The new observation tools make a revolution in material- and biological research.

The first image of superpositioned and entangled particles helps model ways to control them better.

The ability to control systems requires that the manipulator sees the targeted system. The top image introduces the quantum ying and yang. That is the first image of a superpositioned and entangled photon pair. These kinds of images make it possible to control quantum entanglement better than ever before.

Maybe quite soon the quantum computers can get stable quantum entanglements. The image shows that energy travels in quantum entanglement like wire travels between two rolls that roll wire from the first to the second roll. This is the reason why both particles in quantum entanglement reach the same energy level. And that breaks the entanglement.

That means the quantum entanglement doesn't seem like a pulley at all. It looks like two rolls where yarn will travel from one roll to another. And this is the thing that makes quantum entanglement fill. Filling the quantum entanglement means that superpositioned and entangled particles reach the same energy level, and that breaks the quantum entanglement.

The transmitting side of the quantum entanglement must be higher than the receiver. So for stabilizing the quantum entanglement energy must dumped out from the receiving particle so that its energy level is always lower than the transmitting particle.

Stabilization of the quantum entanglement means that energy will transfer out from the receiving particle. And also photons are particles. The best way to make energy travel out from the receiving particle is to make the quantum or electromagnetic shadow at the point of the receiving particle.

The system can use two extremely thin laser rays. The first laser ray sends energy and information into the transmitting particle. And then some other particle should cause the electromagnetic shadow at the point of the receiving particle. That electromagnetic shadow pulls energy out from it.

"The reconstruction of a holographic image of two entangled photons (Image credit: Nature Photonics, Zia et al.)" (LiveScience.com/Quantum 'yin-yang' shows two photons being entangled in real-time)

The same systems used to make the image of quantum entanglement can revolutionize science and engineering.

"Visualization of the SNOM (scanning near-field optical microscope) microscope tip exposing material to terahertz light. The colors on the material represent the light-scattering data, and the red and blue lines represent the terahertz waves. Credit: U. S. Department of Energy Ames National Lab"(ScitechDaily.com/Terahertz SNOM Microscope: New Tool Helps Improve Key Quantum Computing Circuit). The SNOM terahertz microscope group can operate like a compound eye. And that makes it a powerful tool.

The ultimate combination in new research where scientists want to observe the behavior of complex systems is terahertz-microscopes and AI. The terahertz microscopes see through barriers. And they can observe things like complex quantum systems and living cells in our bodies. The terahertz microscopes that cooperate with AI are tools. That makes it possible to create new types of complex material structures that are harder than any material before. The AI can handle and observe large structures and entireties.

In high-class material research, terahertz microscopes observe reactions in the system, and then the AI controls energy flows in and out from the entirety. The ability to create new types of atomic and molecular structures revolutionizes many things in engineering and research of complicated molecular and sub-molecular systems. The ability to see systems makes it possible to control them with new accuracy.

https://www.livescience.com/physics-mathematics/quantum-physics/quantum-yin-yang-shows-two-photons-being-entangled-in-real-time

https://scitechdaily.com/magnet-magic-how-ai-is-revolutionizing-material-discovery/

https://scitechdaily.com/new-microscope-uncovers-exciting-insights-into-promising-solar-cell-material/

https://scitechdaily.com/terahertz-snom-microscope-new-tool-helps-improve-key-quantum-computing-circuit/

The LK-99 could be a fundamental advance even if it cannot reach superconductivity in 400K.

The next step in superconducting research is that LK-99 was not superconducting at room temperature. Or was it? The thing is that there is needed more research about that material. And even if it couldn't reach superconductivity in 400K that doesn't mean that material is not fundamental. And if LK-99 can maintain its superconductivity in 400K that means a fundamental breakthrough in superconducting technology. The LK-99 can be hype or it can be the real thing. The thing is, anyway, that high-voltage cables and our electric networks are not turning superconducting before next summer. But if we can change the electric network to superconducting by using some reasonable material. That thing can be the next step in the environment. Superconductors decrease the need to produce electricity. But today cooling systems that need lots of energy are the thing that turn superconductors that need low temperatures non-practical for everyday use. When the project begins there is lots of ent

Black holes, the speed of light, and gravitational background are things that are connecting the universe.

Black holes, the speed of light, and gravitational background are things that are connecting the universe. Black holes and gravitational waves: is black hole's singularity at so high energy level that energy travels in one direction in the form of a gravitational wave. We normally say that black holes do not send radiation. And we are wrong. Black holes send gravitational waves. Gravitational waves are wave movement or radiation. And that means the black holes are bright gravitational objects. If we can use water to illustrate the gravitational interaction we can say that gravitational waves push the surface tension out from the gravitational center. Then the other quantum fields push particles or objects into a black hole. The gravitational waves push energy out from the objects. And then the energy or quantum fields behind that object push them into the gravitational center. The elementary particles are quantum fields or whisk-looking structures. If the gravitational wave is

The CEO of Open AI, Sam Altman said that AI development requires a similar organization as IAEA.

We know that there are many risks in AI development. And there must be something that puts people realize that these kinds of things are not jokes. The problem is how to take control of the AI development. If we think about international contracts regarding AI development. We must realize that there is a possibility that the contract that should limit AI development turns into another version of the Nuclear Non-Proliferation Treaty. That treaty didn't ever deny the escalation of nuclear weapons. And there is a big possibility that the AI-limitation contracts follow the route of the Nuclear Non-Proliferation Treaty. The biggest problem with AI development is the new platforms that can run every complicated and effective code. That means the quantum computer-based neural networks can turn themselves more intelligent than humans. The AI has the ultimate ability to learn new things. And if it runs on the quantum-hybrid system that switches its state between binary and quantum states,

Cogito ergo sum. I think; therefore I am (René Descartes, French philosopher)

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