THE MALTA COSMOLOGY TEMPLATE

Chapter 6 - Photons 

PARTS

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PART 1 - COSMIC PHOTON CREATION

• At Moment Zero, the Universe is a billion lightyears in diameter.
• At Moment Zero, the Universe is, effectively, a hugely energetic understable blackhole.
• In expanding, the Universe fractures into vast numbers of understable blackholes.
• The blackholes are densely packed and have prodigious spinspeed.
• Due to the mutual gravitypull of its teels, the expansion of the Universe slows.
• As the expansion of the Universe slows, the spinspeed of its understable blackholes slows.
• A proportion of the understable blackholes stabilise as photons.
• A proportion of these first photons are still with us as the cosmic background radiation.

PART 2 – PHOTON MECHANICS

• The rearward gravitypull it has experienced during its lifetime versus the forward gravitypull it has experienced.
• The sum of the energy it has absorbed during its lifetime versus the sum of the energy it has ejected.

• The mass of the emitting object (strictly, the emitting object is likely to be an atom but to keep things simple it can be said to be the galaxy (or whatever) that contains the atom).
• The direction of emission (photons only move at lightspeed so a photon emitted to the fore of an object suffers more gravitypull than does one emitted to the rear).
• The mass of the absorbing object (for us, the absorbing object is Planet Earth but it is actually the Milky Way galaxy. Thus the mass measure needed is the mass of the Milky Way modified by the position of the Earth in one of its spiral arms, some distance out from the galaxy's blackhole core).
• The direction of absorption (photons only move at lightspeed so a photon absorbed at the fore of an object suffers less gravitypull than does one absorbed at the rear).
• The distance of the emitting object from the Ucentre at the time of emission.
• The distance of the absorbing object from the Ucentre at the time of receipt.
• The altering gravitypull of the Universe as a whole as it expands and thus becomes less dense.
• The differential colourshifting experienced by a photon during its lifetime from “flyby's” of massive objects (since all objects are moving, the measures of redshift and blueshift resulting from a flyby rarely cancel each other out).
• The effect of the teelospheres/teelstreams through which photons move during their lifetime (gravitypull strength is an absolute and thus easily predictable if all the factors are known whereas the speed and direction of a teelstream can vary dramatically over a short distance)

• The colourshift of a photon, as detected on Planet Earth is the sum of the redshifting and blueshifting it has suffered during its lifetime.
• The farther an object is from Planet Earth, the more massive it must be for meaningful numbers of its photons to be detectable. Thus they are more likely to be redshifted than blueshifted.
• Planet Earth is some distance out from the teelcore of a relatively small mass galaxy. Thus the blueshifting of a photon between crossing the Milky Way's gravitysheath interface and reaching Planet Earth is relatively slight and only rarely likely to cancel out the photon's previous redshifting.
• The Universe is expanding so the distance of most objects from the Ucentre was once less than Planet Earth's current distance from the Ucentre. All photons then emitted will have some degree of redshift by the time they reach Earth. Photons emitted during the early life of the Universe will have a marked redshift.
• In the early life of the Universe, teelstream speeds were extremely high resulting in the extreme redshifting of newly stabilised photons. 

PART 3 – COSMIC BACKGROUND RADIATION. 

PART 4 – SELFPROOF