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

  A dark matter particle or weakly interacting massive particle WIMP may follow all particles. And there is the possibility that those particles are lighter versions of the Kubelblitz black holes. In this text, I call the WIMP the Kugelblitz structure. The Kulgelblitz structure is a lighter version of the Kugelblitz black holes. Those hypothetical Kugelblitz black holes can be those quantum-size black holes. The lifetime of those particles could be less than a second before they vaporize. And that could connect WIMPs to those structures.  Dark energy is wave movement that the source is unknown. So could that source be the quantum-size Kugelblitz black hole? The same phenomenon that creates the Kugelblitz black holes can create lighter structures. We can call as kugelblitz-structures. The quantum-size black holes can form a quasiparticle called super exciton.  Exciton is the situation where an electron starts to orbit an electron-hole. If an electron can start to orbit the quantum-size

"Image depicting the control of polariton particles using electric-field tip-enhanced strong coupling spectroscopy. Credit: POSTECH" (ScitechDaily, Light-Matter Particle Breakthrough Could Change Displays Forever). The system can use the same method to create qubits.  Light-particle interaction that can change displays forever can also make it possible to unlock a new way to create qubits. The system can make it possible to trap things like electrons between two layers. And then. The system can create the quantum entanglement between those electrons or maybe even atoms.  The superposition between atoms is possible if the system can make a very accurate superposition between those atom's quantum fields. Or the system must just descramble information that it transports between atoms.  In this image, you can see the energy hills and the system can make quantum entanglement between those hills.  Holographic displays. That creates hovering holograms over them those holograms c

"The Kerr-enhanced optical spring method enhances gravitational wave detection, offering new insights into cosmic phenomena and neutron star structures. Credit: SciTechDaily.com" (ScitechDaily, Unlocking the Universe: Kerr-Enhanced Optical Springs for Next-Gen Gravitational Wave Detectors) The next-generation gravity wave detectors can be more sensitive and compact than ever imagined. In some scenarios, the nano-size mirrors with as high a reflection as possible can create an optical structure. Where the laser ray's length is thousands of kilometers. This thing is quite hard to make.  If researchers create that structure using mirrors that reflect 100%. The system can detect the brightness of laser rays. And when the gravity wave hits those laser rays, it changes their brightness.  But the other thing is what if researchers can stretch light? In stretching light the length of the light surface is big. And that makes it possible to create a system. That can detect gravity

"New research demonstrates control over quantum states that could revolutionize energy efficiency in electronics and advance quantum computing. Credit: SciTechDaily.com" (ScitechDaily, Quantum Control Unlocked: Creating Resistance-Free Electron Channels) Researchers removed resistance from electron channels. That means electrons can travel without resistance. And this is an advance in long-range quantum communication. Quantum computers can benefit from these non-resistant electron channels  In the quantum computer's internal data transportation. The long-range quantum communication in qubit form requires that there is no resistance. Resistance is the thing that destroys data in the qubit.  And the thing. What makes quantum communication secure is that. The system packs data into the physical thing like electrons. The problem is that the system must keep information in the electron. Resistance will destroy that information. So this is why the resistance must removed. And r

"An artistic illustration shows how microscopic bolometers (depicted on the right) can be used to sense very weak radiation emitted from qubits (depicted on the left). Credit: Aleksandr Käkinen/Aalto University" (ScitechDaily, Breaking the Limits: Overcoming Heisenberg’s Uncertainty in Quantum Measurements) "The uncertainty principle, also known as Heisenberg's indeterminacy principle, is a fundamental concept in quantum mechanics. It states that there is a limit to the precision with which certain pairs of physical properties, such as position and momentum, can be simultaneously known. In other words, the more accurately one property is measured, the less accurately the other property can be known." (Wikipedia, Uncertainty principle)  In this text, the Heisenberg uncertainty principle means the same as the uncertainty principle or Heisenberg indeterminacy principle, The highly accurate temperature sensors can measure the quantum system's energy levels. The

"Researchers have created a quantum vortex in superfluid helium to study black hole dynamics, revealing new insights into quantum fields and curved spacetimes through innovative cryogenic experiments. Credit: SciTechDaily.com" (ScitechDaily, Quantum Tornado Unlocks Mysteries of Black Holes) Quantum tornadoes can also act as qubits if their shape is slight enough. Or they can form a quantum point in the middle of it. And that point can act like a photon pair in qubits. In that model, two quantum whirls are horizontally against each other. And data travels through those quantum points.  In some visions the system can use quantum tornadoes or plasma rings to create slight electromagnetic fields. The system can put those electromagnetic fields into superposition and entanglement. Those whirls or ion rings are similar to those used in fusion tests but at a lower energy level. That thing allows the system to create almost stable qubits.  In the most exotic and powerful version, the