Is the cat dead, or is it living? The revolutionary quantum world.

Researchers want to connect quantum theory with General Relativity. And the key element in that process is to explain. What is the curvature of the universe? When the universe is curving researchers must know what is curving, and one explanation is that the curvature of the universe is the denser Higgs field.  If the gravitational field pushes the Higgs field denser that causes a situation that the densing Higgs field pulls more energy in the particle that travels in the gravitational center. If the denser Higgs field is the thing that is the curvature of the universe, that makes it easier to connect General Relativity and quantum theory.  When we are thinking about the interaction of the black hole and its environment, we can think that the event horizon is the point where the superstring is same time inside and outside the point, where escaping velocity reaches the speed of light. Just at the point of the event horizon, the superstring could transmit radiation out from the black hole

The model of the black hole is that thing makes time travel backward inside the event horizon. But we can think of the black hole as a tube that travels through the universe. Time is dilated on the event horizon. And that means the black hole itself looks frozen. The event horizon is the point where time stops.  And that makes the black hole very interesting. When a black hole touches the hypersurface of the present that hypersurface of the present is like some kind of elevator, that travels around the black hole. So the black hole is like the tube that connects two points in the universe and spacetime. The black hole might look like frozen, but it has its limits.  The existence of the black hole is not infinite. And that means we can think that a black hole as the tube that has begun and ended. The thing is that, if we are attempting to slip into the black hole from the wrong point, we are facing a big problem. The thing is similar we try to go in the tube through its wall. The black

But let's start with hyperdrives.  When energy travels in the particle, it increases its speed, or the particle accelerates. At the point in the acceleration track where a particle reaches energy stability, it delivers as much energy, as it gets from outside. And, at that point, acceleration ends. When energy starts to transfer out from the particle its speed decreases.  In some models, the laser beam will aim to the point where the particle's speed is as close to the speed of light as possible. When that beam crosses the road of the particle, it will reach a higher speed than the speed of light.  Another version is that the quantum thermal pump will pull energy out from the internal structure of the particle. In that model, the quantum-size laser ray will send through the particle.  So if there made a lower energy channel in the particle. That thing can turn energy travel inside the particle when it reaches the speed of light.  In that model, the hyperdrive is the laser ray or

  "Fluorescence and birefringence of 445 nm laser in calcite crystal. The blue laser beam is only visible when the blue light is scattered, for example, by dust particles. Due to the 1.3s exposure time, no individual dust particles can be seen. Dust particles are present in the air, but not in the crystal. In the crystal, some part of the blue light is absorbed and re-emitted as orange light, which is called fluorescence. Most of the blue light just continues to the other end of the crystal. On the lower left you can see the laser beam going in". (Wikipedia/Photon) Part of the light is reflected on the front surface of the crystal; this is the beam you see on the upper left. In the crystal, the two polarisations are refracted by different angles, forming two beams in the crystal. At the end surface, the two beams (both of which are polarised along the axes of the crystal) are refracted back to their original direction, forming the two parallel beams on the right. Inside the c

  The new type of magnetism breaks the limits. And it also gives a chance to model gravitation.  Intense laser rays can transform a solid's magnetic less than an attosecond. That means the laser rays are turning some components in the atomic structure in the same direction. And that thing makes those structures magnetic. Magnetization is the case, where all poles in the metallic grid are turning in the same direction. The laser pulses are acting like wind, which affects the atoms in those structures and then it will make them magnetic.  Maybe the gravitational effect is similar. There is a possibility that gravitational waves or waves in Higgs field are turning quarks or gluons in the subatomic structures into the same direction. Or they would turn those structures acting like magnets.  "An intense laser pulse is shone onto the material, inducing ultrafast spin flipping processes that occur on a timescale of ~100 attoseconds. Credit: © J. Harms, MPSD" (ScitechDaily.com/Ul

Can perpetual motion be possible at the quantum level? If that thing is possible, it can revolutionize quantum computing.  Quantum-level perpetual motion in wobbling time crystals is an interesting phenomenon. The idea is that the atoms in wobbling time crystals recycle energy in the system. The system base is in electricity that pushes and pulls the line of the ultra-cold atoms. Because time crystal is superconducting there should not be loss of power. And if the system can recycle all energy that thing makes it a perpetual motion machine.  When atoms inside the time crystal touch the shell. Energy travels to another side of the time crystal. So the idea is that the electricity travels to the other side of the time crystal than those wobbling atoms. And that electricity pulls those atoms to another side of the time crystal. Or otherwise, repelling electric pole travels to another side of the time crystal.  So why the quantum perpetual motion machines are interesting?  If we think that

Neutral atoms are less sensitive to electromagnetic fields than some ions. So electromagnetic fields don't affect the neutral atom's positions as much as they affect the ion's positions. And that thing brings room-temperature operating quantum computers closer than before. The use of neutral atoms to make quantum entanglements might happen by flashing them with laser rays.  That laser ray would electromagnetic shadow on the other side of the atoms. And then there is the possibility that electrons from electron shells can be locked in the line. When a laser ray stresses that atom. Those electrons act like an antenna that sends information in the wanted direction.  "QuEra Computing, creator of the world’s first neutral-atom quantum computer named Aquila, in collaboration with researchers from Harvard and Innsbruck Universities, has revealed a novel method for performing a broader range of optimization calculations on neutral-atom machines. The findings overcome the nativ