontal to the equator of sun. Which can support Newtons view of gravity, but fails to support Einstein view.
If the sun had wrapped the fabric of space, then we can see the effect in 3 dimension space ,then why don't we see any curvature in planets placement towards sun, even in inner planets.
Einstein view of Wrapped fabric of space is only the best 2 dimension model of gravity and space, Makes us to understand how gravity interact or control the 2 dimension space, but it is not pure physical reality. So Einstein view of gravity is only the best model not physical reality .
Einstein view : missing 3rd dimension (y plane) of solar system. we don't see any curvature like this in planets placement towards sun.

[Mohan.C]

The planets also have gravity, not just the sun.

[truedreamm]

The planets also have gravity, not just the sun.

yes frind, most of us know that, i am only concentrating 99.8%(sun) of mass of solar system

[Mohan.C]

Yeah, I know, I am just telling why the alignment doe not look like that, I guess that is because the planets are also affecting the space time fabric, The gravity of the sun does get lesser as we move farther away from it, and the planets which come after the asteroids are dense and have high gravity.
So may be just checking the inner planet if they have an allignment would be enough I think to see if the sun affects the fabric as told by einstein.

[truedreamm]

Yeah, I know, I am just telling why the alignment doe not look like that, I guess that is because the planets are also affecting the space time fabric, The gravity of the sun does get lesser as we move farther away from it, and the planets which come after the asteroids are dense and have high gravity.
So may be just checking the inner planet if they have an allignment would be enough I think to see if the sun affects the fabric as told by einstein.

"checking the inner planet" we have clear data there is no any curvature in planet placement and all the planets are placed to the equator of sun.

So Einstein (sun's) gravity effect the FABRIC space is not 100% true.

yes even planet affect space FABRIC by einstein view
If Einstein theory is true, then it is even impossible to discovery mercury, because it must be in area below the south pole of sun.

[Max™]

Huh?

I'm not sure what you're trying to say here exactly.

The sun doesn't pull things towards it's south pole, it pulls them towards it's center.

[truedreamm]

Huh?

I'm not sure what you're trying to say here exactly.

The sun doesn't pull things towards it's south pole, it pulls them towards it's center.

"it pulls them towards it's center"- this is Newtons view

Anyway i have added new image combination of both Newton and Einstein view, by this view mercury must be in north pole of sun.even it proves Einstein is 100% not true

[neutralino]

I think your fundamental misunderstanding is that, in relativity, one considers curvature of space-time as a whole, and not just space.

[truedreamm]

I think your fundamental misunderstanding is that, in relativity, one considers curvature of space-time as a whole, and not just space.

"one considers curvature of space-time as a whole" gives the result as planets orbit sun in the space with time.

curvature of space is found in planets orbit, but only in X - Z plane. we are able to see curvature in flat surface of space and not in real three dimension space.

[neutralino]

curvature of space is found in planets orbit, but only in X - Z plane. we are able to see curvature in flat surface of space and not in real three dimension space.

What are your x and z dimensions here? If they are both spatial dimensions, then you are not grasping relativity since, as I said above, the whole beauty of relativity is that it treats time as a dimension on equal footing to the spatial dimensions.