Quote:
Originally Posted by aastrotech
Waves moving through an isotropic field move smoothly.
|
What is "field" in this context? Do you mean "medium", perchance?
Quote:
Originally Posted by aastrotech
Anisotropy refracts waves.
|
Can you show us how that works?
As far as I understand,
inhomogeneity of the medium yields refraction.
Quote:
Originally Posted by aastrotech
Waves are anisotropic.
|
What if we have a spherical wave?
Quote:
Originally Posted by aastrotech
High anisotropy equals high energy.
|
Can you show us how that works?
Quote:
Originally Posted by aastrotech
The geometry and anisotropy of some waves is such that the strong anisotropc effects of part of the wave refracts other parts of the wave and vice versa in a geometric harmony so that the wave sort of chases its own tail.
|
Are you saying that different parts of the
same wave affect each? Is this some sort of action at a distance, or have you something like a double slit setup in mind?
Quote:
Originally Posted by aastrotech
This can be visualized as something of a pucker in a field. A high energy, (relatively) stationary wave is strongly anisotropic internal to itself and exerts a weaker and in a vastly broader spacial extent relative to its strong internal anisotropy a weak anisotropic effect on the isotropic field around it createing a field of anisotropy more anisotropc near it than that farther from the pucker. This can be visualized as the "pucker" "pulling" on the field.
[SNIP!]
|
Sorry, but this is just word salad.
Quote:
Originally Posted by aastrotech
Refraction is implicitly a slowing of the wave or a change in frequency.
|
Since when do lenses change the frequency of the light?
Quote:
Originally Posted by aastrotech
[SNIP!]
Waves in this harmony with each other are called baryonic matter. Dark matter is waves that don't harmonize with baryonic matter but do cause anisotropic refraction of baryonic matter.
|
I think you need to study more rigorously the behaviour of waves.