Further, as in chess, there is a move with three exclamation marks, which solves all problems. That's how life comes about. Dance biologists! (Already 15 years old, and no one dances).
Thesa. THE BIRTH OF LIFE. The main, super-major moment in the emergence of evolution and evolutionary direction to the modern biosphere is the emergence of large molecules - mills of solar quanta. Perhaps, possessing small molecular flagella, over which small quanta flow into the environment. And it turns out that when small quanta run off from the end of the molecule or from its flagellum, there are tremors that lead to the translational motion of the molecule-the mill of solar quanta. A self-moving molecule - this is the origin of Life!
   An essential condition for the onset of the translational motion of a molecule is a certain stability of its shape. Otherwise, its tail along with the engine will jerk, and the entire molecule will remain in one place and life will not arise.
   Then there is a split of the process of the emergence of Life into two. Most likely, both these processes exist and in one or another situation one of them prevails.

1. Flagellar life. The flagellum oscillates under the action of quanta of energy flowing along it.

This version was born from the version of hairs in the capillaries of plants and animals. Hairs can develop from molecular flagella. The mechanisms of the appearance of flagellar oscillations are listed below. Such flagella, of course, can be a lot in one mill. Vibrate or even rotate and large parts of the molecule-mills. This is not the point. The true, great, full and life-affirming meaning of what happened is revealed below, when considering the resulting molecule, the carrier of the flagellum, that arises because of this. The expression "once hesitated" does not even fit here, because these flagella, if they appeared, then vibrate and fluctuate with necessity. The flagellates row like an oar. In this case, the internal energy of the electron clouds of the molecule-mill effectively transforms into the thermal energy of the surrounding molecules. And there is a mechanical movement of the main molecule.

2. Electronic life. The birth of mechanical motion of a molecule can occur in another way. This can also be interpreted within the framework of mechanistic models of atoms. The transfer of energy from the molecule-mill to the surrounding molecules occurs upon contact of the electron shells. And what kind of contact is this? - In the mechanistic interpretation, these are the impacts of electrons belonging to one molecule on the electrons of another molecule, which transfer mechanical motion, momentum, energy. Thus, an excited molecule by numerous impacts of its electrons on the electrons of other molecules pushes them away from itself. But at the same time, its electrons are attached to it, therefore it seems to be repelled from surrounding molecules and also acquires translational motion. Despite the fact that the masses of electrons are negligible, they move very fast according to the classical theory and give a decent push force.

   Discussion of flagellar life. Electric forces that are carriers of excitation energies of electron clouds are powerful. And these forces will very vigorously swing the molecular flagella, pushing and pushing the surrounding molecules and transforming the internal energy of the mill into the thermal energy of the water. A molecular mill is rowing!
   A screw-like screwing of a molecule into water, and any possible motions, can also be created.
   It should be remembered that the process of absorption of a solar quantum by a molecule consists in the resonant buildup of the electron shell of a molecule by an alternating electromagnetic field of a solar quantum. And in the same way this rocked and untwisted electronic shell can dump this energy only resonantly swinging some kind of extreme molecule or flagellum.
   Such fluctuations are not an invention. firstly, they are necessarily encountered in macroscopic processes in nature at every step. This is quite normal and often occurring phenomenon. Similar fluctuations appear always in any flow, no matter what flows. The flow of water or air is capable of creating oscillatory processes. Let us recall the examples of oscillations mentioned in the preceding chapter.
   In the case under investigation, the energy of the electron shells flows. Energy flows from the molecular mill. Energy quanta flow from a large, energy-saturated molecule into the surrounding water. And the molecular flagella or fragments of the molecule that oscillate in this flow, along which these quanta flow, also oscillate.
   But the main reason for the fluctuations is not in the actual flow, but in the existence of a specific mechanism for their occurrence. It can be considered more closely and visually. Many variants are possible in describing the appearance of flagellar oscillations.
   1. Here comes a fine quantum of excitation from the center of the molecule to the flagella. What is an excitation quantum? - This, in its properties and figuratively speaking, some bulge, swelling in this place on the general huge and far from spherical or axisymmetric electron cloud of the parent molecule - the quantum mill. This protuberance can deflect the flagellum in one direction or another. Then the quantum slips from it and the flagellum returns to the equilibrium state. The next quantum comes up and again rejects the flagellum and so on.
   2. Quanta are suitable on one side of the flagellum, then on the other, the mother is a large mill. In this case, the flagella deviates one way and the other.
   3. It is important that after slipping each quantik from the end of the flagellum, it is energetically favorable for this flagellum to deviate back from the molecule that received the quantum.
   4. It is also sometimes energetically favorable for him to bow to that part of his molecule, from which the next quartet approaches the flagellum.
   5. It is possible that the quantum emanating from the mill passes into the flagellum not through its base, but immediately into its tip, which at this moment approaches the mother molecule. After receiving the quantum, the flagellum abruptly repels from the molecule, turns to it perpendicularly and then discards the quantum from the surrounding substance.
   6. Perhaps spring-like, multi-hinged, rotational as well as any conceivable combined behavior of the flagellum during the emission of a quantum.
   Not one, so another. Not another, so the third. Everything depends on the structure and composition of the flagellum, from the maternal molecule itself, from the place where the flagella is attached. The main thing is that such deviations there - here - back are absolutely objective and absolutely inevitable. The energy quanta can not smoothly slide off.
   Perhaps the appearance of the flagellum itself raises doubts? Where did it come from? It is unlikely? - Yes, it inevitably appears in any place where there is a flux of quanta. This flux of quanta, flowing from the molecule to the environment, this swelling on the electron cloud will inevitably bring scattered atoms and small molecules to the place where the quanta flow. Also, molecules from the surrounding water will adhere to this site. And these atoms and small molecules will hang, get hooked on each other and become flagella. Just like in a river, long garlands of flowing debris are formed. It would be for that to catch on. Similar garlands are pulled from the bath and the shell with a blockage. On the other hand, it can be shown that if there is a flagellum in a molecule, then it is on it that the forces that expel the excess energy from the molecule are concentrated. Recall once more the welding electrode and the spark that appears on its end. Therefore, the flux of radiated energy will inevitably go through this flagellum.
   And as soon as the flagellum was shaken, the molecule began to move. And if it began to move, it means that it began to interact more actively with the environment.

Discussion of electronic life. There are fewer variations. There is a kind of reactive movement of the molecule-mill due to tremors in the tail of the molecule. The result is analogous to the flagellar molecules: self-moving molecules appear and everything further applies to e-Life.
Generalization. In order to preserve the uniformity of the further presentation, further, both flagella and electronic propulsors will be called: engines. Their action leads to the same result: self-moving molecules appear.

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