Skip to main content

Where do we need General Relativity?

The main problem with old-fashion models of cosmology is that they are modeling the universe and its energy fields as a static entirety. The new models are modeling the universe and its energy fields as a dynamic entirety. That changes its form and energy states all the time. The energy state is not the entire universe. Another important thing is the wavelength of the oscillation. 

The Theory of General Relativity from 1916 is the repairing for weaknesses found in the Theory of Special Relativity from 1905. The problem with the Theory of Special Relativity is that it doesn't take notice of the curvature of spacetime. The thing is that we used models where the universe is a static entirety. Old theories didn't match reality like planet Mercury's orbiting time around the sun. 

And that made Albert Einstein create the Theory of General Relativity, which takes notice of the curvature of spacetime around the gravitational centers. Today we think that there is a pothole around every gravitational object. The thing that is made wrong in cosmology is that we forget that there are also hills in spacetime. Those hills are things like supernovas. Or high-energy objects that act like sources. That energy moves the borders of the system away from that center. 




In the light cone model, the hypersurface of the present is the energy level that is the same as the speed of light. The problem with that model is that: It introduces spacetime as the static and layer-shaped model. In modern models, gravitation makes potholes around the gravitational centers. And the form of electromagnetic quantum fields is changing all the time. In those models space and time are handled in an entirety called spacetime because the relation between the energy level of the particle and its environment determines the aging of the particle. 



The pothole around the objects makes the thing called gravitational lensing possible. Gravitational lensing means that gravitation can turn the route of the light. So that means there could be some kind of field that will turn the direction of the photons. That thing could be the Higgs field the energy field, that is all around the universe. 

When an object is in a gravitational pothole, that pothole pumps more energy from around the object in it. That explains why gravitation slows aging. When gravitation curves the universe into a pothole. It doesn't make that curvature from nothingness. That thing curves the Higgs field. So we can say that curvature in spacetime is curvature in the Higgs field. 

One of the most interesting things that the Theory of General Relativity makes possible is time travel. When a time traveler wants to travel forward in time. That actor must raise the object's speed to the speed of light. That thing stops time. And if the actor just wants to travel back in time, that person just must cross the speed of light. 

Or otherways saying: rise the capsule's energy level higher than its energy level would be in the speed of light. One of the simplest ways is to create a wheel-shaped craft where ions are traveling around the crew cabin at the speed of light. Then the crew will drive that craft to the gravitational field that causes virtual crossing at the speed of light. 

In some other versions, the system drives the craft against a medium like water with the speed of light. If light travels slower in that medium the craft would cross the speed of light in a second. And that impact can rise the speed of craft higher than the speed of light in that medium. In nuclear reactors neutrons that travel faster than the speed of light less than a second send the blue light shockwave called Cherenkov radiation. 

Time travel requires that the particle gets an energy level that is high enough. The high-power energy field dilates time. And if the particle crosses the speed of light it will travel to the past. Time travel is an interesting thing. The black holes are traveling to the past because escaping velocity from the black holes crosses the speed of light. 

And black holes should take information to the point where the supernova that created the black hole exploded. But there are many paradoxes in time travel theories. One of the most interesting things is that that time traveler can shoot his grandfather. And that means the time traveler will not ever be born. But if a time traveler meets and touches him or herself in the past there is a possibility that this thing causes detonation. 

The idea is that if we think of the time cone that models the particle that crosses the energy level that keeps that particle in the third dimension it turns to its mirror. The thing in time travel is bringing an interesting model about the particle that comes outside the system or space. When a particle comes outside the system. It creates a shockwave because it must push all other objects from its route. 


https://en.wikipedia.org/wiki/General_relativity

https://en.wikipedia.org/wiki/Special_relativity


Comments

Popular posts from this blog

Researchers think that the multiverse is not fiction anymore.

Multiverse means that our universe is one of many universes. The reason why researchers and scientists believe that this is true is that logical. About 50 years ago people didn't know that there were other solar systems. Exoplanets were only theories in the 80's.  About 400 years ago people thought that our Sun was the only star in the universe. Edvin Hubble proved that our galaxy, Milky Way is one of many galaxies. Then researchers found that galaxies form groups, and supergroups. That means that today we think that the universe, where we live is the ultimate supergroup of galactic supergroups. And logically thinking there should be other universes. We believe that the universe began its existence in an event or series of events called the Big Bang. That event did not begin, because the energy that formed material should come from somewhere. The Big Bang was not one "bang" or explosion. It was a series of events where material took form. Or the energy level that it h

Helium-3 production from tritium.

The fusion energy is theoretical level. The fusion systems are still at the laboratory level. That means there are many problems to overcome before commercial fusion systems. The fusion fuel can be produced from heavy water. The system bombs deuterium with neutrons. Or it can shoot deuterium or some other atoms against each other.  That can create neutron stripping, which transforms deuterium into tritium, and then the laser systems can increase the dividing speed of tritium. In that process, tritium transforms into Heluim-3 (3^He). If the system wants to produce Helium-3 for experimental or pulsed plasma rocket engines, that thing doesn't require that the Helium-3 production must be economical.  Hydrogen's heavy isotopes deuterium and tritium are the most promising fusion fuels. The problem is where the system can produce tritium or Helium3 for the fusion fuel. The 100 million K temperature allows two Heium-3 atoms can create fusion. There is the possibility to produce Hellium

Is some quantum version of the bubble pulse effect behind the dark energy?

  "Dark energy’s role in propelling the universe’s accelerated expansion presents a pivotal challenge in astrophysics, driving ongoing research and space missions dedicated to uncovering the nature of this mysterious force." (ScitechDaily, Deciphering the Dark: The Accelerating Universe and the Quest for Dark Energy)  Is the universe formed in energy projection? That traveled in some kind of space vacuum. That requires. That there was some kind of energy field before the Big Bang.  Quantum field is the common name of all power fields in the universe.  Is dark energy a gravitational version of the bubble pulse effect, that detonates submarines? In the bubble pulse effect, the bubble or some other projection. That travels in the larger bubble causing a very high explosive explosion. So could that effect be possible in electromagnetic and gravitational fields? Gravitational fields differ from electromagnetic fields because of their wavelength.  In some models, the double bubble,