“A bold challenge to the 'block universe' suggests our understanding of space-time—and reality itself—may be far less settled than it seems. Credit: AI/ScienceDaily.com” (ScienceDaily)
Space-time refers to the combination of space and time. This means that matter and time. Are in interaction. Time is connected with matter. And matter connected with time. But then we must realize one thing: why space-time? Or spacetime, is so hard to determine. The reason for that is simple. We don’t know about the nature of time. We can say that the expansion of the universe is the thing. That puts energy into the move. When the universe expands. There is less energy left. And that means that energy flows away from matter. This means that sooner or later.
All particles should turn. Into a wave movement. This means that time is at least energy. Or it's the energy and particle interaction. Schwinger effect. Or wave-particle duality means that. Energy. It can turn into a particle. And otherwise, a particle can turn into energy. This is one of the determinants for the time. But then we can see that time moves differently at different points in the universe. Gravitation slows time. And the reason for that is theoretically very simple. The gravitational center packs quantum fields more densely around it. That slows the matter evaporation.
This is one version of the thing. That could determine time. Then we must realize that time should travel differently in particles of matter. When we think about time, we face one interesting detail. We should also ask how time moves in protons, neutrons, or quarks. The Tipler cylinder is the theoretical time machine. The idea of that thing. It is that a fast-spinning cylinder slows time inside it. The idea of the Tipler cylinder. It is possible to transfer. Into the particles.
Fermionic particles themselves have spin 1/2. This means that the fermions wobble back and forth. In antimatter, spin is opposite. And the question is, what actually determines which is an antifermion and which is a fermion? Fermions are the elementary particles that form matter. The electron has a negative electric charge. And its mirror particle, the positron, has a positive electric charge. Also, quarks have their anti-quark pairs.
Particles. They are not just particles. They are particles, and all particles are surrounded by halos. That halo is the quantum field. So all particles are in the spinning whirl. This whirl pushes the particle to spin forward. Then suddenly that field loses its touch. And then the particle returns to the position. There it was. A particle is a whisk-shaped structure. The superstring that forms the ball. The quantum field or that whirl touches the particle. In the points of those superstrings. When that field pushes a particle forward, it injects energy into it.
When the energy level of a particle turns higher than the energy level of its halo. The halo jumps away from that particle. And then the elementary particle turns back. Into its original position. The expansion of the universe causes a situation. That energy level around the particle-halo combination turns lower. And that means that energy travels away from that halo. When that halo transports its energy. Into its environment, that halo also expands. And that is one of the reasons. For why supermassive black holes are so large. At the beginning of the universe. Those black holes were normal-sized. But when quantum fields in the universe turned weaker. They expanded to an incredible size.
So when particle and antiparticle pairs impact. That impact neutralizes their halos. And that means that particles release energy. That is stored in their superstrings. So, that reaction turns those particles into a wave movement in a reaction called annihilation.
When a particle changes its direction, it releases a photon. That is because it must release kinetic energy. That is stored in it while it spins. Before a particle can change its direction, it must stop. And in that process, it must release its kinetic energy. When a particle releases its kinetic energy, it releases something from itself. It loses a little. A bit of its mass. An elementary particle is formed from energy. And that means that little bit of energy that formed the particle is gone.
When it releases that photon. When we think about cases. That particle has a lower energy level than the surrounding ones. That means that the particle receives energy. And before the particle changes its spin direction. It will not send photons. When a particle slows its spin. It starts to release its kinetic energy as wave motion. And finally, that wave motion turns into photons. If a particle just receives energy. It turns invisible. This causes an idea. Whether the black hole is a particle or an object.
That spin is more than 1 (>1). In that case, the particle pulls energy inside it. Until its energy level is higher than the energy level in its halo. If a particle or object focuses energy inside it. That energy behaves like a laser. This means that the energy forms the spike. Or the beam. That can travel out from that object. This means that this effect acts like a giant thermal pump. That transports energy out from objects like a black hole. So why? The black hole's gravitational field is so strong. The reason for that is that. The black hole is very close to the homogeneous particle. This means that the entropy inside it is very low. Also, in normal particles and objects, there are energy spikes in the particle’s spin axis.
But the difference is that. Those particles are turning in different directions. And those energy spikes are random. But in the cases of neutron stars. Every single neutron is in the N/S position. This decreases entropy. That means that those “thermal pumps” travel through all neutrons. And in the middle of the neutron star. That beam transports energy out from the structure with the highest power. The neutron’s shells create structures. That takes energy into them.
But what if those objects have no internal structures? In black holes, there is no internal structure. Energy travels straight into the spin axle. And there it forms the beam that transmits energy to the black hole’s core. This effect causes an extremely powerful energy transfer. To the center of the black hole. If a black hole cannot release its energy, its mass increases. That makes time travel backward in black holes. The black hole’s event horizons will expand. The expansion of the black hole’s event horizon is an interaction. The expansion of the universe causes. The quantum fields around the black holes turn weaker. That means that the black hole’s halos expand. And that is one of the reasons. For why those supermassive black holes are so large.
https://www.sciencedaily.com/releases/2026/06/260606075858.htm
https://en.wikipedia.org/wiki/Growing_block_universe
https://en.wikipedia.org/wiki/Spin_(physics)
https://en.wikipedia.org/wiki/Standard_Model
https://en.wikipedia.org/wiki/Tipler_cylinder































