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CHAPTER 7
FAQ - Updated July 2026
FAQ - Frequently Asked Questions
The Cosmos Reconsidered is a website and book that attempts to answer all cosmological questions correctly with absolutely known, proven, and commonly used elsewhere classic physical physics based science. The true physics that has been beat on and hammered out over thousands of years... This chapter is especially aimed at answering some of the so far unanswered mysteries of the cosmos. Easily understood physics that has previously been totally unknown, totally misunderstood, and on up to being complete fairy tales. But in fact all of them tied directly to everything else.., through the EM field of gravity. Be sure to check back as we will continue to add explanations as I find the time.
Henceforth, as of Sept 2026, we will be adding new entries here at the top, to eliminate searching through the rest if you've already seen them. We will also move updates to existing answers to the top as they may occur.
[YOUNG'S TWIN SLIT EXPEDRIMENT.
[QUESTION] How does it produce the light and dark bars on the back wall.
[ANSWER] We know from de Broglie that electrons are what deliver light. It is his ‘pilot wave’ that is blue shifted into the EM spectrum of light. This has been validated in many was. First that we know photons do not exist. One of their many falsifications is that each are described as being a single frequency. Which means they are ‘sine’ waves.., and it it well known that ‘sine’ waves are never found in any spectrum. There is an infinite difference between a ‘sine’ wave and a ‘spectrum’ wave. So photons could not produce light even if they did exist.
Further on the electron delivering light is seen when they fire single electrons at the TSR and they get the same light and dark bars on the back wall as when they think they’re firing photons. They’re really firing electrons. There are no photons.
So now when they monitor a slit in the TSR they place a half mirror in the path to measure the activity there. But of course we know that this kills the interference pattern’s light and dark bars that would otherwise be seen on the back wall. Even though the half mirror would only kill half the amplitude of any light that was coming through it.
So the thinking today is that when we ‘look at a photon’.., it hides. Or something like that. lmao
Here’s what truly happens.
The electron that is delivering its blue shifted pilot wave’s EM spectrum of light hits the half mirror and is embedded into it. It is obstructed by the half mirror and is prevented from delivering it’s EM spectrum to the back wall. That is why there is no interference pattern. Simple classic physics.
So I’ll correct the the non-existing ‘photon’ name in the question by calling it its correct name; electron. This ‘single’ electron fired at the TSR with both slits monitored will be intercepted at either slit so there will be no light reaching the back wall at all.
But now there is some finessing that needs doing. To make certain questions on the whole experiment useless to ask. :) There is the correct idea that a single electron is emitting its EM spectrum well before it reaches either slit. The incorrect version that came from it is that I’ve seen illustrations that show a single electron’s spectrum beginning it’s spread once it passes through the slit it was aimed at, while a part of the spectrum that was already emitted before the electron reached the front wall was passing through the second slit, and beginning it’s own spreading of spectrum wavelengths. Supposedly allowing the light and dark bars to be produced again. But this cannot possibly happen. Because of the differences there are between what has passed through each slit.
When the electron passes through a slit it is immediately spreading it’s entire spectrum of wavelengths outward to cover the entire back wall. As it approaches the back wall the diameter of that spread is continuously contracted to the point it becomes a microscopic speck as the electron hits the back wall. So during the electron’s trip from the front wall to the back wall, the spread of it ‘s spectrum is contracting inward so that every wavelength of it is wiped across every pixel of the back wall… That is what’s needed to create an interference pattern. Every color being everywhere on the back wall to create ‘persistence’ white. While an out of phase version of that contraction from the other slit causes the bars.
But if the opposite slit is only passing the outside’s spectrum it is only allowing a single wavelength through at at any instant. Which is not what can mix with what the first slit needs to produce the white bars. So the illustrations that show ‘single’ electron (or their other name) being fired at the TSR are very incorrect. Even if electrons could be fired ‘singly’, they would only create what amounts to a white dot on the back wall
Now one more little fact.., when the TSR is operating normally, and electrons are passing both slits normally, there is normally a red twinge to the bars on both sides of the back wall. That red twinge is caused by the distance between the two slits. The two slit’s spectra being wiped across the back wall are offset from each other. Neither’s spread can completely reach the other’s far side.., aka the red wavelength.
Now one more fact. Each of those electrons that pass through a slit produce their own spectrum on the back wall as I’ve said. Every electron hits the back wall directly in line with the slit. That turns out to be their brightest bar for that slit. The other bars each side of that one slit, because of the contraction going on, is illuminated for shorter times and amounts. So for instance we can consider the bars that a single slit will produce will amount to amplitude levels of say 1, 2, 3, 2, 1.
So when each of the slits intensities are combined, with their offset separation taken into account, the combined result of the two amplitudes on the back bar turns out to be 1, 2, 3, 4, 3, 2, 1… The two level 2 amplitudes combine at the center. The reason the center bar is always the brightest.
Remember photons are not real. :)
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