[MD] constant

Magnus Berg McMagnus at home.se
Thu Sep 2 13:21:01 PDT 2010


Hi

On 2010-09-02 16:20, ADRIE KINTZIGER wrote:
> Gravity is everywhere around us and different on all locations.
> How? well, mass is involved , so it depends on the observers weight-distance
> to the earthcore( max mass) and distance to the earthrotationsaxle.spacetime
> is involved because gravity , like light , is bendible, compressible,
> etc...(all proven).
> Some minor players are involved , like lake's different mass than
> soil,mountains, sea, etc,
> The location.
> The local location, the direct vicinity of the gravity field around a human
> observer, gravity is different in your backyard if you compare it to your
> livingroom, (masses), gravity is different in an airoplane then on the
> ground, different distance to earthcore-airoplane-than airoplane -observer
> on the ground. gravity, time is different in a satellite than it is on the
> ground, space/timedilatation,(relativity of speeds, bending of time).
> So to show an example , mostly in a sattellite in a geo-stationair position
> time goes about 4 full minute's slower than it goes on earth
> they have to correct this every day for all sattelite's depending on the
> orbits/speeds, different bending.

I'm actually not sure the best way to explain gravity's effect is that 
mass curves space.

Think of it this way, the effect of gravity reaches far out in space 
from a massive object. The effect causes other objects to fall towards 
the massive object. However, the strange thing is that the object always 
accelerates towards the massive object at the same acceleration, 
regardless of *its* mass. This means that the massive object must draw a 
larger object harder towards itself, because it requires more force to 
accelerate a larger object than a smaller.

But this doesn't make any sense. How could the sun direct more gravitons 
(or whatever it is) towards Jupiter than it sends towards Earth. No 
sense at all.

So, in light of this, Einstein's solution was that space itself was 
curved, causing the differently sized objects Jupiter and Earth fall 
towards sun at the same acceleration. He sort of fooled the system.

However, even if such a solution has a certain appeal, apart from the 
fact that it works very well, it kind of bites itself in the tail. It 
tries to explain the gravity that pull planets towards the sun using the 
gravity that makes a ball roll down a slope. But since we know that the 
two "kinds" of gravities are really the same, the proof becomes circular.

If we now back up to the original problem, we can see that another 
solution is the one John and I mentioned the other day, but I'm pretty 
sure most of you either didn't take notice, or just thought we were 
fooling around. The other solution is that space itself is the origin of 
gravity, and it *pushes* all mass away from it. The net effect will 
always be the same, Earth will get pushed from all directions *but* from 
the sun, or rather, the sun will cancel out just as much gravity as 
required to accelerate the Earth towards the sun in exactly the same way 
the curved space explanation would stipulate.

All the proofs that proves that space gets curved are *probably* proven 
within that system. The system where space *is* curved, so I'm not so 
sure it's possible to prove much else given that first assumption.

	Magnus





More information about the Moq_Discuss mailing list