The existence of dark matter is an accepted explanation for our observations of the universe.
The observation of dark matter is indirect. Galaxies exhibit gravitational behavior beyond what is attributable to visible stars. Dark matter remains undetected through direct electromagnetic observation due to the lack of appropriate instruments.
Wikipedia:
Dark matter is a hypothetical type of matter distinct from ordinary matter such as protons, neutrons, electrons, and neutrinos.
Dark matter has never been directly observed; however, its existence would explain a number of otherwise puzzling astronomical observations.[1][2] The name refers to the fact that it does not emit or interact with observable electromagnetic radiation, such as light, and is thus invisible to the entire electromagnetic spectrum.[3]
Although dark matter has not been directly observed, its existence and properties are inferred from unexplained mass in gravitational lensing calculations, which affects the motions of baryonic matter and light.[4]. It influences the universe’s large-scale structure, the formation of galaxies, and affects the cosmic microwave background.
Such a description is puzzling because dark matter is an unexplained mass manifestation distinctly different from ordinary matter, such as protons, neutrons, electrons, and neutrinos. That is puzzling because there is no proper idea of what ‘ordinary’ matter is. The Large Hadron Collider is designed to uncover the mysteries of ordinary matter, and it is hoped that this intellectual investment in Geneva will yield results.
The single dodecahedron fits well into the description of dark matter. It can absorb photons in the thermal process, but emits visible light in a diffuse manner. It is not so easy to explain with the information given in this book so far, but visible recognition requires atoms with electrons that can perform the full spinor functionality. Electrons in a dodecahedron are locked in place, and as a result, the spinor functionality of the electron cannot execute such a rotation anymore.
Twin dodecahedrons can also be configured into dark matter as a construct of two protons.
Hence, there are numerous questions that need to be addressed. It is possible that the mystery of dark matter suggests the presence of numerous single and twin dodecahedrons. The twin dodecahedrons with proton bond vectors pointing in opposite directions.