When the Big Bang happened. One of three components, space, time, or material (read also "energy"), separated from the entirety. That separation formed space inside the thing that formed the Big Bang. Allowed oscillation and formed the "first entropy". So if we think that time is an energy or wave movement, we can say that time just flew out from the thing, called the Big Bang.
And that helps to form a model that maybe time is an illusion. Maybe, it's so short-wave movement that we cannot see it. When that wave movement hits the material, it takes a little part of its quantum fields with it. And that thing makes material older. We know that when we raise particle's energy levels high enough, we can slow their aging.
So in some models, spacetime is like water in the swimming pool. The bottom of the pool is the future. And the surface is the present. All particles float on the surface of the water. That symbolizes spacetime. Or we should use something else as an example. We can use jelly as the thing, that symbolizes space-time. When a particle has a certain weight it drops deeper. And if the particle's weight is high enough it falls deeper. And if the weight is high enough, that thing makes particles fall into the bottom of the jelly.
The energy or wave movement is the medium. And the thickness of that medium determines how deep the particle can fall in the spacetime. So if we change jelly to water, we can see that even light but thick particles can fall very deep. If we throw softball on the water that softball will flow. But then the small stone or grain of sand falls, even if they are lighter than a softball.
So not only the object's mass, but also its thickness and thickness, or energy level of its environment determines, does it falls or floats. That means the small but thick particles can sink deeper than large and thin particles. There is less entropy in thick objects because energy fields cannot travel inside them. And that expands their lifetime. The energy that falls in the particle forms internal oscillation, that breaks the structure.
In a black hole's singularity, entropy is zero. There is no space for oscillation, And that means that the lack of entropy makes the black hole seem cold. Energy cannot fall or affect the internal structures of that material. It just slides on its shell.
That means outcoming energy just pushes that object from outside. The energy that comes from inside must be higher and the second thing is that energy in the object must move so that it can travel out from the entirety. So the black hole must wait for that energy level around it to turn weaker so that it can release wave movement from its shell. Black holes vaporize from their shell. When the energy level decreases a couple of superstrings will removed, and that starts the vaporization of the black hole. Vaporization means that energy starts to travel out from the black hole.
When we rethink that swimming pool model, we can say that the particle's thickness relative to its environment determines how deep it can fall in spacetime. So the thick particle in a thin, or energy-poor environment can make deeper gravity potholes, than the same particle in a high-energy or thick environment. That means that if a neutron star travels outside the galaxy, its gravity affects its environment and is stronger than in the galaxy.
When things like black holes form they fall through the spacetime. That means the black hole travels in the future. But then, what happens when a particle falls into a black hole? A particle travels in the gravitational pothole. And side-coming radiation pulls energy into that particle. That forms a situation, where energy cannot travel out from particles so fast as outside that pothole.
The black hole doesn't create energy. It collects energy. When that energy travels through particles, it's like plaque. It turns that particle younger.
So, if we drop Bose-Einstein condensate into the blue giant star. That thing starts the material and energy flow into that point. That thing can create energy points in an extremely strong energy field because Bose-Einstein condensate makes energy travel into it. That thing causes an explosion in the blue supergiant's atmosphere. The reason for that is that Bose-Einstein condensate puts energy to move. Bose-Einstein condensate acts always in the same way. And theoretically, if some particle is in that energy flow, that thing can transport more energy into it even in a temperature environment
https://scitechdaily.com/is-time-an-illusion-how-logic-challenges-our-understanding-of-reality/
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