Description
--
The present invention refers to an equipment making it possible
to amplify the emissions due to the forms, in particular with
the single geometric forms presenting a minimum of symmetry.
It is known that certain geometric forms, for example pyramids,
are, when they present appropriate proportions, the seat of
emissions which one could not determine to present the exact
nature. One noted that such emissions had effects, in particular
on the living organisms.
Until present, it was not possible to obtain with the
aforementioned emissions due to the forms, of the measurable and
exploitable effects in industry.
The present invention has as an object an apparatus making it
possible to amplify, according to a said principle of
“localization”, the emissions due to forms to obtain
industrially exploitable effects.
According to the present invention, such an apparatus comprises
essentially a geometric form presenting a minimum of symmetry in
planar or space, this form being associated a device producing
an electric and/or magnetic and/or electromagnetic field in
determined volume by the aforementioned form or in the vicinity
immediate of this volume, such fields being able to be fixed or
movable compared to the aforementioned form, and being able to
be modulated or not.
According to an embodiment prefered of the invention, the
aforementioned form is a substantially regular polygonal frame
with 16 dimensions and is associated a device producing an
electric power in the volume delimited by the aforementioned
frame, this device comprising four electrodes with dimensions
regularly spaced on the aforesaid frame in their medium,
two of the aforesaid electrodes having a stable, filtered
continuous positive potential compared to the ground to which
other electrodes are connected, the formed angle by the points
of the
two positive electrodes
being, preferably, of approximately
28 degrees apart, while that formed by the
points of the two
negative
electrodes is, preferably, of approximately 23 degrees.
The aforementioned
positive
potential is preferably of at least 45 kilovolts and
preferably of at least 60 Kv, the aforementioned
electrodes having the general shape of points directed towards
the center of the aforesaid frame, the points of the four said
electrodes being, preferably, in a same plane, which is
preferably, the planar mediator of the aforesaid polygonal
frame, the square dummy one delimited by the of the aforesaid
points four electrodes being concentric by report/ratio to that
the frame and having
diagonal
approximately 400 millimeters at least for a potential of
approximately 45 Kv and approximately at least 1 metre for a
potential of approximately 300 Kv,
the diameter of the circle
circumscribed with the formed polygon by the aforementioned
frame being at least 200 centimetres for a potential of
approximately 45 Kv, and at least 280 cm for a potential of
approximately 300 Kv.
According to an advantageous characteristic of the invention,
the frame is made in a material, preferably out of a natural
material, of which the structure, with the level of fibres or
the crystalline level, is directed or has itself of remarkable
symmetries. Preferably, each side of the
polygonal frame is constructed of a
small, very dry solid wood plank, the length of the
small plank being taken preferably in the direction of fibres of
the wood, the different successive small planks being connected
between them by glue or using pegs, also made of wood, such pegs
not having, preferably, to exceed small pieces.
Natural materials not having
any coherent or directed structure, such as for example the
rubber, are to be avoided.
According to an embodiment prefered of the invention, some of
the small planks forming the with dimensions ones of the
polygonal frame are with character of a
right Moebius strip, and
other with character of a
left
Moebius strip.
According to another embodiment of the invention, equipment
comprises two or several regular polygonal concentric frames,
each one having different numbers of dimensions.
To reinforce the effect of amplification, one can preferably
have on the
stems supporting
the electrodes the parts, preferably out of same material that
that of the frame, having for example round ovoidal or
rhomboidal, and when several of these forms are laid
out on the same stem of an electrode, dimensions of these parts
are homothetic,
those having
lowest dimensions being close to the corresponding electrode,
the other parts being laid out after, and all the more far
away from the first their dimensions are larger.
To reinforce the effect of amplification, one can also lay out
on certain sides of the form or in proximity volumes preferably
manufactured of same material that the frame, these volumes
being in general single geometric volumes, for example of the
trunks of cylinders finishing with the one their ends by a
conical point, the
angle of
opening of these cones being preferably of approximately 140
degrees.
One can also lay out in the form itself or near inorganic
natural or synthetic, such as
carborundum.
One can also
add systems with
acoustic resonance in appropriate places, in proximity
to the frame.
The various additional forms can be made out of separate
materials, or a single material so their edges can be joined.
The form can also manufactured using a control of appropriate
form in which one makes fluid circulation fluid possible.
To further increase the effect of amplification of the device of
the invention, one can fix it on a single or equatorial mounting
and direct it in an appropriate way.
The present invention will be better understood using the
detailed description of several taken embodiments like the
nonrestrictive examples illustrated by the annexed drawings, in
which
-
Figure 1 is a planar
view of an embodiment prefered of an according device to the
present invention;
-
Figures 2 and 3 are
cross-sections of two embodiments of electrodes of the devices
of figures 1 and 2; and,
-
Figure 4 is a
schematic view of an alternative of the device of Figure 1.
The apparatus of amplification represented on Figure 1 includes
essentially a geometric form F and four electrodes with their
stem electrode holders affixed to create an electric field in
the volume delimited by the aforementioned form, and in the
vicinity.
In the case of the embodiment prefered of the invention
represented on Figure 1, the present form F like an hollow
cylinder lof shallow depth, the wall of this cylinder, or frame,
having out of radial cut substantially the shape of a
regular polygon with 16 sides
with dimensions respectively referred 1 to 16.
However, it is clearly understood that the polygonal hollow
cylindrical form is not the only one possible, other forms, for
example pyramidal forms also can be used in the frame of the
invention.
The sixteen sides of the frame materializing the form F can all
be substantially identical, and consist each one of a
rectangular parallelepiped. However, the applicant noted that if
some of the dimensions are different, and in particular
if certain sides have a character
of left strip of Moebius and other character of straight
Moebius strip, one obtains good amplification of the emissions
due to the form F.
In the embodiment prefered of the invention represented in
Figure I, with dimensions referred the 1, 3, 7, 8, 12,14 and
consisted rectangular parallelepipeds, sides 2, 4, 5, 9; 11,13
and 15 consist of volumes with the character of a right Moebius
strip and with dimensions the 6 and 10 are left Moebius strips.
However, it is clearly understood that other different
provisions on the formed sides by rectangular parallelepipeds,
by volumes with characters of strip of left and right Moebius
can be considered while getting an improvement of amplification
also of the aforesaid emissions. By volumes with character strip
of Moebius one hears volumes resulting of the
twist of 180 degrees of the
one of the ends of a rectangular cuboid strip compared to the
other end (the strip being supposed to lend itself to such a
torsion), this torsion being done around the longitudinal axis
of the aforesaid the cuboid strip. The strip of Moebius is said
right or left according to whether it can be comparable with a
right or left threading respectively.
In the case of the embodiment of figure 1, volumes with
the Moebius strips are thicker in
their middle ( i.e., they would be carried out starting
from a rectangular strip of which the thickness would be larger
with the middle than at the ends) in order to allow the drilling
of holes in their mediums for the insulators and fixing
mounting, as explained below). In practice, it is preferable not
to twist a wood small plank, but to cut the aforementioned
volumes as Moebius strips. Keys volumes are, preferably,
regular, i.e. symmetrical compared to their respective centers,
and
their total number must be
odd.
All with dimensions the 1 to 16 of the form F is made out of
very dry wood, for example of
poplar,
of oak, or an exotic wood.
The applicant noted that the natural materials with fibres
directed such as the wood gave the good results, and that
materials such as rubber or the
plywood, or synthetic products such as plastic did not produce
any substantial result.
When with dimensions the 1 to 16 is manufactured out of wood,
they are assembled mutually, preferably by assembly of the
mortise tenon out of wood which can reinforce the assembly, and
not exceeding the dimensions of the frame.
The applicant noted that industrially to obtain useful results,
the form F was to be such as the circle circumscribed with the
formed polygon by
the frame
was to have a diameter of at least approximately 250 cm,
the high applied tension, in a way explained below,
with the electrodes being at least
45 Kv, preferably from at least 60 kv, low tensions to 45 Kv
having not very industrially exploitable effects.
Sides 5 and 13 of the frame, with right Moebius strips are
drilled of a hole passing by their center and whose axis merges
with a radius of the circle circumscribed with the form F. The
drilled holes in with dimensions the 5 and 13 are used for
fixing of the form F on a mounting, not represented, for example
an equatorial or ordinary mounting, making it possible to direct
in space the form F. However, one could envisage other modes of
fixing of the form F on its mounting.
With dimensions the 3, 7, 11 and 15 are drilled holes, in the
same way that sides 5 and 13, in order to allow the fixing of
the electrodes, as described below.
Small wood planks
constituting the dimensions 1,3,7,8,12,14 16, preferably, have a
width equal to or greater than
20 cm and a thickness equal to or greater than 4 cm,
preferably between 6 and 10 cm. The sides with right
and left Moebius strips have, with their extremities 5
preferably, the same thickness as the planar sides, their
thickness gradually increasing ends towards the center, up to a
value of approximately
at
least 8 cm, this, in order to allow the drilling from
with dimensions the 5 and 13 for the fixing of the frame on
mounting and the sides 11 and 15 for the fixing of the
electrodes.
The applicant noted that one could also favorably influence the
effect of amplification by affixing with ankles, volumes
manufactured in the same material as frame. In the example of
realization represented on figure 1, one fixed on the faces,
turned towards the inner one of the form, the sides 1 and 9,
volumes 17 and 18 respectively manufactured out of wood.
These volumes 17 and 18 consist of
cylinders with cones on their ends, the point angle of
these cones being preferably approximately 140 degrees,
the diameter of the cylinders being low to the length of with
dimensions form, and the
height
of these cylinders being of about size of a few centimetres.
On sides 3, 7, 11 and 15 of the frame constituting the fixed
form F one the electrodes 19, 20, 21 and 22 respectively, these
electrodes being supported by stems electrode holders 23.
Electrodes 19 to 22 are made out of electric conductive good
material, for example
copper
and are consisted a circular cone 24 whose base is connected to
the stem electrode holders 23 by one surface of hemisphere 25.
The point angles of electrodes 20 and 21 are, preferably, of 23
degrees +/- 30
' so
that the point angles of the cones of the electrodes 19 and 22
are preferably
28 degrees +/-
30 '.
The length of
each electrode 19 to 22, taken in the direction of
their axis,
is approximately
60 to 90 mm. However, other shapes of electrodes can to
be considered.
The stems 23, which are,
also, made out of an electric conductive good material, for
example of
copper, and
at the ends of which electrodes 19 to 22 are screwed or welded,
cross with dimensions the 3, 7, 11 and 15 of the frame
constituting the form F through appropriate insulators 26, for
example out of glass or porcelain, these insulators drilled with
an axial hole having substantially the same diameter that that
of the stems electrode holders 23, the stems electrode holders
23 being attached of appropriate way in these insulators 26.
Insulators 26 have a maximum outer
diameter of approximately 5 cm corresponding to the
bore practised in sides 3, 7, 11 and 15, and are attached there
of appropriate way, for example by joining.
The axial length of insulators 26
is at least equal with the width on the sides which they cross
( i.e. the length of the holes bored in these sides), and,
preferably of at least twice this width.
Since with dimensions 3 and 11, and sides 7 and 15 are
diametrically opposite and that the hollow polygonal volume
consisted the frame is substantially regular, and that the holes
bored in these four with dimensions are directed towards the
center of this volume and are applied to the center on the
corresponding sides, the four stems electrode holders 23 are
directed following of the rays of the circle circumscribed with
the form F and when they are taken consecutively two to two, are
substantially perpendicular between them. Preferably, one
adjusts of appropriate way the directions of the stems electrode
holders 23 so that
the points
of four electrodes 19 to 22 are coplanar, the plane in
which are located these four points not passing the center of
the form out ;
distances
separating the points from electrodes 20 and 22 and electrodes
19 and 21 are preferably of at least 400 millimeters when
applied potential with electrodes 19 and 22 are approximately
45 Kv, and from
at
least approximately 1 metre when this potential is
approximately 300 Kv. [
Cubit ... ]
On each stem electrode holders 23, one lays out, between the
base of the corresponding electrode and insulator 26 two volumes
27, 28 substantially ovoidal, in the same material that the form
F, i.e. out of wood for the embodiment prefered, the tops with
lower angle of opening of the ovoid forms 27 and 28 being
directed towards the center of the form F. One lays out outside
the form F, around insulators 26, six identical discs 29, being
of course that insulators 26 exceed sufficiently of the form F
towards the outer one, if not the discs could be directly
attached on the stem of electrodes 23. Then, one lays out on the
stems 23 two other ovoidal volumes 30 and 31 respectively, whose
tops of lower angle of opening are also directed towards the
center of the form F.
The
discs 29 and volumes 30 and 31 are also realized in the same
material that volumes 27 and 28. However, all the materials
suitable with the manufacture of the form F can be used to
carry out volumes 27 and 28, 30 and 31 and discs 29.
Discs 29 have, preferably, an
outer diameter of approximately 32 cm and a thickness from
approximately 1 cm, and are drilled with an axial hole
corresponding to the maximum outer diameter of the insulator 26
on which they are threaded, and attached in an appropriate way.
As one sees better in figure 2, representing a volume V which is
any of ovoidal volumes 27, 28, 30 or 31, each one of these
volumes is drilled of an axial hole T, and axial conical facings
32, 33 are practised with each end of ovoidal volume V, the
points being directed one towards the other one.
The angle of the opening 1 of
the conical facing 32, practised in the top of wider opening
of ovoidal volume, is, preferably of 28 + 30 ' and that of
conical facing 33, opening 2, being preferably, of 23 degrees
+/- 30'.
P is the depths of conical facings 32 and 33 and L the length,
taken in the direction of the axis, ovoidal volume V against the
drilling of facings 32 and 33.
L1, L2, L3 and L4 are the lengths L of volumes 27, 28, 30 and 31
respectively. These four volumes are
homothetic, ratios
L4 / L3 , L3 / L2, L2 / L1 giving ratios of homothety.
In the preferred mode of realization,
L1 = 6 cm, L2 = 15 cm, L3 = 24 cm and L4 =
approximately 33 cm.
The values of the depths P
follow the same ratios of homothety that the lengths L. For
all ovoidal volumes 27 and 28, 30 and 31, conical facings with
opening of approximately 23 degrees are directed towards the
center of the form F when these volumes are attached on the
stems 23.
In the case of the embodiment quoted above, the
depth P of facings 32 and 33 of
volume 31 is 12 cm, the P1 depths in P3 of other
volumes 27, 28 and 30 deducing some following the aforementioned
ratios of homothety.
The stems 23 of the electrodes 19 and 22 are connected both to a
source (not represented) of filtered and stabilized DC current,
positive compared to the ground. The stems 23 of electrodes 20
and 21 are both connected, in a way not represented, with the
potential of the ground.
It is clearly understood that one can have on the stems
electrode holders 23 other volumes having forms for example
those represented on figure 3, these last replacing volumes 27,
28, 30 and 31 and discs 29. One can add volumes also having
other forms, or put nothing on these stems 23.
Represented in figure 3 is an alternative of volume which can
replace the volumes 27, 28, 30 and 31 represented in figure 2.
The volume 34 represented on figure 3 has a general rhomboidal
form, i.e., a form whose outer surface would be that generated
by a
round rhombus
around its large axis, the acute angles of this rhombus being on
the aforementioned axis. One of the acute angles (#1) of the
aforesaid rhombus is approximately
57 degrees 20 ', while the other one (#2) is of
approximately 51 degrees.
Form 34 is drilled of an axial hole 35 whose diameter
corresponds to that of the stems electrode holders 23. In the
top of volume 34 having the angle of practical opening V one an
axial conical facing having an angle of opening 1 of
approximately
23 degrees, while
in that having the angle of opening 2, one practical an axial
conical facing of angle of opening from approximately 28
degrees. The depths P' of the aforesaid facings conical
are equal and are determined, just as the length the of the
aforesaid rhombus, taken according to its large axis, in the
same way that in the case of the ovordaux volumes represented on
figure 1.
When one uses the volumes 34
represented on figure 3, in the place of ovoidal volumes, one
can remove discs 29 while obtaining an improvement of
substantially equal or great amplification to that obtained
with the aforementioned ovoidal volumes.
According to an alternative of the embodiment prefered of the
present invention,
one can
either insert in the frame, or lay out near this frame, inside
or outside the volume which it delimits, a natural inorganic
form, of carborundum.
It was noted that such inorganics makes it possible to
increase the amplification of the
device and/or to change the nature of the emissions and/or to
confer to the frame the fractal character, which is a
known mathematical character.
For the inorganic natural, one can for example use
proustite, pyragyrite, obsidian,
etc…, as well as several of these inorganics simultaneously. It
was also noted that
natural
graphite has a strong influence on the fractal character.
One can also use in the place of inorganic, or in addition to
those, of
nematic liquids.
[
Oil, gas, gasoline, water ,
nitrogen ( Lorg Rayleigh ) ... ]
It is also possible to add to the frame or near this one of
other volumes, preferably out of natural material, for example
out of wood, presenting directed fibres,
materials such as rubber not having
any noted effect. Such
forms not only make it possible to increase the effect of
amplification of the device, but also to unify the effects
obtained in space and time, and to avoid the creation of
freezing conditions for human use. [
Frost prevention ? ... ]
Such additional forms can for example be cones with point angle
determined, forms with character of fractal object, polygons
with four, eight or sixteen sides for example, polygons with
seven dimensions, hemispheres, etc…
One can also add to the device
of the invention, acoustic resonators, lasers for
continuous or rhythmic emission, or many
fluids in movement in conduits of
appropriate form. [
Schauberger
... ]
In Figure 4, one schematically represented another embodiment of
the according apparatus to the present invention.
The apparatus represented in Figure 4 comprises two concentric
F1 forms and F2 , the F1 form being outside the F2 form.
The
F1 form consists of an
octagonal frame whose with dimensions ones are
respectively referred 39 to 46, and form
F2 consists of a regular polygonal
frame with sixteen sides respectively referred 47 to
62.
The frames constituting the forms F1 and F are carried out in
same way that the frame represented on Figure 1 and have the
same characteristics, single substantially dimensions of these
frames are different.
In one mode of realization of the invention,
circles circumscribed with the
frames F1 and F2 have respective diameters of 384 and
approximately 192 cm. However, dimensions of these
circles, and consequently of the frames constituting the forms
F1 and F2 can be larger. If the diameters of these frames are
smaller, it would be necessary is to decrease the high applied
tension with the electrodes carried by these frames, which would
have an adverse effect on amplification, that is to say to take
very large precautions of electric insulation.
Also, the forms F1 and F2 are laid out one compared to the other
one so that with dimension of the form F2 is with respect to the
top ranging between with dimensions the 39 and 46 of the F1
form.
The forms F1 and F2 are joined together between them using
spacers 63 which are realized, preferably, in same material that
the frames constituting the forms F1 and F2, for example out of
very dry wood.
Spacers 63 connect with dimensions the 47, 51, 55 and 59 of the
F2 form at the corresponding tops of the F1 form.
The electrodes (not represented) are attached on with dimensions
the 49, 53, 57 and 61 of the F2 form, in the same way that in
the case of the apparatus represented on Figure 1.
On with dimensions the 47 and 55 of the F2 form one can have
volumes 65 and 66 respectively, which can be carried out and
laid out in the same way that the volumes 17 and 18 represented
in Figure 1, or in a different way.
The axis passing by the centers from with dimensions the 51 and
59 is referred 64, and one can make turn the two forms F1 and F2
with their electrodes and possible volumes associated around
this axis using an appropriate mounting (not represented).
To further increase the effect
of amplification of the equipment of which two of the
possible embodiments are described above, one can
lay out it in a truncated pyramid,
which can be constructed as a frame, of which the
height is approximately 4,5 m and
whose base is square and has approximately 5 metres in
dimension. The proportions of the regular pyramid from which
this truncated pyramid is obtained are such as the length L of
its oblique sides is equal with C.
C being the length on a side of the base of the pyramid and W
the actual root of the equation: X^3 - X - 1 = O, i.e.
approximately 1,325. The truncated pyramid is obtained while
cutting the top of the pyramid to the quarter length of its
oblique edges, i.e. length 1 ' of the oblique edges of the
truncated pyramid is equal with 3/4.c.y, two bases of the
truncated pyramid being thus parallel between them.
One can supplement this
truncated pyramid while laying out around this small
base, which is also square,
with
a circle, for example out of wood, of diameter C '',
centered on the axis of the pyramid, it being the length of with
dimensions of the small base of the truncated pyramid.
One can also have on the
oblique edges of the pyramid the wood hemispheres whose
diameter is equal with the length of the aforesaid edges,
outside the truncated pyramid.
To operate the present
invention, one applies with electrodes 19 and a 22 positive
potential which one increases gradually from zero up to a
maximum value of at least 4r Kv. The effects obtained are all
the more substantial as its potential is higher.
However, for the great ones to approximately 300 Kv, it is
necessary to take very large precautions of electric insulation,
and the dangers of manipulation are increased.
The generator producing the aforementioned positive potential
will have to be able to be capable to deliver
a current of approximately 100
microamperes, and will be able preferably to comprise a
protective circuit cancelling as soon as possible the high
produced tension if the output current exceeds a certain value,
for example 100 microamperes.
It was noted that
the effects
enumerated below commence at the end of approximately an hour
the carrying under tension of the equipment of the invention,
in a ray of approximately 30 metres or more around this
equipment.
Among the noted effects, and whose list is not restrictive, one
can quote:
1 -- Local action on the terrestrial magnetic field --
After approximately half an hour,
one observes that the magnetic variation moves approximately
60 towards the west of magnetic north whatever the
applied tension with the electrodes, above of the aforesaid
threshold approximately 45 Kv, this rotation of the magnetic
variation stabilizing itself with the aforementioned value
dependent all the time on application of the potential, whatever
the orientation of the frame compared to the ground. However,
if one directs the axis of the
frame with 60 degrees west of magnetic north, it was noted that the other
effects quoted below occurred rapidly and with a more
substantial intensity.
It was noted a variation of the magnetic slope, but the value of
this variation was not fixed.
2 -- Local Action on the gravitation -- With a potential of
approximately 45 Kv, it was noted that the
local gravitation passed to 0,9
times its usual value to the same location, and that
this gravitation decreased further
when one increased the applied potential with the
electrodes of the apparatus.
3 -- Local action on the
index
of refraction of the air -- It increases slightly, and
more
especially if the applied
positive potential is higher.
4 -- It was noted that in reactions of combustion producing
blast-furnace slag usually, there was
no formation of ash after all the period of operation
of the apparatus, and same four days after the suspension of
the application of the elevated positive potential by
said electrodes 19 and 22.
5 --
Reduction in the quantity
of fuel necessary in the majority of the reactions of
combustion, to obtain the same result.
It has been reported that with an high tension of approximately
45 Kv, one used approximately
30% less coal to obtain same thermal energy, this reduction
being all the more substantial as the applied positive
potential with the form is higher. In the case of
motors with explosion using the
gasoline, it was noted a reduction in consumption
approximately 50% compared to a use, in the same
conditions, without the apparatus of the present invention.
6 --
Increase of the
coefficient of solubility of a salt in water, in
particular of sodium chloride. Experiments were carried out with
dehydrated sodium chloride, while varying the temperature of the
water in which one dissolved salt by increments of l0 C, from 10
C with 100 C, the starting water being twice distilled at a
pressure above normal atmospheric pressure. It was noted that
one multiplied by 2,1 to
approximately 2,3 the coefficient of solubility of sodium
chloride with a positive potential of approximately 45 kv. [
Solar ponds ... ]
7 --
Increases the speed of
growth of the plants and their size. These increases
are variable according to plants but are appreciable. In certain
cases,
the factor of increase
is at least 2, up to 10.
8 -- Possibility of
removing
partially or completely a catalyst in a chemical reaction
requiring normally a catalyst.
According to another embodiment of according equipment the
invention, one associates a main polygonal geometric form, such
as the geometric form described above, with other geometric
forms, preferably of single geometric forms such as for example
the additional forms described above, and
preferably one associates to them
an electric and/or electromagnetic and/or magnetic field,
these forms being the preference laid out inside a geometric
volume which can for example be made out of a molded
insulating material around the said forms.
Without the application of one
of the aforementioned fields, one obtains effects relatively
not very exploitable, but the application of the one at least
of these fields allows one to increase the intensity of
the effects obtained, especially when the applied field is
higher.
