Speaking of the Ocean - not necessarily the Dirac sea, nor the depth of the imagination - there is the oft-mentioned "Special-K deficit"... and we're not talking breakfast either.

Potassium (K) is one of the most abundant elements in the Earth's crust (2.4% by mass) but only 40 ppm in the ocean - despite its solubility. Lets see: 40 compared to 24,000 is rather glaring (of course that is a hyperbolic misuse of statistics - but it helps to make the point).

That point being that maybe we have this deficit because the nucleus is more unstable under 'certain' low-energy circumstances than the textbooks allow. And no further mention will be made of Kervan now - but keep in mind that K can arguably be more active even in biology then the following figures about it, based on known properties, permit.

Over one out of every 10,000 Potassium atoms is radioactive: Potassium-40 - an unstable isotope with a half life of 1.26 billion years. But there is so much of it in the biota that it must be a major contributor to genetic damage leading to cancer and/or occasionally leading to new (better) genes. It can therfore be considered to be the most important agent of change in all of life - with the possible exception of UV light.

Potassium 40 has three decay modes: beta decay, positron emission, and electron capture. Most of these K nuclei have 19 protons and 21 neutrons and when one proton captures an electron (EC) to become a neutron then 18 protons and 22 neutrons are left and the atom has become Argon-40 the so-called "inert" gas. If the electron has been "borrowed" from the epo (aether) then a positronium is left over OR if the nucleus has emitted a postiron there is also a spare one in the local environs ....

This "extra" postitron may be one key to the reactivity of the remainder argon, despite its short lifetime. Another may be the triad e-e+e- or (e-)* ....where the spare positron bonds with two electrons to form (e-)* or however it is formed - but it should not be discounted that the positronium-positive ion, or the transitory muon, coming from reversed-time-argon (of the Larson reciprocal system) - may be involved in the unusual secondary energy of this decays sequence. Another possibility, one might suppose, although I do not recall ever seeing it mentioned is the molecule: proton-electron-postiron-electron, which is like the H2 molecule but with one proton substituted with a positron. Would that postiron have an extended liftetime??

For every hundred 40K atoms that decay, only 11 become Ar-40. This is not much to play with in order to power an ICE, as we are down to one in 100,000 active and then with the billion+ year half-life you are looking at one in every 10^18 active or only about 50,000 per second per ounce of natural potassium hydroxide - which is minicule as an energy resource.

OTOH there may be potential ways to dramatically accelerate the rate of decay, if not the relative percentage of the radioactive species. The "24,000 times" deficit mentioned earlier may be a clue as to what is going on... not to mention the "accelerated" part.

At any rate - there are surprising links between "inert" Argon and the potassium decay chain leading to OU - some relating to biology.

Jones

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