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ELLIPTICAL ORBITS
© Lloyd
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http://milesmathis.com/ellip.html (Explaining the Ellipse)
- [The photonic charge fields from the Sun and planets repel each other, causing orbits and helping prevent collisions.]
- All experiments and observations have confirmed that Kepler's equations are correct and that the shape of the orbit is indeed an ellipse, as he told us.
- All orbits, whether elliptical or circular, are assumed by historical and current theory to be composed of only two motions, a centripetal acceleration caused by gravity, and a velocity due to the orbiter's "innate motion."
- It is still considered to be the velocity that the orbiter carried into the orbit from prior forces or interactions.
- it cannot be caused by the gravitational field of the current orbit.
- Why? Because there is no mechanism to impart tangential velocity by a gravitational field.
- The force field is generated from the center of the field, and there is no possible way to generate a perpendicular force from the center of a spherical or elliptical gravitational field.
- The ellipse is a symmetrical shape, just like the circle.
- Using the given motions, the ellipse is impossible to explain.
- The logical creation of an ellipse requires forces from both foci, but one of our foci is empty.
- It cannot work with an ellipse and only one focus.
- In a nutshell, the orbital velocity describes an arc or curved line.
- It is the vector addition of the tangential velocity and the centripetal acceleration, over the same interval.
- [C]ontemporary physics [] usually conflates orbital velocity and tangential velocity.
- But the tangential velocity does not curve.
- It is a straight-line vector with its tail at the tangent.
- It does not curve even at the limit.
- [T]hese elliptical orbits cannot be explained with the theory we currently have.
- To make the ellipse work, you have to vary not only the orbital velocity, but also the tangential velocity.
- To get the correct shape and curvature to the orbit, you have to vary the object's innate motion.
- But the object's innate motion cannot vary.
- The object is not self-propelled.
- When the orbiter is nearer the sun, its orbital path must show more curvature.
- [T]he orbital velocity at perihelion is indeed greater than at aphelion, as shown by the length of that vector.
- But the tangential or perpendicular velocities at all points on the orbital path must be the same.
- [T]hese two "ends" of the ellipse cannot be made to meet up.
- You cannot have greater curvature at perihelion and lesser curvature at aphelion and draw any shape that will meet up.
- The problem is with the underlying mechanics.
- Since the shape and the equations are known to be correct from experiment, we must create a unified field that explains them.
- The solution is that the orbital field is a two-force field.
- It is not just determined by gravity.
- [The second force] is a motion due to the combined E/M fields of the orbiter and the object orbited.
- In this case, the Sun and the Earth.
- [The E/M field is the photonic charge field.]
- The force created by the E/M fields is a repulsive force, like that between two protons.
- In the end, you subtract the E/M acceleration from the acceleration due to gravity.
- This explains the ellipse because the E/M repulsive force increases as the objects get nearer.
- As the gravitational acceleration gets bigger, so does the repulsive acceleration due to E/M.
- We have a balancing of forces.
- This not only explains the varying shape[s] of [] orbit[s], from circle to ellipse to parabola, it explains the correctability of the orbit.
- It explains why we don't often find orbiters crashing into primaries.
- This also explains the cause of the ellipse.
- It has never been understood why some orbits were elliptical and some were nearly circular.
- My theory would explain the ellipse in the orbit of captured orbiters by simply showing that the orbiter intersected the field too far from its center.
- The captured orbiter does not have to intersect the field at just the right distance.
- It can be captured over a large range of distances, since if it is captured too far away, it will just be thrown into ellipse.
- Remember that the E/M field drops off faster than the gravity field.
- Gravity decreases as 1/R^2. E/M decreases as 1/R^4.
- If you go farther out, gravity overpowers E/M and the orbiter immediately begins to move closer to the Sun.
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