"The universe’s accelerating expansion is usually attributed to an unseen force called dark energy. New research proposes that a deeper understanding of gravity and spacetime geometry might explain this behavior without invoking such a mystery. Credit: SciTechDaily.com" (ScitechDaily, What if Dark Energy Doesn’t Exist? New Theory Could Rewrite Cosmic Expansion)
There are two types of energy, or quantum fields, in the universe. The local fields that surround galaxies and other gravity centers. And the global fields. These are sometimes called Higgs fields. Those fields are the base energy fields in the universe. Global fields exist in space between galaxy clusters. And they determine the minimum energy level in the universe. The expansion of the universe affects the global field more strongly than the local fields. The local field is like a bubble. That form is when energy and matter are. Pack around gravity centers.
Like. Galaxies and black holes. Because those gravitational centers pull energy around them, the particle evaporation, or quantum evaporation, is slower around those gravity centers. When particles outside those local fields turn energy. Or wave movement faster than particles in the local fields. It can cause an effect that we cannot see. That evaporation form. When quantum fields turn weaker. Energy.
That comes from the global field pushing local fields and turning their geometry. That quantum wind forms energy shadows that move objects inside those fields. So. When that energy hits the quantum field around the galaxy clusters. It. Forms a similar halo. The sun forms near Earth. The energy of those objects with the minimum energy level. It is not very strong, but there are lots of those objects. Far more. Than in the galaxy clusters. This means that the local fields around galaxies don’t let that energy come through them.
The local fields are complex internal bubbles that surround stars, star clusters, galaxies, local galaxy clusters, and galaxy superclusters. Those fields make it hard to detect radiation that comes from the space between galaxy superclusters. So that energy can push the galaxy's halo. The halo around galaxies is far heavier. Than. A galaxy. When that halo moves, the galaxy in it moves. The problem is that. The galaxy is the dominant object. But the galaxy is not alone. Along. With the surrounding halos, dwarf galaxies, and star clusters, it forms the local system. The local system. It is very complex. Each dwarf galaxy has its own halo inside the main halo. Those halos are formed of dark matter and visible matter.
That means other objects around the galaxy move in the same way relatively to the galaxy. So the virtual position of the dwarf galaxies around the massive or full-size galaxies remains the same. Or it's the same relatively to the central galaxy. Because. The local system. Remains in the same form. That means the local system moves as an entirety. The movement is hard to detect. If. The observer is that system.
This halo is one of the things that makes it hard to detect low-energy objects. Outside. That halo. In the same way as local quantum fields, those halos are multi-layer bubbles that surround single galaxies. Local clusters. And super clusters.
So if dark energy is the movement in the Higgs field. The next. Question is: What pushes that field into motion? The Higgs field. The base energy field is all around the universe. That field determines the base energy level in the universe. And the expansion of the universe. Causes the effect. The Higgs field turns weaker. This effect pulls energy out of particles.
"AI-generated picture of the expansion of the universe. Credit: ZARM, Universität Bremen (AI generated)" (ScitechDaily, What if Dark Energy Doesn’t Exist? New Theory Could Rewrite Cosmic Expansion)
Again, does dark energy exist? That depends on how we determine dark energy. Is it energy? That just cannot. Travel through the galaxy's halo? Or, is it so weak energy or energy that the source is in such a small particle that we cannot separate it? The halo around the galaxy is so bright. That. We simply. Cannot see the radiation that is between galaxies. The problem is that the halo around the galaxy is so high-energy that it covers the energy. That is the particle at almost the minimum energy level. Transmits. In the case of dark energy, we should ask: What pushes energy in motion? Things like stars in the galaxy. And high energy. Shining nebulae cover that weak background radiation. Under. Radiation that comes from stars and other objects.
The fact is that nobody knows. Dark energy can be a virtual situation that forms when the universe expands. Universe’s expansion. Causes a situation where quantum fields. Around particles turn weaker. That means material, or rather, particles, evaporate faster. This means particles turn into a wave movement. A particle is actually a pack of dense wave movement. The quantum field outside it. Keeps it in form. So when the energy level in the quantum field decreases.
The energy level. Around the particle decreases. Particle releases wave movement. This increases energy in the universe. At the same time. When. The universe expands. The distance between objects rises. This causes the gravity effect between objects turn weaker.
Quantum Evaporation. Along. With. A weaker gravitational effect. It can explain dark energy. Then the key problem is this: why is that thing so hard to detect? We should rather say why we cannot see that effect in small-scale systems. Things like galaxies and black holes are gravity centers. They pack energy fields around them. This means that.
The large-scale quantum evaporation or particle evaporation. It cannot happen near galaxies. This means that the universe’s expansion doesn’t have a direct effect on the field around galaxies. Massive gravitation, along with energy that comes from stars, keeps that local quantum field, at least, more stable than the global field. The global field is the quantum field. Or the Higgs field, which is between galaxy clusters. The universe's expansion affects the global field more strongly than it affects the local field.
https://scitechdaily.com/what-if-dark-energy-doesnt-exist-new-theory-could-rewrite-cosmic-expansion/
https://en.wikipedia.org/wiki/Dark_energy
https://en.wikipedia.org/wiki/Dark_matter
https://simple.wikipedia.org/wiki/Higgs_field















