The symmetry or asymmetry in the universe might explain why everything exists.

The thing is that asymmetry in the universe is very small. And it's visible only in the most distant galaxies. The team used a four-point correlation function for measuring the universe's geometry. The results are so clear that the asymmetry cannot be a coincidence.

"Researchers used the form of tetrahedrons or four galaxies. "A tetrahedron is the simplest shape that cannot be rotated into its mirror image in three-dimension (3D). The 4-point correlation function (4PCF), which quantifies excess clustering of quartets of galaxies over random, is the lowest order statistic sensitive to parity violation. Each galaxy defines one vertex of the tetrahedron. Parity-odd modes of the 4PCF probe an imbalance between tetrahedra and their mirror images". (https://academic.oup.com/mnras/article-abstract/522/4/5701/7169316?login=false)

The natural laws might not be symmetrical. That means the other natural laws might be stronger than others. Another way to say that thing is that there is more some natural law and its transportation particles than another natural law or interaction. So there is fewer some type of bosons than some other types of bosons. That theory means that natural interactions are forming bubbles in the universe. And those interactions travel through each other.

So those traveling interactions might explain why we and material existence. When superstrings traveled against each other, that thing makes the Schwinger effect possible. During that era, the Schwinger effect formed particle-antiparticle pairs and caused great annihilation and cosmic inflation.

But what if the entire universe is not symmetrical? That thing causes interesting ideas. If the universe would look like a rugby-ball or flat ball, that means the material released from the point that looked like some kind of black hole. But in this version, we must realize that the source of the universe just looks like a black hole. The fact is that there is nothing so massive as the point that released all known material into the spacetime.

There is a model that the great annihilation, just after the Big Bang adjusted the energy level of dark matter. The thing that supports that model is that the visible material is quite exotic. If we compare it with dark matter and dark energy. Only a small part of the universe is visible to us.

But in that case, the universe is a symmetrical structure around the point where the Big Bang released material that formed the universe. If the universe is not symmetrical that means something that came outside causes the effect that caused asymmetry in the form of the universe. There is a possibility that some kind of energy pike impacted the wave movement around the Big Bang. And that thing formed the first particles.

There is the possibility that the dark matter did not take its form at the same time as visible material. In that model, the Big Bang is the thing that adjusts the energy level of the particles at a certain level. Maybe cosmic inflation theory explains the thing called the Big Bang. The idea is that the beginning of cosmic inflation is the annihilation reaction that happened between particle-antiparticle pairs.

In that model, the great annihilation that happened between yet unknown particle-antiparticle pairs caused so strong energy impulse that turned the dark matter particles or hypothetical wimps (Weakly Interacting Massive Particles) into the energy level that makes it the material that we know as visible material.

So could the extremely powerful annihilation radiation turn the wimp into visible material? The relations of particle types and dark energy in the universe could prove that model. In this model, the universe is a bubble of very exotic material in a large space that is full of yet unknown particles and virtual particles.

https://academic.oup.com/mnras/article-abstract/522/4/5701/7169316?login=false

https://phys.org/news/2023-05-laws-physics-symmetric.html

The hydrogen-burning supernovas are interesting models.

"Researchers discovered a significant magnesium anomaly in a meteorite’s dust particle, challenging current astrophysical models and suggesting new insights into hydrogen-burning supernovas. (Artist’s concept.)Credit: SciTechDaily.com" (ScitechDaily, Rare Dust Particle From Ancient Extraterrestrial Meteorite Challenges Astrophysical Models) If the star is too heavy when its fusion reaction starts, it can detonate just at that moment, when its fusion starts. If the collapsing nebula is heavy enough, it can form a black hole straight from the nebula. But if the nebula's gravity is too heavy to form the blue giant or too small it can collapse straight into a black hole . If the forming star is a little bit larger than the blue supergiants. It can explode immediately when the fusion starts. The theory of hydrogen-burning supernovas consists model of the giant stars that explode immediately after their fusion starts. When the interstellar nebula falls it can form

The ancient galaxy mirrors the Milky Way.

"This image shows the galaxy REBELS-25 as seen by the Atacama Large Millimeter/submillimeter Array (ALMA), overlaid on an infrared image of other stars and galaxies. The infrared image was taken by ESO’s Visible and Infrared Survey Telescope for Astronomy (VISTA). In a recent study, researchers found evidence that REBELS-25 is a strongly rotating disc galaxy existing only 700 million years after the Big Bang. This makes it the most distant and earliest known Milky Way-like galaxy found to date. Credit: ALMA (ESO/NAOJ/NRAO)/L. Rowland et al./ESO/J. Dunlop et al. Ack.: CASU, CALET" (ScitechDaily, Astronomers Baffled by Ancient Galaxy That Mirrors Modern Milky Way) Researchers found the youngest Milky Way-type galaxy. The distance to the galaxy is enormous. And the light that comes from that galaxy named REBELS-25 comes from the Universe that is only 700 million years old. The distance to that galaxy is enormous about 236 billion light years. And that means it's a very dista

Transcendence, or the ability to transcendent thinking may grow in teen's brains.

"New research has discovered that transcendent thinking, which involves analyzing the broader implications of situations, can foster brain growth in adolescents. This form of thinking enhances brain network coordination, impacting developmental milestones and future life satisfaction. The study emphasizes the need for education that encourages deep, reflective thought, underscoring the critical role of adolescents in their own brain development". (ScitechDaily, Scientists Discover That “Transcendent” Thinking May Grow Teens’ Brains) "Scientists at USC Rossier School of Education’s Center for Affective Neuroscience, Development, Learning and Education (CANDLE) have discovered that adolescents who grapple with the bigger meaning of social situations experience greater brain growth, which predicts stronger identity development and life satisfaction years later". (ScitechDaily, Scientists Discover That “Transcendent” Thinking May Grow Teens’ Brains) The transcendenc

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