Yuri PIVOVARENKO
Electrical Potential Effects on Water
http://www.wjap.org/article/200/10.11648.j.wjap.20180301.12
http://www.sciencepublishinggroup.com/journal/paperinfo?journalid=200&doi=10.11648/j.wjap.20180301.12
http://article.sciencepublishinggroup.com/pdf/10.11648.j.wjap.20180301.12.pdf
World Journal of Applied Physics. Vol. 3, No. 1,
2018, pp. 13-18. March 24, 2018
doi: 10.11648/j.wjap.20180301
Water:
Demonstration of Water Properties, Depending on its
Electrical Potential
Yuri
Pivovarenko
[ PDF ]
Research and Training Centre ‘Physical and Chemical Materials
Science’ Under Kyiv Taras Shevchenko University and NAS of
Ukraine,
Kiev, Ukraine
Abstract: The
aim of this work is to demonstrate that the physicochemical
properties of water depend on its electric charge (potential).
It is also shown that the physico-chemical properties of aqueous
solutions depend very much on the electric charge (potential) of
the water on which these solutions are prepared.
1.
Introduction
Michaels and Hill found that the direction of reversible
oxidation-reduction modifications of phenazines is determined by
the electrical potential of the aqueous medium: in a medium with
a positive electrical potential, the phenazines become oxidized,
and in a medium with a negative electrical potential, into a
reduced state [1, 2]. Consequently, when studying the
interactions between phenazines and DNA, we had to use both
water with different electrical potential and aqueous solutions
prepared on water with different electrical potential [3]. As a
result of this approach, it was found that many properties of
water depend significantly on its electrical potential; It was
also found that the properties of aqueous solutions depend on
the electrical potential of the water used for their
preparation. Here are examples of this relationship.
2. Material
and Methods
First, it is necessary to define the terminology used. The term
"uncharged water" is used to determine the water that was used
as a control: it is assumed that the electric potential of this
water is 0 mV.
Uncharged water was obtained during storage of distilled water
in closed aluminum containers: It is considered that in such
circumstances, the electric charges of water are concentrated on
the outer surface of the container [4].
Water with a positive electrical potential was obtained in two
ways:
(a) By passing through uncharged water of gaseous oxygen.
(b) By filtration of uncharged water through the silica gel.
It is known that when in contact with water, oxygen gas exhibits
the properties of a sorbent of aqueous electrons, and the silica
gel exhibits the properties of a sorbent of aqueous hydroxyl
ions [5].
Water with a negative electric potential was also obtained in
two ways:
(a) By passing through uncharged water of gaseous hydrogen.
(b) By filtration of uncharged water through the activated
carbon.
It is known that when in contact with water, hydrogen gas is the
electron donor, and activated carbon exhibits the properties of
a sorbent of aqueous hydrogen ions [5].
Water with the required electrical potential was obtained in two
ways:
(a) By varying the depth of the layer of sorbent through which
filtered water is discharged.
(b) Varying the time during which the gas passed through the
uncharged water.
The electric potential of the charged water was measured with
respect to uncharged water, the potential of which was
conditionally assumed equal to 0 mV. In fact, the electric
potential of charged water was measured as the flow potential or
as the filtration potential [6]...
Figure 2.
Left: When water with a negative charge flows through a narrow
crack, it twisted clockwise. Right: When water with a positive
charge flows through a narrow crack, it twisted
counterclockwise [8]
Further studies have shown that the electric potential of water
can determine not only its spectral properties. Thus, it was
established that the electrical potential of water flowing from
a narrow gap determines the direction of its rotation: the flow
of negatively charged water rotates clockwise (Figure 2, left),
and the flow of positively charged water is twisted
counterclockwise (Figure 2, right) [8].
It should be noted that this difference is observed in the
Northern Hemisphere, where the vertical component of the
geomagnetic field is directed downwards. It should be also
recalled that a similar difference in the direction of rotation
of charged particles moving along the magnetic field used in the
mass spectrograph to determine the sign of the electric charge
of the particles [4, 9].
3.4.
Rotation of Aqueous Solutions Flowing Through a Narrow Gap
It should also be noted that when flowing out of a narrow gap,
aqueous solutions of surface-inactive substances rotate
clockwise (this is
like water with a negative potential), and aqueous solutions of
surfactants rotate counter-clockwise (this is like water with a
positive potential). Such a difference in the rotation of
aqueous solutions can be explained by the fact that during
storage, surface-inactive substances sorb negative charges...
&c...
3.5. UV
Absorption of DNA Solutions Prepared on Water with Different
Electrical Potential
In the course of further spectral studies it was found that the
UV absorption of aqueous DNA is significantly dependent on the
electric charge (potential) of the water used (Figure 3)
[7].
The last result obviously allowed to assume that the electric
charge (potential) of water affects not only the UV absorption
of water DNA, but also its state. ..
3.6. Saline
Solutions Prepared on Water with Different Electric Charge
(Potential)
In a number of studies, it was found that the shape of the
crystals that are formed when the salt solutions dry out is
uniquely dependent on the electric charge (potential) of the
water on which such solutionwere prepared.
It has been particularly found that the evaporation of solutions
with positive electric potential is accompanied by the formation
of cubic crystals (Figure 4, left) and the evaporation of
solutions with negative electric potential is accompanied by the
formation of needle-like crystals (Figure 4, right) [10, 11].
Figure 4.
KH 2 PO 4 crystals. Left: the rhombic crystals formed upon
drying of an aqueous solution of KH 2 PO 4 prepared on the
water with positive electric potential. Right: the
needle-shaped crystals formed upon drying of an aqueous
solution of KH 2 PO 4 prepared on the water with negative
electric potential [10, 11].
Figure 5. This is the powder of metallic copper at the
boundary of aqueous solutions with positive (above) and
negative (below) potentials.
It should be also noted that these dependences are
observed not only for the salt crystals, but for some of the
metals (Figure 5).
Based on the latest results, it can be assumed that the electric
potential of water determines its internal structure, which can
be manifested through the form of substances, both dissolved in
water (Figure 4) and contacting it (Figure 5). It seems quite
likely that different internal water structures are reflected in
the type of spectra obtained, in particular – on the spectra of
aqueous DNA (Figures 1, 3).
3.7. The
Surface Tension of the Electrified Water
These results stimulated further studies aimed at elucidation of
the properties of water and aqueous solutions, which depend on
the electric potential. During these studies it was particularly
found that the surface tension of the water clearly depends on
its electrical potential: an increase in the positive electric
potential of water is accompanied by an increase in its surface
tension and increase the negative electrical potential of the
water is accompanied by a decrease of its surface tension [11].
The existence of such dependencies can be demonstrated through
some simple experiments. So, if to pour 5 ml of water (exactly!)
with a negative potential in a standard Petri dish and mix, you
can see that the water completely covers the bottom of a Petri
dish (Figure 6, left). On the other hand, if to pour 5 ml of
water (exactly!) with a positive potential in a standard Petri
dish and mix, you can see that such water will not cover all the
bottom of a Petri dish (Figure 6, right).
Such a distinction clearly demonstrates that the forces acting
on the surface of the water depends on its electric potential.
It can be explained by the fact that water with a positive
potential has a greater surface tension than water with negative
potential.
Click to enlarge

https://www.semanticscholar.org/paper/The-Electric-Potential-of-the-Tissue-Fluids-of-as-a-Pivovarenko/556fdb69b9da20b5fccc3f61eb548f9cab8cc601
https://pdfs.semanticscholar.org/556f/db69b9da20b5fccc3f61eb548f9cab8cc601.pdf?_ga=2.158321977.2026099428.1535922161-1602145032.1535922161
The
Electric Potential of the Tissue Fluids of Living Organisms
as a Possible Epigenetic Factor
Yuri
Pivovarenko
[ PDF ]
It is shown that the state and properties of aqueous DNA depend
on the electric potential of the surrounding water. It is
particularly shown that water with a positive potential much
more actively hydrates DNA than water with negative potential.
Since the electric potential of tissue fluids determines the
degree of hydration of DNA, i.e. its state, it can be considered
as an epigenetic factor.
http://www.lupinepublishers.com/rrhoaj/pdf/RRHOAJ.MS.ID.000108.pdf
Res & Rev Health Care Open Acc J 1(2)- 2018.
RRHOAJ.MS.ID.000108.
The
Electric Potential of the Female Body Liquids and the
Effectiveness of Cloning.
Yuri
Pivovarenko
[ PDF ]
Introduction
It is known that the
evaporation of the female body
liquids is accompanied by the
formation of crystals of different
shapes. It is also known that the shape of
these crystals depends on the stage of the menstrual
cycle: cubic or rhombic crystals
are formed before and after the stage of ovulation;
arbor-shape crystals are formed in the ovulation step (Figure 1)
[1].
Abstract
It was previously shown that the electric potential of
biological liquids of the female body correlated with the stages
of the menstrual cycle: these liquids have a negative potential
at the stage of ovulation, but the positive potential on the
phases before and after ovulation. It was also shown that the
electric potential of the water determines its surface tension,
as well as its ability to hydrate the polysaccharides. On the
basis of obtained results it is concluded that the electrical
potential of the body liquids of women, and is the surface
tension and the ability to hydrate the polysaccharides of these
liquids, can be cyclically varied during the menstrual cycle. It
is demonstrated that the use of these ratios allows influencing
the processes of reproduction and increasing the efficiency of
cloning.
http://citeseerx.ist.psu.edu/viewdoc/download?doi=10.1.1.865.960&rep=rep1&type=pdf
UV
Absorbance of Aqueous DNA
Pivovarenko
Yuri Vadimovich
[ PDF ]
Abstract:
The UV absorption spectra of water with different electric
charge (potential) were obtained. It was shown that UV
absorption spectra of water with
negative electric charge (potential)
have the sharp peaks with
maximum in the range 190 –
200 nm and UV absorption
spectra of water with positive
electric charge (potential) have
the wide peaks with maximum in
the range 200 – 220 nm.
It was asked to explain this
absorption. It was also
established that UV absorption spectra of
water solutions of surface inactive substances have sharp peaks
with a maximum in the range 190 – 200 nm and UV
absorption spectra of solutions of
surface active substances have the
wide peaks with a maximum in
the range 200 – 220 nm. The
UV absorption spectra of DNA
solutions, which were prepared on
the water with different electric
charge (potential), were obtained. It was shown that these
spectra are dependent on the electric charge (potential) of
water used. It was proposed that UV absorption spectra of
aqueous DNA reflect mostly the spectral properties of charged
water or charged cuvette...
http://www.sciencepublishinggroup.com/journal/paperinfo?journalid=382&doi=10.11648/j.fm.20170304.11
Fluid Mechanics, Volume 3, Issue 4, July 2017, Pages: 29-32
Potential-Dependent
Changes of the Surface Tension of Water
Yuri
Pivovarenko
Abstract
It was shown previously that the shape of the crystals
formed during the evaporation of salt solutions depends on the
sign of the electric potential of such solutions. It has been
particularly found that the evaporation of salt solutions with
positive electric potential is accompanied by the formation of
cubic crystals and the evaporation of salt solutions with
negative electric potential is accompanied by the formation of
needle-like crystals. The obtained results stimulated further
studies of the properties of water and aqueous solutions, which
depend on the electric potential. During these studies it was
found that the surface tension of the water clearly depends on
its electrical potential: an increase in the positive electric
potential of water is accompanied by an increase in its surface
tension and increase the negative electrical potential of the
water is accompanied by a decrease of its surface tension. It
was also discovered that the electrical potential of the water
determines its ability to hydrate the polymers of biological
origin. It is shown that water with a positive potential is
better hydrates biological polymers than water with negative
potential.
http://www.aerospacejournal.org/article/309/10.11648.j.ajae.20170406.11
DOI: 10.11648/j.ajae.20170406.11
Published: Feb. 7, 2018
http://article.aerospacejournal.org/pdf/10.11648.j.ajae.20170406.11.pdf
The
Significance of Positive Electrization on Lifting Force
Yuri
Pivovarenko
[ PDF ]
Abstract
Due to the daily rotation of the Earth the lower layers of
earth's atmosphere are continuously crossed by horizontal lines
of the geomagnetic field. For this reason, near the earth's
surface there is an upward-directed Lorentz force. Under the
action of this force the positively charged objects move upward
and the negative charges down. As a result, this force can
increase the lift of flying objects that have a positive charge:
water vapor, birds, insects, airplanes and space rockets. In
addition, the action of the upward directed Lorentz force blocks
the deflection of the racket's body in the horizontal direction,
that is, ensures its equilibrium.