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release 25.1 - 2025-07-08

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General prologue.

After this page of introduction, in the first part of the site, a sowing procedure is communicated, useful for making efficient in the seeds some processes, which I call cumulative-dissipative processes, with a consequent increase in harvests from 30 to 50 percent.

This procedure contributes to giving an answer to a fundamental question of physics, already posed by Erwin Schrœdinger, Leon Brillouin and others.

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Evolution and second law of thermodynamics.

The question, always current, is in what ways is the phenomenon of evolution made possible, here on Earth,

(1) understood as an increase in complexity, development and improvement of various forms of life,

despite

(2) the second law of thermodynamics, which, considered in isolation, would lead to a decrease in complexity and development, and therefore to a process of involution, up to the so-called “death of heat”.

By the Second Law.

By the Second Law of Thermodynamics, and thanks to experiments that validate it, as a rule, any use or transfer of energy occurs with an efficiency of less than 100 percent.

By this reason, it is said that every decrease in entropy (improvement) is possible in a system only to the detriment of another system, where entropy instead increases (worsening)

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The action of the second law is compensated.

If this balance were not compensated, we would be in a process of involution.

In the course of this study, we will see how the action of the second law of thermodynamics, towards a phase of involution, is compensated by processes, which I call "cumulative-dissipative processes".

In this way, the incompatibility between the second law of thermodynamics and the fact of evolution would be resolved.

Examples of how this can happen are given by two experiments performed on seeds.

How to explain the fact of evolution.

The phenomenon called evolution, in counter-tendency to what would happen due to the effect of the second law, is permitted:
1 - first, thanks to the energy that comes to us from the Sun, in its process of consumption;
2 - when the cumulative-dissipative processes can take place, the object of this research.

The evolution that occurs on Earth will continue, at least until the Sun can provide enough energy useful to compensate for what happens due to the second law.

As a method, I do not exclude that there may also be other compensatory processes to the second law of thermodynamics, not yet considered.

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Two consequent forces.

Before considering cumulative-dissipative processes, I will mention the two consequent forces (forces that arise as a consequence of something else), which generate them.

These two consequent forces are:
gravity (due to the interaction between matter and other matter; interaction that determines movement);
and the “force d”, provisionally defined by me as “force due to angular movement with respect to other matter”. This force appears to operate on the configurations of the seeds at given critical angular velocities.

Gravity determines movement, the “force d” exploits it, in particular giving rise to cumulative-dissipative processes.

As we will see on page 1.3.4, the two forces have very distinct characteristics.

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Cumulative-dissipative processes.

The way (or one of the ways) in which the second law of thermodynamics is compensated is that of the cumulative-dissipative processes that occur in seeds, the subject of the first part of this study.

Understanding the timing and methods of these processes allows for an increase in their efficiency, and therefore in yields, by an average of 30 to 50 percent, as mentioned at the beginning of this introductory page. This is compared to planting without considering the results of this research.

Energy first borrowed, then returned.

In the cumulative phase, energy, in the form of heat, is borrowed; the molecules tend to assume higher energy configurations, and less uniform among themselves.

In the dissipative phase, the energy, first borrowed in the cumulative phase, is returned; the molecules then tend to fall on low-energy configurations, and more uniform among themselves, in a sort of reset, of self-reorganization.

At the end of this double process, the negentropic balance is positive. Entropy has decreased.

The cumulative phase turns out to be functional to the dissipative one, as we will see in experiment E (on seeds).

The missing piece.

What has been said now, and explained later, can be considered as the missing piece in the reasoning practiced up to now, where the second law of thermodynamics and evolution, although declared as incompatible with each other, each is then treated as true in practice.

Now the second law of thermodynamics and evolution can finally be considered compatible, even in theory.

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Neither on the Moon nor on Mars.

All the conditions necessary for cumulative-dissipative processes to take place are present on Earth. An adequate magnetic field is also among the necessary conditions.

Not so on the Moon, nor on Mars, where, I presume, the effects of the second law of thermodynamics are not balanced by cumulative-dissipative processes, as happens here on Earth.

The results of "experiments A" and "experiments E", to be performed on the Moon and on Mars, could confirm or not these suppositions of mine.

As for Mars.

In fact, the discovery of cumulative-dissipative processes, so important for Agriculture, adds another negative element regarding the feasibility of living on Mars.

Mars has two satellites, but with small masses, not enough for the movement, with respect to them, to generate enough cumulative-dissipative processes on the planet.

Even the reduced magnetic field would not satisfy what is necessary for these processes.

In addition to all this, for the sole fact that the positions of the two poles on Mars, with respect to the equator, are unstable and very variable, it completely removes any possibility of being able to live and prosper there, without bringing from Earth what is needed.