Adapted for the Internet from: Why God Doesn't Exist |
Can an undulating stream of particles travel rectilinearly |
Fig. 4 |
Fig. 2 The Principle of Ray reversibility |
Well doc. With the right eye I see straight light, but with the left one the light seems to be curved into circles. |
Oh man. I'm up next! Is there any other doctor in the house? |
Fig. 7 |
Fig. 8 |
|
Fig. 10 |
Fig. 11 |
|
|
|
Fig. 5 Cavendish’s torsion balance experiment. |
We point a laser at a very tiny mirror in the distance and receive a rectilinear reflection consistent with the Principle of Ray Reversibility. If relativity’s curved space/gravity well explanation has any merit, we should be able to roll a couple of 100-ton spheres arbitrarily close to the beam and generate a new gravity well in its vicinity. This warped space should deflect the beam just enough for it to miss its target. We verify that the 100- ton mass has a strong gravitational effect on objects in the vicinity by hanging a dumbbell (for example a relativist) from a thread near the sphere and performing a torsion balance experiment. I predict that the dumbbell will swing across the straight beam and debunk relativity. |
According to relativity, gravity is a static, geometric phenomenon. Einstein replaced Newtonian force with curved space. This explanation makes the scenario of light traversing curved space no different than the scenario of water running down a curved spout or hose. Water will simply follow the contour of the medium. Likewise, if light travels through a region of space where there is a gravity-well, it will be redirected along the contour of space. Mass and acceleration have nothing to do |
That's absolutely normal and predictable. The photons on your left eye are being deflected by warped space. They are rolling down gravity wells. I wouldn't lose any sleep over it if I were you. |
Whether reflecting or refracting, a beam of light retraces its path. At once it becomes evident that one-way mechanisms such as waves or particles will have trouble simulating this trick of nature. Simply consider the case where the source and the reflecting mirror are several light-years (LY) apart. How will a traveling photon manage to return along the exact same itinerary if the remaining cosmic objects moved in the meantime? |
Whether reflecting or refracting, a ray of light retraces exactly the same path. One-way photons and waves cannot explain this phenomenon. For instance, if we emit a photon from Earth to a mirror on the Moon, General Relativity predicts that the photon will follow a curved path. The version of Mathematical Physics is a violation of every law of Optics: reflection, refrac-tion, Snell’s Law, Fermat’s Principle, Hero’s Principle, and Ray Reversibility are all based on rectilinear trajectories! |
Eddington took pictures during the solar eclipse of 1919 and allegedly confirmed one of relativity’s key 'predictions': that a stream of photons is deflected from a rectilinear path by warped space. Relativists proclaim this to be an important milestone in a series of ‘confirmations’ of relativity. It enables them to claim that gravity is the result of geometry. |
Heavy spheres A and B are initially balanced on a thread and allowed to stabilize (dotted dumbbell). Then, spheres C and D are placed nearby. As if by magic, C attracts A and D attracts B. (You can watch the experiment here.) Knowing the torsion on the thread and other parameters, Cavendish was able to estimate the gravitational constant G. |
Relativists explain that A moves closer to C because both lead sinkers warp the space around them. More massive objects have deeper wells, which implies steeper drops and stronger gravitational attractions. In order for C to influence A the mouth of its well must as a minimum reach as far as A to compel this sinker to drift towards C. Hence, the radius of a well represents the distance range of gravitational influence whereas the depth of the well represents the mass. As A moves closer to stationary sinker C, the gravity-well distorts and moves with it. Hence, as two objects are drawn together their wells merge and increasingly act as a single object. The radius of the well thus formed is slightly longer and the well is deeper. Relativists claim that a gravity-well deflects a stream of photons from their path. The steeper the well, the greater the degree of deflection. Compare the skewed path of the ‘photon’ before and after the sinkers meet (exaggerated here for a crisper visual effect). |
As a wave climbs out of the Earth’s gravity field, the mathematicians are able to measure a decrease in frequency in only 22 meters! They explain that gravity affects electromagnetic waves. However, in relativity, gravity is geometry: curved space. In relativity, the gravity well (warped space) bends the beam. Any way we look at it, the HTE shows that distance traveled by a wave, the length of the wave, its speed, and its mass, as well as the acceleration or mass of extrinsic objects are irrelevant to the issue of measuring the bending of light. Relativity 'predicts' that a photon should never travel rectilinearly anywhere in the Universe. (I have drawn the gravity wells in both directions to satisfy yet another duality invoked by relativists.) |
Relativists claim that they can measure how the ‘gravitational field’ affects the frequency of light moving perpendicular to the surface of the Earth in only 22 meters. But then they also wish you to believe that they cannot measure the effect of the same field on the path of a photon or wave moving parallel to the Earth’s surface during 1000 meters. The mathematicians claim that they cannot measure curved light in such a short range despite that we can confirm gravity via a torsion balance experiment near the beam. |
In the Harvard Tower scenario (Figs. 11 and 12), relativists make no mention of warped space, nor do they claim that light changed direction. They explain that gravity caused a change in frequency, insinuating that a photon or wave- packet travels rectilinearly and the wave is compressed as it approaches the center of the Earth. However, when explaining the formation of a black hole, relativists change their tune. Now it is the gravity well which prevents light from escaping. The photon is trapped in a circular orbit and can’t get out. These two physical interpretations of relativity are irreconcilable. (The same argument explained in more detail.) |
Does light travel CCW as in Case 3 when the Moon is at B or does it travel CW as in Case 1 when the Moon is at A? Does a returning photon take a longer return route in Case 2 than it does in Case 3, or does it travel over and under like a roller-coaster following the contour of the Earth’s 3-D well as in Case 4 when the Moon is at C? Keep in mind that these scenarios assume a static well. If we factor in that the Earth’s gravity-well changes shape as the Earth moves, left to the idiots of relativity, the beam of light would never return to its owner. |
Bill the Great undoing the straight-curved, rectilinear-curvilinear Gordian Knot of Mathematical Physics. |
Fig. 3 |
According to the PRR, light travels rectilinearly from the Earth to the Moon and back to origin. GR 'predicts', instead, that a photon will be deflected by warped space, the same warped space that the idiots of NASA's GPB program just finished measuring. Assuming that the photon by chance strikes the reflector, it should never arrive back on Earth. If it does, this falsifies relativity's 'prediction' that space is curved. |
Thor ough Bill pounding some common sense into relativists |
with the qualitative mechanism that relativists offer for the deviation of a photon. According to relativity, every object creates a gravity-well. Therefore, relativity predicts that light will be deflected at any scale and should always follow an erratic itinerary. The Principle of Ray Reversibility debunks this prediction. |
43 |
11 |