ReinyDays
Gold Member
So (back to thread topic) my suggestion is that "common descent" extends a lot farther back than we ordinarily think.
You can imagine two forces at work - one which creates entanglements, and another which destroys them (or modifies them in some way). The destructive force is what we call "zero point energy", for instance the thermal behavior that persists at 0 degrees K in "empty" space (which by the way, is relativistic - the faster you travel the more of it you see).
As far as we know, ZPE is "random" - but no one's really been able to look across 20 orders of magnitude. According to the quantum theory it responds to "fields", which behave somewhat like membranes. The most important thing about membranes is their boundary conditions (think, how they're attached, and to what). Under the proper conditions, a perturbation at one point will cause an equal and opposite reaction somewhere else - which if we couldn't see both events we might call "random". We can also note in passing that biological membranes carefully control their deformations. Like this:
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Mechanisms of membrane deformation - PubMed
Membrane traffic requires the generation of high-curvature lipid-bound transport carriers represented by tubules and vesicles. The mechanisms through which membranes are deformed has gained much recent attention. A major advance has been the demonstration that direct interactions between...pubmed.ncbi.nlm.nih.gov
One must consider that biological "descent" can be traced back at least as far as the creation of carbon atoms, which is only a few million years after the Big Bang.
Why is it useful to consider rocks as life ... we have a very strict definition of "organic", any molecule that contains carbon except carbon dioxide ... all other species are inorganic ... including the silicon dioxide that makes up your rock ...
Does a rock exhibit inheritable traits? ... if we dig up a quartz crystal, have we killed her? ... so there;'s one definition of life that's useful, something is alive if we can kill it ... try to kill a rock and you'll just make more rocks ...
We can only approach ZPE as we approach 0 K ... our system become discontinuous at 0 K ... our universe is 3 K ... thus what we do in the lab comes at a cost to the rest of the universe ... with interest ... [shrugs shoulders] ... my understanding of the Third Law of Thermodynamics is very weak, it doesn't come up much in irradiated systems ... what value does Boltzmann's constant have a 0 K? ...
From Wikipedia: "It is impossible by any procedure, no matter how idealized, to reduce the temperature of any closed system to zero temperature in a finite number of finite operations." and "Mathematically, the absolute entropy of any system at zero temperature is the natural log of the number of ground states times the Boltzmann constant kB = 1.38 × 10^−23 J K^−1." , because ln 1 = 0 for hydrogen, right? ...
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