The question of how long information is stored by the water molecules is controversial in modern science. On the other hand, water has a number of unique properties that allow it to store and disseminate information as a result of the external physical or chemical factor of influence. In a physical sense the correct term is “informationability” of water.
chaotic
water (Ignatov, Mosin, 2010). Living organisms and water (Antonov, Galabova, 1992) are complex self-organizing systems. Schrödinger clearly defines that living organisms reduce their own entropy at the expense of increasing the entropy of the environment.
remembers
physical or chemical influences. The question about water memory
is of exceptional interest. The first research studies, related to the memory of water, were effected by Deryagin and Churaev (1971). The durability of the results in time after an activation
with an alternating magnetic field and upon electrolysis through a nuclear filter were performed by Minenko (1981) and Evseev (1982). Analyses have been carried out on the changes in the spectrum of natural waters (Antonov and co-authors, 1995).
Mankind has always been excited about longevity. Biophysical studies indicate that the water in the human body has departed
from the water at the time of origination of life (Prof. Semihina, Dr. Mosin, Dr. Ignatov). The more rapid the life processes are, the faster the states of orderliness are observed, i.e. entropy in the living organism decreases. Yet this leads to difficulties in compensating entropy with the entropy of the environment, which is associated with metabolism and energy. Such organisms, like mammals, can live up to 100 years. In trees the processes are slower, the states of orderliness are harder to obtain, and entropy decreases more slowly than in animals. There are trees that live for more than 1000 years. For example, a turtle’s life processes are slower than those of mammals and faster than those of trees. It can live up to 300 years. We can define a specific time for each living creature, and their time to a certain degree differs from the time of the environment. This time correlates with parameters of the vital activity of living organisms (Dr. Ignatov, 2011).
Dr. Ignat Ignatov
In 2012 Dr. Ignat Ignatov token part in International Conference on the Physics, Chemistry and Biology of water, USA. Dr. Ignatov’s topicsare Origin of life and living matter in hot mineral water/Water inthe Human Body is Informational Bearer about Longevity
. The co-autorof Dr. Ignatov is Dr. Mosin. The President is Prof. Gerald Pollack andtake part the Nobel holder Prof. Luc Montagnier, Prof. EmilioDelGiudice, Prof. Giuseppe Vitiello, Prof. Vladimir Voeykov, Dr.Beverly Rubik, Prof. Roumiana Tsenkova etc.
Mankind has always been excited about longevity. Biophysical studies indicate that the water in the human body has departed
from the water at the time of origination of life (Semihina, Mosin, Ignatov). The more rapid the life processes are, the faster the states of orderliness are observed, i.e. entropy in the living organism decreases. Yet this leads to difficulties in compensating entropy with the entropy of the environment, which is associated with metabolism and energy. Such organisms, like mammals, can live up to 100 years. In trees the processes are slower, the states of orderliness are harder to obtain, and entropy decreases more slowly than in animals.
has departed
from the water at the time of origination of life (Semihina, Mosin, Ignatov). The more rapid the life processes are, the faster the states of orderliness are observed, i.e. entropy in the living organism decreases.
Yet this leads to difficulties in compensating entropy with the entropy of the environment, which is associated with metabolism and energy. Such organisms, like mammals, can live up to 100 years. In trees the processes are slower, the states of orderliness are harder to obtain, and entropy decreases more slowly than in animals.
Deuterium (2H), the hydrogen isotope with nuclear mass 2, was discovered by Urey. In the years immediately following this discovery, there developed a keen interest in development of methods for uniform biological enrichment of a cell with 2H, that may be best achived via growing of an organism on medium with high content of heavy water(99% of deuterum), which since yet resulted in a miscellany of rather confusing data (see as an example Katz J., Crespy H. L. 1972).
The main resolute conclusion that can be derived from the most competent and comprehensive of the early studies is that high concentrationsof heavy water are incompatible with life and reproduction and furthemore could even causing even lethal effects on a cell. However, today a many cells could be adapted to heavy water either via employing a special methods of adaptation which of them we shall describe above, or using selected (or/and resistent to heavy water) strains of bacterial and other origin.
It is believed that the big bang explosion 13,7 billion years ago produced the universe that was much denser and hotter, and made almost entirely of one element - hydrogen. Deuterium (D) was formed during the next moments of evolution of the universe as a result of collision of one neutron and proton at temperatures of about one billion degrees. Furthemore, the two formed deuterons stuck together into helium nuclei contained two protons and two neutrons.
2011, Dr. Ignat Ignatov, Sofia, Bulgaria
The Russian scientist Semihina studied the tangent of dielectrical losses physical indicator for water in different animals (Semihina, 2005). Names of animals in the figure from top to bottom – earth-worms (1), carassius fish (2), mouse (3), frog (4), hamster (5).
of different animals, Semihina
The largest the extremities in this parameter, especially at 200 KHz or in the kilometer range of the e. m. waves, the highest level of evolutionary development of the animal. This is also an indicator for the “distancing” of the water in the different animals from the initial water for the origination of life. This is also an essential evidence that water is diverse in the various living creatures. When testing water in animals, there are differences in comparison with water in plants and natural waters. In animals bioelectric processes are more dynamic compared to plants. Mineral water, which interacts with calcium carbonate and sea water, is tested as a model system. Therefore it is difficult to make conclusions about the structure of water from bioelectrical indicators in animals without a parallel spectral analysis.
several ways in which their atoms can stack and lock in an orderly, rigid way.
Suppose that the sort of ice we skate upon and put into highballs—what we call
ice-l—is only one of several types of ice. Suppose water always froze as ice-l
on Earth because it never had a seed to teach it how to form ice-two, ice-three,
ice-four…? And suppose that there were one form, which we will call ice-nine,
a crystal as hard as this desk with a melting point of 130°F. And suppose that
one Marine had with him a tiny capsule containing a seed of ice-nine, a new
way for the atoms of water to stack and lock, to freeze. If that Marine threw that
seed into the nearest puddle…?”