40
L. S. Martseniuk and A. S. Martseniuk
For visualization of a near-surface layer of water, G. Pollack has suggested to
place in water the dyeing substances—suspensions with a diameter from 0.5 up to
2 μm. It was revealed that such substances do not remain inside a near-surface layer
and a near-surface water is found out visually as undyed.
Taking into account that a near-surface water pushes out from its own structure
a micro-impurity of the most various nature, G. Pollack has designated this zone—
exclusion zone water (EZ water) [18].
Water, in this thick enough layer, differs from usual volumetric water practically,
for all known parameters.
We list the most essential differences.
1. EZ-voda is charged negatively (potential is achieved at 150 mV) in relation to
contacting with it a volume water. Along conductor, which connects an electrode,
placed in EZ water, with an electrode, placed in volumetric water, passes a weak
but continuous electric current.
2. At illumination of EZ water by infrared radiation with λ = 3.100 nm, a magnitude
of a current increases. At the same time, the thickness of a layer of EZ water
grows also (the four multiples increasing in its thickness are observed).
3. Water protons concentrate on the border between EZ water and volumetric water.
Thus, the water system in which the EZ water and volumetric water coexist
represents a system with division of charges, something like the condenser in
which a negative plate is displayed by EZ water and positive by volumetric water
with a lot of protons—a radiant energy essentially increases the capacity of this
“condenser.”
4. EZ water absorbs ultraviolet radiation with a maximum at λ = 270 nm. At
illumination of EZ water ultraviolet radiation with λ = 270 nm, it fluoresces.
5. Viscosity of EZ water is essentially higher than usual volumetric water.
G. Pollack has selected three more properties of EZ water: its molecules—more
coupled, more stable, and displaced as oriented. And it, in the opinion of G. Pollack,
means that we have a liquid crystal, i.e., a situation when molecules are very well
oriented in relation to each other.
Items 1–5 testify that electrons in EZ water are at much higher level of excitation
than in usual water, i.e., it can be the donor of electrons.
G. Pollack did not see a possibility to explain all unusual properties observable
by him in EZ water by means of traditional conceptions and specified on existence
of a very distant ordering in water that is unexpected. If it is valid, then the most
part of water in the universe is not the usual volumetric water which is described in
textbooks, but is a liquid crystal.
G. Pollack also marked the following: «I suppose that the real attraction exists
inside water. And, possibly, it other understanding will become basis for the new
united understanding of nature» .
Understanding the properties of near-surface water is important in such relation
that greater part of water of living organism (interfacial water) also have the characteristics of near-surface water. As indicated in [19], «the properties of such coherent
interfacial wa-ter are those of EZ-water».
L. S. Martseniuk and A. S. Martseniuk
For visualization of a near-surface layer of water, G. Pollack has suggested to
place in water the dyeing substances—suspensions with a diameter from 0.5 up to
2 μm. It was revealed that such substances do not remain inside a near-surface layer
and a near-surface water is found out visually as undyed.
Taking into account that a near-surface water pushes out from its own structure
a micro-impurity of the most various nature, G. Pollack has designated this zone—
exclusion zone water (EZ water) [18].
Water, in this thick enough layer, differs from usual volumetric water practically,
for all known parameters.
We list the most essential differences.
1. EZ-voda is charged negatively (potential is achieved at 150 mV) in relation to
contacting with it a volume water. Along conductor, which connects an electrode,
placed in EZ water, with an electrode, placed in volumetric water, passes a weak
but continuous electric current.
2. At illumination of EZ water by infrared radiation with λ = 3.100 nm, a magnitude
of a current increases. At the same time, the thickness of a layer of EZ water
grows also (the four multiples increasing in its thickness are observed).
3. Water protons concentrate on the border between EZ water and volumetric water.
Thus, the water system in which the EZ water and volumetric water coexist
represents a system with division of charges, something like the condenser in
which a negative plate is displayed by EZ water and positive by volumetric water
with a lot of protons—a radiant energy essentially increases the capacity of this
“condenser.”
4. EZ water absorbs ultraviolet radiation with a maximum at λ = 270 nm. At
illumination of EZ water ultraviolet radiation with λ = 270 nm, it fluoresces.
5. Viscosity of EZ water is essentially higher than usual volumetric water.
G. Pollack has selected three more properties of EZ water: its molecules—more
coupled, more stable, and displaced as oriented. And it, in the opinion of G. Pollack,
means that we have a liquid crystal, i.e., a situation when molecules are very well
oriented in relation to each other.
Items 1–5 testify that electrons in EZ water are at much higher level of excitation
than in usual water, i.e., it can be the donor of electrons.
G. Pollack did not see a possibility to explain all unusual properties observable
by him in EZ water by means of traditional conceptions and specified on existence
of a very distant ordering in water that is unexpected. If it is valid, then the most
part of water in the universe is not the usual volumetric water which is described in
textbooks, but is a liquid crystal.
G. Pollack also marked the following: «I suppose that the real attraction exists
inside water. And, possibly, it other understanding will become basis for the new
united understanding of nature» .
Understanding the properties of near-surface water is important in such relation
that greater part of water of living organism (interfacial water) also have the characteristics of near-surface water. As indicated in [19], «the properties of such coherent
interfacial wa-ter are those of EZ-water».