Dark Matter Is Microscopic White Holes and Microscopic Moons

Foundational Notice: The Two Types of Dark Matter and the Distinction Between Their Levels The Dahli Model establishes the existence of two types of dark matter, which differaccording to the structural level to which they belong. They must not be confused ortreated as a single entity:The first type: Dark matter at the outskirts of galaxies, namely microscopic white holes. These microscopic white holes originate from the pure galactic cloud located at theoutskirts of the galaxy. This cloud is not of the same nature as the internal relative-pureclouds; rather, it is the root, origin, and pure whole that results from the superposition ofall the relative-pure clouds within the galaxy. It is the pure whole of these clouds in termsof their ontological structure, not merely the arithmetic sum of their masses.The second type: Dark matter at the outskirts of stellar systems—that is, aroundsolar systems and stellar systems—namely microscopic moons. These microscopic moons originate from the multiple relative-pure clouds located withinthe galaxy. They are structural units belonging to the level of stellar systems, and theydiffer in their structural position from microscopic white holes, which belong to the galactic level. The Dahli Model defines the meaning of “pure” clearly: A pure cloud is a cloud at itslowest density, meaning that it is free of dust. In terms of their general nature, thepure clouds in the model are of the same nature as the known molecular clouds, in thatthey are gaseous clouds. However, they are not the same natural molecular clouds fromwhich the environments for the formation of stars, planets, and asteroids are formed.Similarity in gaseous nature does not mean identity in structure, function, or formation pathway. Accordingly, the Dahli Model establishes the following distinction:• The relative-pure clouds inside the galaxy produce microscopic moons, whichrepresent dark matter at the outskirts of stellar systems.• The superposition of all these relative-pure clouds forms the pure galactic cloud, whichis the root, origin, and associated pure whole.• The pure galactic cloud produces microscopic white holes, which represent darkmatter at the outskirts of the galaxy. This distinction is not merely a difference in size, but a difference in structural level,origin, and compositional relationship. Dark matter around stellar systems is not the sameas dark matter at the outskirts of the galaxy, even though both types are part of theoverall ontological construction established by the Dahli Model.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-11
DOI
https://doi.org/10.5281/zenodo.24145812
Primary Topic
Dark Matter and Cosmic Phenomena
Type
preprint
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Dark Matter Is Microscopic White Holes and Microscopic Moons

Dahli Chabane
Zenodo (CERN European Organization for Nuclear Research)
Dark Matter and Cosmic Phenomena
preprint

Dark Matter Is Microscopic White Holes and Microscopic Moons

Dahli Chabane
preprint en

Abstract

Foundational Notice: The Two Types of Dark Matter and the Distinction Between Their Levels The Dahli Model establishes the existence of two types of dark matter, which differaccording to the structural level to which they belong. They must not be confused ortreated as a single entity:The first type: Dark matter at the outskirts of galaxies, namely microscopic white holes. These microscopic white holes originate from the pure galactic cloud located at theoutskirts of the galaxy. This cloud is not of the same nature as the internal relative-pureclouds; rather, it is the root, origin, and pure whole that results from the superposition ofall the relative-pure clouds within the galaxy. It is the pure whole of these clouds in termsof their ontological structure, not merely the arithmetic sum of their masses.The second type: Dark matter at the outskirts of stellar systems—that is, aroundsolar systems and stellar systems—namely microscopic moons. These microscopic moons originate from the multiple relative-pure clouds located withinthe galaxy. They are structural units belonging to the level of stellar systems, and theydiffer in their structural position from microscopic white holes, which belong to the galactic level. The Dahli Model defines the meaning of “pure” clearly: A pure cloud is a cloud at itslowest density, meaning that it is free of dust. In terms of their general nature, thepure clouds in the model are of the same nature as the known molecular clouds, in thatthey are gaseous clouds. However, they are not the same natural molecular clouds fromwhich the environments for the formation of stars, planets, and asteroids are formed.Similarity in gaseous nature does not mean identity in structure, function, or formation pathway. Accordingly, the Dahli Model establishes the following distinction:• The relative-pure clouds inside the galaxy produce microscopic moons, whichrepresent dark matter at the outskirts of stellar systems.• The superposition of all these relative-pure clouds forms the pure galactic cloud, whichis the root, origin, and associated pure whole.• The pure galactic cloud produces microscopic white holes, which represent darkmatter at the outskirts of the galaxy. This distinction is not merely a difference in size, but a difference in structural level,origin, and compositional relationship. Dark matter around stellar systems is not the sameas dark matter at the outskirts of the galaxy, even though both types are part of theoverall ontological construction established by the Dahli Model.

Zenodo (CERN European Organization for Nuclear Research)
Dark Matter and Cosmic Phenomena
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