Third Biological Law - Ontogenetic system

The Third Biological Law: The Ontogenetically Determined System

This law completely revolutionizes the diagnostic method by focusing on the embryonic origin of tissues and their function within the body. Indeed, by knowing the embryonic origin and the respective brain innervation, one can understand the behavior of the tissue in special physiology programs, the families of microbes involved (according to the fourth law), and also the specific symptomatology.

Thanks to these mathematical correlations, from a single symptom it is possible to trace with extreme precision the type of tissue involved, of which the precise function within the organism and the characteristic behavior based on brain conduction are known. In this way, symptomatic intervention can be, when and if necessary, very precise and accurate.

To address the issue of the differentiation of body tissues, it is necessary to study how this has occurred by retracing the evolutionary line in broad terms. The same path is found step by step in the embryonic development of the individual higher animal (ontogeny): in fact, the pregnancy of a human being is a sped-up summary of the evolution of the living being! (phylogeny).

In the first 6 weeks of gestation, the embryo assembles tissues, organs, and biological functions reproducing the passages between the evolutionary eras; passages that we can simplify as follows:

1) Endoderm

In the first evolutionary phase, a first unicellular organism was immersed in the original sea (0.9% saline concentration, the same as amniotic fluid and current body fluids). 300 million years ago it began to aggregate into a multicellular organism (like the morula in embryonic development) until it generated the first water worm: small "digestive tubes" that had the simple function of taking in energy by engulfing prey, then digesting them and finally expelling them. These tissues today originate from the endodermal embryonic layer.

Ancient Mesoderm

Subsequently, the first amphibians tried to advance on the emerged lands, developing a layer of tissue (dermis) necessary to protect themselves from friction, ultraviolet rays, and attacks on their integrity.
These tissues today originate from the ancient mesodermal embryonic layer.

Recent Mesoderm

With the permanence on land, the organism began to perfect itself with the aim of being more efficient in an environment subject to gravity. In order to move more agilely and be more competitive, it therefore developed the skeletal and muscular systems. 

These tissues today originate from the recent mesodermal embryonic layer.

Ectoderm

Lastly, the senses useful for orienting oneself better were refined, as well as the faculties developed for communication within the group, those for living in increasingly structured societies, and those for guaranteeing the continuity of the species. 

The tissues that have specialized in these functions are today of ectodermal embryonic origin.




Each of these 4 evolutionary phases has produced a type of tissue specialized in its function. Every organ in our body is composed of these 4 types of tissue. During the 4 evolutionary phases, the organism has learned strategies aimed at survival, which it has recorded in the form of special physiology programs, or biological coordination routines. Dr. Hamer called them "Special Biological and Sensible Programs of Nature" (SBS) in German New Medicine.

The 4 types of specialized tissue (endoderm, ancient mesoderm, recent mesoderm, ectoderm) are coordinated in their tasks by the biological programs of 4 brain areas.

BRAIN CONDUCTION

The first two areas we analyze make up the ancient brain (paleoencephalon): brainstem and cerebellum, developed in evolutionary eras 1 and 2. They conduct the biological programs (SBS) of the endodermal and ancient mesodermal tissues, which stimulate the functional increase of physiology. For example, there is an increase in the production of sweat from the sweat glands, useful for sliding away from the predator (defense function against attacks designed in era 2). If necessary, cellular proliferation is also triggered to support the process. As soon as the organism manages to get out of the dangerous situation, the special physiology stops with an immediate and drastic drop in function. So the excess cells (no longer useful) are dismantled (caseified) by means of fungi and mycobacteria.

The other 2 brain areas, which make up the recent brain (neencephalon), are the white matter and the cortex, developed in evolutionary eras 3 and 4. They conduct the biological programs of the recent mesodermal and ectodermal tissues, which trigger a functional reduction of physiology, contrary to the paleoencephalon. For example, the biological program of bones reduces their calcification, with consequent cell necrosis. And this is an absolutely sensible process. At the end of the necrotic process, there is a rapid regrowth of cells with "abundance" (in the case of the example, callus is formed), a final result that aims to strengthen the structure to prepare for more arduous challenges in the future. Bacteria and viruses participate in the reconstruction of tissues conducted by the neencephalon.

In essence, the third law describes both the biological function of specific tissues in the body and their behavior during a special program (reduction or enhancement of function).

To understand what the Active Phase and Repair written in the table are, go to the Second Biological Law.

You can delve deeper into the third law with this video on 5LB DEX [currently only in italian], after which you will have access to lessons of increasing levels that we have created so that you can quickly apply the subject in everyday life.