What is dark matter?

dark matter is the stuff between the things we see. In Astronomy, as in all sciences, one can detect an object in one of two ways: either by observing it directly, or observing the effect that it exerts on more visible bodies. The existence of these fundamental particles maybe undetectable as they harbor such minuscule matter structure.

Dark matter is a generic term for these fundamental particles in the local universe. Despite the fact they are not visible to our technology, their presence is inferred by their influence on the more visible celestial bodies. Their exact form maybe controversial but they do emit and accrete thermal information omni- directional and when favorable conditions present themselves they will illuminate. There is a consensus in the astronomical community that most of the mass in the our galaxy and of most galaxies, is in the form of dark matter.

Let us posit a more compelling argument for dark matter:

Let us assume as a hypothesis and permeate the entire mass structure including the whole of the local universe all inclusive with fundamental particles, and create a contiguous information transference medium. It is only logical to assume that the greater universe was created from a very few value varying quantum thermal units. As the evidence from observations of the universe point to everything as being influenced by thermal information.

At this point in time cosmologist are dubious as what dark matter is. With understanding the movements of celestial objects, great strides have been taken in the comprehension of our local universe. The nature of dark matter and its abundance, are crucial questions in modern cosmology. Since an insignificant percentage of all matter is visible, it is therefore logical to embrace the possibility that this non - visual dark matter determines the type of local universe and how it performs.

We may speculate as to what percentage of the local Universe is dark matter, whether galaxies and all macro matter contribute 1% or 10% the fact is 90 to 99% still remains dark matter and potential rest energy as quantum heat units.

Dark matter is a combination of two varying fundamental particle flavors, a negatively charged particle and a neutral particle. In order for neutral particles to exhibit thermal (gravitational) influence they must possess mass. To be instrumental in the construction of plasma, neutral particles must rest in an adjacent formation. Sequentially vast quantities of contactual neutral particles are needed to simply fill the volume and implement a route for universal thermal transference.

The second is a negatively charged particle (fmp-) ingeniously choreographing an isometric, homogenous three-dimensional geometrical lattice, These fundamental negative particles immersed in a neutral plasma assist in the creation of a thermal transference medium and restrain separation by avulsion of celestial objects throughout the local universe. This assemblage of particles immersed in these plasmas represents 100% of all matter in the local universe. One % seems more likely to represent the propagated macro matter occupying the greater universe.

How can we detect dark matter?

I believe the plausible region to detect and observe dark matter (fundamental particles) is in the haze enveloping black holes, here teeming between opposing forces, dark matter impuissant to permeate the critical mass. Constrained by their lattice and plasma formations and having close to zero motion this rest mass has limited options. Dark matter finding itself condensed to more than a normal comfort zone, this higher concentration of baryionic and dark matter will influence higher thermal conditions and initiate a haze around the black hole (as stated in the 1st law of motion).

The haze should be brighter around mature black holes, as all thermal information is confined locally in the lattice to its periphery. The periphery will be determined by the rip in the dark matter (fmp- & fmpn). We may extrapolate that the enveloping dark matter density and unbalanced forces will determine (as stated by the 2nd law of thermodynamics) the thermal values surrounding black holes.

Here we may encounter one or more problems--

1-- Mature black holes should be totally invisible, isolated by a global moat of potential rest energy. Caused by a rip in the lattice.

2-- Thermal information (light) is torpid and can not be transmitted to earth through a "void, vacuum or PRE". To postulate, without dark matter as a transfer medium light can not be visible from the source.

This phenomenon a lattice and plasma will construct sectors as independent areas bearing celestial objects as bubbles in the greater universe. (details Big Bang) Each resembling a small universe within a larger universe. IF one could view these bubbles, from a perspective point, one would perceive these sectors of the greater universe as floating buoyant bubbles throughout a fish bowl full of water.