Why is the sky blue? From a Newton's apple to a large Hadron collider.

The main question about gravity is how or where the quantum overpressure that pushes particles forms. In some models, the whisk-looking structure that forms particles would connect the gravitational radiation between them. That forms the gravitational electric arcs or very small virtual particles in the main particle. And in that case, the energy that reflects from those virtual particles that could be gravitons push particles forward.  Gravitation and superstrings: superstrings act like rockets that move energy to another side of a particle from the direction of the gravitational center,  Gravitation will affect space. And pull quantum fields in the gravitational center. But can gravitation also affect individual particles? We can think that gravity is a complicated interaction. Gravity is the force that affects the wrong way.  When gravitational radiation hits particles they form an electromagnetic shadow or lower energy area at the front of the object, if we think that "front&q

"A new phase-change memory developed by Stanford researchers offers faster, more efficient data processing capabilities. This scalable, low-power, and stable technology could revolutionize computing by improving performance metrics across the board, marking a step toward universal memory. Credit: SciTechDaily.com" (ScitechDaily, Stanford’s Revolutionary Universal Memory: The Dawn of a Fast, Ultra-Efficient Memory Matrix) Nanotechnology is an excellent tool for many things. New and powerful microchips and solid-state quantum systems make it possible to create more complicated molecules. In some models, the solid-state qubit is the glass where superconducting wires transport information. The problem with this type of system is that glass absorbs photons.  And that disturbs information that the system transports into the qubit. Photonic microchips are useful systems. Also in nanotechnology, they don't heat so much, and damage the complicated 3D molecular structure.  The new

"Recent studies of SS 433 have unveiled the mechanisms behind its gamma-ray emissions, revealing how particles are accelerated within its jets. This discovery challenges existing theories and provides a closer look at the processes driving relativistic jets, crucial for understanding cosmic phenomena. Credit: SciTechDaily.com". (ScitechDaily, Breaking Cosmic Speed Limits: Powerful Astrophysical Jet Challenges Existing Theories) "A microquasar, the smaller version of a quasar, is a compact region surrounding a stellar black hole with a mass several times that of its companion star" (Wikipedia, microquasar). Microquasar SS433 challenges theories about the cosmic speed limit. In that object, extremely powerful plasma jets send gamma-ray emission radiation. The gamma-ray radiation forms when hyper-fast plasma interacts with its environment. And especially with particles that fall into the black hole in the middle of the quasar.  (ScitechDaily,Breaking Cosmic Speed Limit

"Scientists applied a simple approach for growing hBN films on the surface of ubiquitous steels and other metal alloys to “armor” them and thus increase their capabilities. Credit: Adam Malin/ORNL, U.S. Dept. of Energy" (ScitechDaily, Invisible Armor for Steel: How hBN Coating Is Reinventing Metal Durability) The invisible armor layer.  The hexagonal boron nitride (hBN) can create lightweight armor on steel. The hexagonal boron nitride forms similar structures with the graphene. But it's easier to make and put to cover large areas than graphene. The idea of this kind of layer is simple. An extra layer with homogenous material can conduct impact energy between those 2D layer particles. And that thing isolates that layer from the steel core. The use of that kind of armor can make revolution for tanks, helicopters, and aircraft. And that lightweight strong armor can also used in satellites. The hBN layer can also give new strength to armor-piecing ammunition. In that case, t

"New research reveals new insights into electron tunneling dynamics at the sub-nanometer scale. Using a van der Waals complex, Ar-Kr+, and an innovative approach for tracking tunneling dynamics, the research highlights the crucial influence of neighboring atoms in quantum tunneling. This work has important implications for quantum physics, nanoelectronics, and the study of complex biomolecules." (ScitechDaily, Quantum Breakthrough: Unveiling the Mysteries of Electron Tunneling) Electron tunneling is one model of quantum tunneling. This new solution means a tunneling effect between electrons. That are in opposite positions to the potential wall.  Researchers created a new model for electron tunneling. Electron tunneling is one version of quantum tunneling. In quantum tunneling particle or wave movement impacts the potential wall. And then that thing travels through the wall. In electron tunneling, an electron makes that thing.  Electrons can travel through the wall itself. In

"Recent studies challenge the quantum Cheshire cat effect’s initial interpretation, highlighting the role of contextuality in quantum mechanics. This research suggests that the perceived separation of particles and their properties is a result of how quantum systems are measured, not an actual physical phenomenon. Understanding this could unlock new insights into quantum mechanics and its applications. Credit: SciTechDaily.com" (ScitechDaily.com/Dissecting the Quantum Illusion: Debunking the Cheshire Cat Effect) The next part of the text means that the particle cannot leave or separate itself from its properties. But the particle can multiply its properties into another particle. And if the particle transfers its quantum field and quantum field's oscillation to another particle. The receiving particle's energy level rises so high level that it covers the original particle below its shine.  The particle and its properties cannot separated from each other. And that mean

    Hunting of dark photons.  The reason why a photon is forever could be that it recycles energy through it. In that model, the photon gets as much energy as it delivers. And that energy stability makes the photon the only known particle, that reaches the speed of light. Also, still, hypothetical gravitons can reach the speed of light.  But in some models, a graviton is a static particle that sends only wave movement. So in this model, graviton will not move like photons. It is the static point, and the only thing that is gravitation that moves is the wave movement. In electromagnetism, photons can move as in particle or wave movement forms.   In some models, the dark photon is a particle that travels in quantum fields like stealth aircraft. In that model, there should be a double-layer quantum field around the dark photon. The outer layer will make other quantum fields slide over dark photons. In that model, the hypothetical dark photon can be a chameleon particle. The quantum field

 Quark-gluon plasma was the first material. Or was it?  Quark-gluon plasma (QGP) is one of the most highly energetic research objects in the history of physics. The QGP forms when particle accelerators impact hadrons together. Like in proton-proton or proton-neutron and proton-electron collimations. If those impacts have enough high energy levels, that impact destroys the shell of the hadron and releases quarks and gluons free from hadrons.  The energy level in QGP must be high enough. That it can keep quarks and gluons away from each other. If the energy level is too low. Quarks and gluons return to protons and neutrons. For observing quarks and gluons researchers must produce clean particles and space, where quarks and gluons are separated. And that thing requires lots of energy.  We are wrong if we think that conditions in particle accelerators are the same as they were in the young universe. The size of quark-gluon plasma was larger. The other thing is that the energy level in that