38
L. S. Martseniuk and A. S. Martseniuk
many researchers lead to the studying of physics alive (including F. Popp, L. Montagnier, M. Bischof) [13–15], consider that intercellular and intracellular interactions at
an ultralow energy level determine the functioning of all alive.
2 An Alive Organism—Quantum Coherent System
In work [5], the new theory of water was for the first time presented by a prominent physicist-theorist J. Preparata, which gave exhaustive interpretation of the
phenomena of water environment, including the phenomena in near-surface water,
not interpretive from the position of traditional classic concepts.
According to this theory, water is the two-componential system including coherent
component—coherent domains (CDs)—which have a uniform coherent field and not
coherent component. Sizes of CD for distilled water are about 0, 1mkm. Not coherent
component will consist of not coherent water molecules surrounding CDs.
The volume of coherent water makes room temperature of about 40% from total
amount. Usual pure water under normal conditions stays in “flickering” regime, as the
molecules of water, because of thermal fluctuations, continuously pass from regime
of coherency to not coherent regime (and vice versa).
The situation essentially changes for near-surface water (EZ water) and for the
water coupled by the nanostructural elements of an alive organism (interfacial water),
where the sizes of CD are defined by sizes of the nanostructures or the cellular
elements of alive organisms. Time of a life of such domains reaches weeks and
months, because these formations are protected from the destroying influence of
thermal fluctuations by surfaces of the molecular nanostructures.
CD can easily reserve energy (be excited) due to interaction with an environment.
In [16], the process of origin of the excited states is described as follows. In CD,
every molecule of water oscillates between the basic and excited states; thus, the
excited level corresponds to energy of 12.06 eV, while energy of ionization of water
molecule makes up 12.60 eV. The oscillations with energy of 12.06 eV correspond to
the size of CD ~ 0.1 mkm. Coherent oscillations lead to the occurrence of electrons
which are easily excited. Every excitation corresponds to the cold vortex of electrons. Actually, every quasi-free electron belongs to the coherent state; therefore, the
external indignation, less than the energy of gap of E g (which separate the coherent
state from incoherent), cannot be passed to any other individual molecule, and is
saved in CD, giving the beginning to the collective excited state, which still coherently. The excited states in water cannot disintegrate in the thermal way, as motion
of cold vortex of quasi-free electrons occurs without a friction just as it takes place
in superconductors.
There is an enormous amount of the excited states (characterized by the angular
moment of L) with energy of a few tens of KHz.
Individual excitations of quasi-free electrons are summarized; therefore, CD can
reserve plenty of energy and time of the existence of the excited states is determined
by time of the existence of CD. The spectrum of the excited states on every molecule
L. S. Martseniuk and A. S. Martseniuk
many researchers lead to the studying of physics alive (including F. Popp, L. Montagnier, M. Bischof) [13–15], consider that intercellular and intracellular interactions at
an ultralow energy level determine the functioning of all alive.
2 An Alive Organism—Quantum Coherent System
In work [5], the new theory of water was for the first time presented by a prominent physicist-theorist J. Preparata, which gave exhaustive interpretation of the
phenomena of water environment, including the phenomena in near-surface water,
not interpretive from the position of traditional classic concepts.
According to this theory, water is the two-componential system including coherent
component—coherent domains (CDs)—which have a uniform coherent field and not
coherent component. Sizes of CD for distilled water are about 0, 1mkm. Not coherent
component will consist of not coherent water molecules surrounding CDs.
The volume of coherent water makes room temperature of about 40% from total
amount. Usual pure water under normal conditions stays in “flickering” regime, as the
molecules of water, because of thermal fluctuations, continuously pass from regime
of coherency to not coherent regime (and vice versa).
The situation essentially changes for near-surface water (EZ water) and for the
water coupled by the nanostructural elements of an alive organism (interfacial water),
where the sizes of CD are defined by sizes of the nanostructures or the cellular
elements of alive organisms. Time of a life of such domains reaches weeks and
months, because these formations are protected from the destroying influence of
thermal fluctuations by surfaces of the molecular nanostructures.
CD can easily reserve energy (be excited) due to interaction with an environment.
In [16], the process of origin of the excited states is described as follows. In CD,
every molecule of water oscillates between the basic and excited states; thus, the
excited level corresponds to energy of 12.06 eV, while energy of ionization of water
molecule makes up 12.60 eV. The oscillations with energy of 12.06 eV correspond to
the size of CD ~ 0.1 mkm. Coherent oscillations lead to the occurrence of electrons
which are easily excited. Every excitation corresponds to the cold vortex of electrons. Actually, every quasi-free electron belongs to the coherent state; therefore, the
external indignation, less than the energy of gap of E g (which separate the coherent
state from incoherent), cannot be passed to any other individual molecule, and is
saved in CD, giving the beginning to the collective excited state, which still coherently. The excited states in water cannot disintegrate in the thermal way, as motion
of cold vortex of quasi-free electrons occurs without a friction just as it takes place
in superconductors.
There is an enormous amount of the excited states (characterized by the angular
moment of L) with energy of a few tens of KHz.
Individual excitations of quasi-free electrons are summarized; therefore, CD can
reserve plenty of energy and time of the existence of the excited states is determined
by time of the existence of CD. The spectrum of the excited states on every molecule