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Tuesday April 16, 2024

Dark matter can be 'mirror' within our own universe — and it's not what we imagine

Dark matter being mysterious universe's area, does not interact with light or matter composed of atoms

By Web Desk
February 26, 2024
A simulation of the formation of dark matter structures from the early universe until today. — Nasa/File
A simulation of the formation of dark matter structures from the early universe until today. — Nasa/File

Maybe there is a very different black mirror out there in the universe that has been staring us in the face silently since the beginning of time.

According to new research, dark matter—a mystery element that appears to make up the majority of the universe's mass—might be a mirror reflection of our own, but one with broken rules.

This elusive material does not interact with light or matter composed of atoms, despite its quantity (there is approximately 5 kg of dark matter for every 1 kilogramme of conventional matter).

According to Live Science, the only way scientists can identify it is by observing its minute gravitational pull on various objects, such as the movements of stars in galaxies.

The group, which is directed by theoretical physicist Manuel Buen-Abad, suggests in the paper that this mirroring might contribute to the explanation of the universe's remarkable coincidence of identical amounts of dark and normal matter.

The fact that protons and neutrons in the physics of normal matter have about the same mass and may thus bond together to create stable atoms is another odd coincidence.

Atom production would be impossible if a proton were even slightly heavier since it would be completely unstable and decay in a matter of minutes.

The universe would be an ocean of freely floating neutrons in this fictitious scenario.

According to Buen-Abad and his associates, the dark mirror universe could indeed contain this fictitious, fractured reality.

They speculate that perhaps a unique mix of physics produced protons that are similar in mass to neutrons. 

However, that combination was different in the dark matter mirror, leading to the "dark proton" evaporating and leaving behind "dark neutrons," which are what we refer to as dark matter.