Albert Einstein's famous Theory of General Relativity passes the critical test again.
Another name for the speed of light is energy level.
Albert Einstein's famous Theory of General Relativity passes the critical test again. This time the map of dark matter is the thing that follows the model that Albert Einstein calculated in 1916. The main idea of the Theory of General Relativity is that gravitation curves time and space. The thing, that makes this theory called E=Mc^2 so hard to understand is how space and time are curving.
And how the famous pothole in spacetime is forming. When we think that there is the (Higgs) energy field all around space that thing makes it a little bit easier to understand that effect. The pothole or curvature is in the Higgs field, and that pothole is the key in the thing, called crossing the speed of light. Speed is one version of energy. And that thing means that all other energy fields have the same effect as the speed. Another name for speed is kinetic energy.
So when a particle travels in the energy field that separates the universe from its environment. It loads kinetic energy in it. Energy travels from that energy field to a particle. And speed increases until energy starts to travel out from that particle or object. Gravitation and all other energy forms behave similar way as kinetic energy. So we can introduce curvature of the space and time as a pothole. When the energy level is rising the pothole turns deeper and deeper.
In that gravitational and energy model deeper energy pothole increases the contact layer between the particle and its environment. That allows that more energy can transfer to a particle or object. When that energy layer turns thicker or its energy level rises less energy will travel out from the object. If an object reaches the speed of light. It will not deliver energy or wave movement anymore. That means the particle will not age anymore.
That is called time dilation. And if an object crosses the speed of light it starts to travel backwards in time. That thing means that the object starts to receive energy and turn younger. And in this model, the black hole itself is a wormhole or energy channel that takes information to the point where the black hole formed.
“It’s a bit like silhouetting, but instead of just having black in the silhouette, you have texture and lumps of dark matter, as if the light were streaming through a fabric curtain that had lots of knots and bumps in it,” said Suzanne Staggs, director of ACT and Princeton’s Henry DeWolf Smyth Professor of Physics. “The famous blue and yellow CMB image is a snapshot of what the universe was like in a single epoch, about 13 billion years ago, and now this is giving us the information about all the epochs since.” Credit: ACT Collaboration". (ScitechDaily.com /Groundbreaking New Dark Matter Map Validates Einstein’s Theory of General Relativity
Gravitational model
In wormhole theory, the universe is full of wormholes tiny energy channels. The supernova is not forming the wormhole. It acts like some kind of vacuum bomb. The supernova just pulls the wormhole larger. Then that thing collapses.
The quantum fields are starting to press against that wormhole. That makes the most powerful gravitational generator in the universe. The wormhole conducts those quantum fields out from the poles of the black hole. So that is the thing that forms the massive gravitational effect.
The contact layer between the energy field and the object increases. But then can the particle cross the speed of light? That thing depends on one thing. Can the energy pothole move energy to the object in a critical moment? If the energy layer separates from the object. It starts to deliver energy.
When an object reaches the speed of light. It starts to deliver energy. And that thing denies crossing the speed of light. The fact is that this is happening in the universe only in the black hole's event horizon. This is the point where escaping velocity turns higher than the speed of light. The thing is that the black hole requires that energy pothole. That thing presses its mass in form. A black hole will detonate immediately without that energy- or gravitational pothole.
The thing that is needed is just to keep energy transferred to the object when it reaches the speed of light. If that energy pumping continues the pothole just presses the object across the speed of light. Or otherwise saying an object reaches an energy level that cuts its connection with its environment. And that thing means it jumps to the fourth dimension.
And if somebody wants to cross the speed of light the only necessary thing is to pump energy to the object in a critical moment. One of those systems is WARP. The empty bubble or electromagnetic vacuum is created around the craft.
That allows particles and objects to travel faster than usual. When the craft will accelerate as close to the speed of light as possible the system just removes that bubble. That causes the impact with quantum fields and energy transfer to the object.
In some other versions the system pulls particles against the front of the spacecraft causing the energy level rises so high that the object jumps to the fourth dimension or crosses the speed of light.
The speed of light crossing every day when particles impact the atmosphere. At that moment they send Cherenkov radiation. That thing forms the blue sky. So there is introduced a model. That the particle accelerator sends a small probe to research a world. That is hard to understand.
The accelerator simply accelerates the probe to a speed that is as close to the speed of light as possible. Then that system aims air or water to that probe's trajectory. That causes an effect where an object crosses the speed of light in a very short moment. When it crosses the border of medium and vacuum.
https://www.newsweek.com/wormhole-travel-possible-shortcut-1407035
https://scitechdaily.com/groundbreaking-new-dark-matter-map-validates-einsteins-theory-of-general-relativity/
https://miraclesofthequantumworld.blogspot.com/2023/04/could-gravitation-be-effect-that-forms.html
https://en.wikipedia.org/wiki/General_relativity
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