In the realm of conventional physics, it is not possible for energy or light to be polarized in such a way that it becomes completely undetectable and unable to interact with baryonic matter. The interaction of light and matter is governed by fundamental physical laws, such as electromagnetism and quantum mechanics, which dictate how light and matter behave.
Polarization refers to the orientation of the electric field component of an electromagnetic wave. Polarized light can be selectively absorbed, transmitted, or scattered depending on the orientation of its polarization. However, even in cases where light is polarized in a specific direction, it can still interact with matter through various mechanisms.
Light-matter interactions occur through processes such as absorption, scattering, and emission. These interactions depend on the energy and properties of the light, as well as the characteristics of the matter it encounters. Baryonic matter, which includes atoms and molecules, interacts with light through electromagnetic forces, leading to effects like absorption or reflection.
While it is possible to manipulate light polarization using various techniques, such as polarizers, waveplates, or birefringent materials, these manipulations do not render light completely undetectable or unable to interact with matter. They may alter its properties or change the way it interacts with specific materials, but they do not eliminate its interaction entirely.
It's worth noting that there are theoretical concepts such as dark matter and dark energy, which are currently not well understood but are thought to exist based on astrophysical observations. However, these concepts are distinct from the idea of polarized light being undetectable or unable to interact with matter and operate on a different scale and nature altogether.