A Theoretical Consideration:
The biochemical structures and method used to find a potential candidate is confidental at this time, due to patent implications.
Using chemical drawing software, we found a small compound having two different structures, depending on we suggest, the stimuli of either UV or IR radiation. During UV stimuli the weak structure has two embedded activating enzymes and synthesises a specific hormone.
During IR stimuli, the strong structure also has two embedded activating enzymes and synthesises another hormone plus a symetrical hetrocyclic compound. When UV stimuli returned the strong bonding broke. Individually, both these structures passed all APlog, H donor and receiever, and structural tests as valid. The molecular weight of both structures is less than 500 Daltons.
During UV stimuli the small compound releases a specific hormone, plus in the presence of CO2 and H2O, the weak bonded structure has the ability to photosynthesise producuing ATP, NADPH and a carbohydrate (alternating UV/IR produces a sugar regulator). ATP is used by the right hand side of this structure to self-replicate that half. During IR stimuli the small compound releases a different hormone, with the presence of H2O, produced by peptide re-bonding. The left hand structure can self-replicate, producing an acidity and temperature regulator . We suggest the new part to the right of the structure α-helixes and folds under to join the new part of the left hand structure centred on the symetrical hetrocylic compound, thus synthesising a potential peptide nucleic acid. We suggest the small compound is found in the mitochondrial sac of iPCRGCs in mammals and in chloroplasts of plants.
The synthesis of the two inversely acting hormones during alternating UV/IR, the synthesis of carbohydrates, or not, depending on alternating UV/IR suggests a sugar regulator, and the synthesis of another compound in IR mode, and not the other, which is a known temperature and acidity regulator, suggests a fundamental balancing mechanism. We also suggest that reactions of the small compound structure changes to alternating UV/IR stimuli creates bio-rhythms.
Analysis of all the information we have gathered suggests the small compound and it's reactions to weather (weather coping mechanism) is a very likely candidate for the very first form of life on earth, providing a new hypothesis of evolution. We also suggest, as this small compound, is potentially found the mitochondria in every cell of every living organism today, all life evolved from this simplicity.
Endosymbiosis theory suggests prokaryotic life was "subsumed" by eukaryotic life. How did eukaryotic life survive without a fundamental coping mechanism? Simply it couldn't, eukaryotic life evolved from prokaryotic life.
Sleep is good for you
As the small compound reverts to it's strong bond during periods of IR, this is when the immune system can repair mutations caused by UV during the day. It was also noted when we sleep, even during the day, the small compound is in strong bond, repair mode. On showery days the UV/IR switching can vary many times during the day.
We are notably happier, vibrant and energetic during periods of sunshine even on a cold day, this has got to do with the release of the hormone during UV stimuli. Seasonal affective disorder, occurs during times of less light during IR, particularly relevant to far north and far south hemispheres in respective winters, where light is a scarce comodity. We did some research on global suicide rates and will place in a news article soon.