Black Hole and LHC: part-2 | Prospects of conventional physics!

Creating a black hole on the Particle Accelerator is a great thing: the sudden marriage of a 4-year-old daughter is quite sudden. Let me start from here. Here I have said earlier that the derivation of the Salam-Winnsburg-Glasgow element provides a sense of gravitational force. The task of these machines is to stimulate the particles at subatomic levels and bring their movement closer to the speed of light. Then the kinetic energy of these particles is higher. And what was done in the LHC, in the previous post, some of the spherical shapes have been stated in a very brief way.


Then, according to Einstein's famous E = mc2, the mass would be about 8-20 kilograms. When two particles of such mass are in close contact with each other, all their energies are integrated into the smallest space in a small space. It is easily conceivable, then, that at some point, the particles engaged in the collision will form a black hole (that is to say because for a short period of time the force of gravity here increases and the density becomes abnormal).


But here's the problem: 8-20kg away from Planck's mass, which according to conventional theory would create the lightest cavity. Their charge is eroded which results in lowering the rate of increase in energy. The best place would be to store the energy of a particle as a packet. It has a density of 1 kilogram per cubic meter, which is very high but not enough to make a cavity. If you want to make a caveat, then you need to look at the plank values.

But a practical example is that the proton has been excited by Eman's parameter in the Heavy Ion Collider in Brook Haven, New York, for a very short time, and the LHC's quality is very useful for collisions!
How is that?

For decades, scientists have realized that the values required for Planck's density seem to be much higher. Unlike other balls, gravity will spread toward these levels, and the gravity is strengthened at a very short distance. The gravity of the three dimensions is multiplied by the distance of the two objects in half. But gravity will be 20 times stronger than the nine levels. This effect is really important because these extra levels are really large and have been observed in different laboratories for decades.

What this increased state of gravity implies is that the scale of the perfect energy may be lower than it was originally thought, and in this circumstance, there is a slight disconnect between the source of gravity and the quantum mechanics, which can lead to the formation of the black hole. The two groups organized a workshop at Stanford University on June 20, with Giddings and Scott Thomas, and Greg Landsberg and Savas Dimopoulos of Brown University attending. They describe the observed data and how to calculate the probability of creating a black hole in the LHC. After some calculations it is customary to conclude that at the lowest levels of the Planck scale and excluding more theoretical possibilities, it is possible to construct a black hole in the LHC per second, which physicists later describe as the LHC as a black hole factory.
Lounge closed timer curves and a stable wormhole

If we think of Saha-Kal in Dimensional Concept (this is why we have to bring it into mathematical model) then it can be thought that Saha will have three Dimensions and one with Time. As we are all familiar with Euclidean geometry, it is said that this axis of time is constant and distinct here.

But widespread relativism has said little to change. In this case, an example can be taken to understand it! The speed of time would seem to be approximating an object with a mass like the Earth. This is because there is a correlation between the magnitude of the light and the energy of the light, the higher the power, the greater the magnitude. As the light goes up through the earth's gravitational field, its energy will dissipate. So the vibration will be reduced. That means that the length of time between one wave peaks to the next is increased. Someone who is very high-minded will think that all of the events below are happening a little late. It was tested in 1962. Detail is in Hawking's Brief History of Time. This means that the time domain or component variables appear on relativity due to gravitational acceleration.
Black Hole and LHC: part-2 | Prospects of conventional physics! Black Hole and LHC: part-2 | Prospects of conventional physics! Reviewed by shuhel shab on 9/29/2019 Rating: 5
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