Can we ever create a Theory of Everything?
"One of the most popular efforts toward a Theory of Everything is string theory, where the Lie Group E8 x E8 is shown here: one realization of 10-dimensional superstring theory. The number of particles, fields, interactions, and dimensions that must be removed to keep the predictions of this overarching framework consistent with what we observe in our Universe is overwhelming, and represents more than 95% of the theory's general predictions." (Big Think, The argument against the existence of a Theory of Everything)
Can we ever create a Theory of Everything? The answer is that the thing requires long-term observations from interstellar and intergalactic space. When we are in the middle of the system, it’s impossible to see the global entirety. We see local entirety, but we cannot see the entire or global scale. In the system. To see the entire system, we must step outside it. We cannot see global phenomena in the universe. In the same way, we cannot see an object’s place if we see the object's speed. So we cannot measure a particle’s place. And the momentum.
That is a big question. And the answer is that the Theory of Everything, TOE, requires that researchers know every single actor in the universe. That means that we must have knowledge of the internal structures of atoms. We must also have knowledge of the wave movement interactions and behavior at all scales of the universe. That means we must expand our knowledge very much. If we want to make a formula. That introduces all interactions from gluons to galactic superclusters. The biggest problem is this. We don’t have knowledge of what happens in interstellar space.
All information that we get from space outside the solar system is distorted. That means. Information that we get travels across the heliopause, asteroid belts, and then through the solar wind that travels against it. That thing causes an effect on that information, and we can say that this information is dirty. When information travels into the Milky Way from other galaxies, that information travels through the Milky Way’s own radiation layers. Another thing that can cause problems with measurements is things that we cannot see, such as typical objects. Maybe. Our star is not as typical a G-2 star as we want to believe. The solar system. Where we live is actually between the Milky Way’s spiral branches. The local group there is a certain type of actor that might have a unique structure. That means rare objects can form almost homogenous groups, but those objects might not be typical on a global scale.
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"Top: Diagram of the heliosphere as it travels through the interstellar medium:"
"Heliosheath: the outer region of the heliosphere; the solar wind is compressed and turbulent"
"Heliopause: the boundary between the solar wind and interstellar wind where they are in equilibrium."
"Middle: water running into a sink as an analogy for the heliosphere and its different zones (left) and Voyager spacecraft measuring a drop of the solar wind's high-energy particles at the termination shock (right)"
"Bottom: Logarithmic scale of the Solar System and Voyager 1's position."
(Wikipedia, Heliosphere)
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That means there is less gas and dust around our solar system than around stars that are in spiral branches. Otherwise, there are fewer stars around the sun than around stars that are in the spiral branches. There is also a possibility that the Milky Way and its companion galaxies are in the cosmic void. That means Milky Way. And their companion galaxies have lots of cosmic dust from their environment. This means that the dust and gas around those galaxies, and especially around their black holes, might be denser than researchers believed. But otherwise, gas and dust outside galaxies and dwarf galaxies might be thinner than researchers thought. And the other thing is that. The interactions can be far different from what nobody expected.
If galaxies are in the cosmic plasma bubbles. The energy or wave movement that impacts the plasma bubble causes a situation. The plasma sends energy into that bubble. The bubble focuses energy. Into the middle of the bubble. That forms a standing wave where those energy impulses reflect. The universe is a large place. There can be lots of particles and quasiparticles that cause unexpected reactions. Quasiparticles can act like real particles. And another thing is that radiation, or wave movement. With extremely long wavelengths, they can look like straight waves.
And those waves can act like thermal pumps. There is a possibility that some wave movement has two wavelengths. Extremely short wavelength. That acts like some kind of snake. That wave movement can act like a thermal pump. Things like energy tornadoes in the energy fields can transport energy. Out of that field. And that forms the situation. That kind of structure in the universe acts like virtual gravity.
Can the so-called cosmic hum explain something about the nature of dark energy?
When the Voyager probe crossed the Heliosphere and entered interstellar space, it found the cosmic hum. The radio waves that cannot cross the heliopause. The plasma wave that forms when solar wind impacts particles that come from other stars. There is almost certainly a similar impact wave around the Milky Way galaxy. So there can be wave movements.
A wavelength that cannot come through that impact wave. That explains why dark energy affects only large-scale structures. That means there can be many types of wave movements that we cannot see. There can be plasma balls around galactic clusters, galactic megaclusters, and even the universe can have some kind of plasma wall in its outer layer.
This means each of those plasma balls can absorb some wave movement. We always thought that dark energy was one. Homogeneous entirety. Maybe dark energy has multiple wavelengths. If dark dwarfs destroy dark matter and turn that thing into dark energy, the same thing can happen outside galaxies in cosmic voids that can exist between galaxies. Maybe dark matter particles. The cosmic voids. At a hypothetical level in research, they impact each other. And those impacts send a wave movement.
When we think about the cosmic voids. And their relationship with things like black holes and dark matter, those voids can rip black holes apart. The same thing can rip visible material in pieces. But if dark matter has only interaction with dark energy and other dark matter particles, there can be a cosmic dark matter void. Those “dark voids” are not dark energy or dark matter. It could be invisible to us. That kind of void can rip dark matter in pieces.
So when we think about the role of the cosmic voids. In the structures that we know as the Universe, we must ask what made those bubbles. Things like the Boötes void formed when some energy impulse whipped matter and possibly also energy out from that point. The energy impulse caused the shockwave that formed those voids. Or something annihilated material out of the cosmic void. Those cosmic voids can play a bigger role in energy movements. That we have ever imagined. The cosmic void is the thing that could put energy into motion.
https://bigthink.com/starts-with-a-bang/argument-against-theory-of-everything/
https://en.wikipedia.org/wiki/Axion
https://en.wikipedia.org/wiki/Bo%C3%B6tes_Void
https://en.wikipedia.org/wiki/Dark_energy
https://en.wikipedia.org/wiki/Dark_matter
https://en.wikipedia.org/wiki/Heliosphere
https://en.wikipedia.org/wiki/Theory_of_everything
https://en.wikipedia.org/wiki/Uncertainty_principle
https://en.wikipedia.org/wiki/Weakly_interacting_massive_particle