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Spin Gravity- Magnetism


Zarkov

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Is this it?

 

Spin gravity = K dI sine 0 / r^ 2

 

K = constant

dI = induced electric vector created by magnetism and spin acceleration

sine 0 = spin vector

r = distance from centre of spin

 

.. to which the first reponse was - http://www2b.abc.net.au/science/k2/stn/posts/post133858.shtm

 

... then http://www2b.abc.net.au/science/k2/stn/posts/post133883.shtm

 

The professional opinion was totally unsurprising.

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Mass has no part other than creating a magnetic field, so the permeability constant has to be included, so does the rate of acceleration of spin. A negative rate produces a push in, towards the centre. There are not many positive rates of acceleration in Nature, other than at ejection time, but if this was the case the emf would push away from the centre.

 

That formula was for the force at a point. It has been taken out of context, but it is really basically correct!

 

I have gone furthur, but I am not ready to be critised, since nobody wants to help :)

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MATHEMATICS

 

 

E(electromotive) = d(phi)/dt

 

so if we extend that into a spherical

field then

 

= [1/4*pi*r^2]*[d(phi)/dt]

 

= K*[d(phi)/dt] / r^2

 

= K a I / r^2

 

Where d(phi)/dt = integral of emf produced

by electric field I and acceleration a (+ - )

 

and so

 

M (magnetomotive force)= K a B / r^2

 

Spin gravity force = torque set up by these

two vectors

 

E and M generates a dipolar eddy spin that spirals into the centre of spin, if a is negative and out from the centre of spin, if a is positive.

 

In both cases K = 1/ 4 pi a constant

r = distance from centre of spin

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E(electromotive) = d(phi)/dt

 

-Faraday's Law, I've never seen this applied outside of circuits.

 

so if we extend that into a spherical

field then

 

= [1/4*pi*r^2]*[d(phi)/dt]

 

= K*[d(phi)/dt] / r^2

 

= K a I / r^2

 

 

 

Where d(phi)/dt = integral of emf produced

by electric field I and acceleration a (+ - )

 

-emf is a derivative, not an integral.

-if K = 1/4pi, Kr^2 * dphi/dt isn't not equivalent to K dphi/dt/r^2, basic algebra

-acceleration times an electric field is magnetic flux? not quite.

-I is Ohm's Law, E/R, it represents ; dphi/dt does not equal R, or E/R, , or aE/R

 

 

 

 

and so

 

M (magnetomotive force)= K a B / r^2

 

-B? magnetic flux density?

-howd you calculate mmf without reluctance?

 

 

Spin gravity force = torque set up by these

two vectors

 

-this doesn't make sense

 

E and M generates a dipolar eddy spin that spirals into the centre of spin, if a is negative and out from the centre of spin, if a is positive.

 

-and how does this happen? dipolar eddies require a stratified solution

 

In both cases K = 1/ 4 pi a constant

r = distance from centre of spin

-this is pretty much the only unflawed part of this post

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At least Fafalone, you are getting some idea what I am trying to achieve, the formulae are crude I know, but a little help here, a criticism there, and soon it will make sense. At least I am now delving into the maths of the phenomena! And the answer lies in all this somewhere!!

 

Thanks for your input :)

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Here is decisive proof that the solar system is a vortex that does not rely on mass.

 

mean orbital velocity (km/sec) / mean distance from the Sun / period yrs / K= rv^2 :-

Mercury 47.89 / 0.39 / 0.24 / 895

Venus 35.03 / 0.7 / 0.62 / 882

Earth 29.79 / 1 / 1 / 888

Mars 24.13 / 1.52 / 1.88 / 871

Jupiter 13.06 / 5.2 / 11.86 / 878

Saturn 9.64 / 9.54 / 29.46 / 875

Uranus 6.81 / 19.81 / 84.01 / 925

Neptune 5.43 / 30.06 / 164.8 / 903

Pluto 4.74 / 39.44 / 247.7 / 870

Mean K = 887

Graph of distance against velocity is exponential so rv^2 / 4 pi^2 = 887 / 40

 

= 22.

 

The 22 is a characteristic of the spiral in the vortex. This vortex is independant of matter, and is spiralling out from the centre, if current observations are correct!

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The rv^2 is Keplers 3 rd law in another form.

 

period p^2 is proportional to distance from centre r^3

but v = r / p

 

using this v in rv^2

 

rv^2 = (r / p ) ^2 * r

 

= r^3 / p^2

 

I used this though because it calculates the angular velocity an object should have at a point at distance from the centre of a vortex.

 

Since they all equal K ( 887) the planets are all where they should be, and verify that they are actually in a vortex, that is independant of mass!

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I am talking of a plane vortex, a spiral. All the planets are in a relation, Bode recognised this, and Kepler formalised it a bit more rigoursly. Centripetal force in an open system is dependant upon rv^2, in a closed system it is v^2 /r .

:)

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Also, you neglected units. You gave velocities in km/sec and distance in AUs.

 

Furthermore, Kepler's Third Law is T2 = r3, and cannot be written as rv2. Not only is this not a documented form of the law, it is in no way shape or form equivalent.

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Ah but theres the rub, Fafalone, the position of the planets, and their speed does NOT rely on it's mass, as I have shown.

 

The implications of this are simple, the whole motion of the whole system is in a spiral vortex, objects are not moving independant of each other, implying IMO that the planets are ejected from the Sun. Data that has bee TOLD to me by an astronomer indicates the Moon is moving away from the Earth, and the Earth is moving away from the Sun.

 

The system can not be static, it is either going in or out!

 

Most people think it is going in, and the theory of "attractive" gravity would imply a spiralling in.

 

:)

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