LU100913B1 - Device for treating a water flow - Google Patents

Abstract

Device for treating a water flow comprising a sealed cylindrical casing comprising a water inlet opening at which the flow arrives in the device, and a water outlet opening at which the flow is evacuated from the device. The inlet and outlet openings are sealingly connected by an arrangement of conduits comprising from upstream to downstream: an inlet section, a central section, and an outlet section. The central section comprising a central reactor in which the flow circulates around an oloid shaped part so as to increase the zeta potential of the water.

Description

Device for the treatment of a water flow Technical field The present invention generally relates to the field of devices for the treatment of water flows. The present invention relates more particularly to the field of treatment devices by structuring water.

STATE OF THE ART The qualitative criteria defining water intended for human consumption, that is to say water from the network, are based on potability. The measured values are physicochemical, microbiological and sanitary parameters which vary from one country to another.

Thus, water treatment systems commonly use water purification processes which involve filtration systems such as activated carbon filters, mechanical membrane filters or filters made of porous materials, sterilization systems (UV, silver ), water softening with cationic type exchange resins, and also anti-scale systems.

In recent years, a new concept of water biocompatibility has appeared. The general characteristics of this concept can be summarized as emphasizing the desirable purity of water, the bioavailability of minerals in the water and the structuring of the water.

We now know that legally drinkable water may not be biocompatible, and that traditional purification methods are not suitable for making water biocompatible by chemical disinfection or by irradiation (UV) of contaminated water.

The concept of water biocompatibility is based on several observations. Like valence bonds, the hydrogen bond is directional: it aligns with the axis of the valence bond associated with it.

The energy for forming the hydrogen bond is of the order of the energies involved in thermal fluctuations at room temperature (27 °

Celsius). Also, such bonds can twist, break or restore at this temperature. This property gives molecular architectures assembled by hydrogen bonds flexibility and the ability to evolve at room temperature.

It is this flexibility of the hydrogen bond and the great polarity of the water molecule that will, for example, allow water to build around an ion a screen of H: O molecules flexible, resistant and covering everything. the space around this ion, preventing it from combining again with ions of the opposite sign and keeping it “dissolved” in the water. This flexibility of water is also related to its zeta potential. water assumes an essential hydrolytic function in the metabolism and in its well-being. At the level of the cell membrane, water makes it possible to generate hydroelectric energy which is stored in the form of ATP and used for exchanges of elements, in particular for neurotransmission. The surface tension of water also has an influence on the capacity of water to penetrate the cells of the body and to hydrate them. In addition, water is a system of information that captures all the frequencies to which it is exposed. with backgrounds and information fields. Water is a vector of chemical, electromagnetic, and vibratory information. Water molecules have the capacity to capture and return information to living systems. As Viktor Schauberger explains in his studies of nature, free water regenerates itself. This regeneration takes place through a circular, centripetal, vortex or vortex-shaped movement. Water increases its electrical charge while decreasing its temperature. The forces of suction, which are contrary to the gravitational forces, generate this energetic phenomenon called implosion of water. In addition, the work of physicist Wolfgang Ludwig has also demonstrated the “cleansing” ability provided to water by swirling.

To overcome the shortcomings of these traditional purification methods and systems in water treatment, water structuring systems have appeared on the market. These systems allow water to be regenerated.

Water structuring systems include all of the single or combined techniques, the physical or chemical nature of which uses at least one known or unknown energy to influence the structure of water molecules and modify their usual physical or chemical properties. These techniques are either of human origin (biomagnetism) or implemented by humans.

Their use on animals, plants or humans claims measurable and repeatable benefits in the health (by optimizing intra- and extracellular functions), agronomic, agro-food, ecological or cosmetic fields.

Known water structuring systems use chemical agents such as mineral or organic colloidal solutes (silica, gas, etc.) and electromagnetic waves, sound waves, or electrolytic processes.

State of the art systems use the combined actions of physical vortex forces with magnetic elements. The water is then destructured and then restructured. These systems do not offer any element allowing water to be restructured by communicating information to it. In addition, these systems have limited average flow rates with approximately 40 l / min for a three-quarter inch inlet section.

OBJECT OF THE INVENTION The object of the present invention is to provide a water structuring device which improves the known devices, and in particular which solves most of the problems raised by the state of the art.

General description of the invention To achieve this objective, the invention provides a device for treating a flow of water comprising a sealed cylindrical casing comprising a water inlet opening at which the flow enters the device. , and a water outlet opening at which the flow is discharged from the device.

The inlet and outlet openings are sealingly connected by an arrangement of conduits comprising from upstream to downstream: an inlet section, a central section, and an outlet section.

According to the invention, the inlet section comprises, a first connection element configured to receive the flow from the inlet opening, and distribute it to at least two separate circuits respectively comprising a vortex configured to accelerate the incoming flow by a whirling motion. The inlet section also includes at least two pipes, preferably made of quartz. A first axis is arranged between the pipes, and a second connecting element is intended to bring the flows together.

The central section comprises a central reactor in which the flow circulates around an oloid shaped part so as to increase the zeta potential of the water.

The outlet section comprises, a third connector element configured to distribute the flow to at least two pipes, preferably made of quartz. The outlet section also comprises a second axis disposed between the conduits, and a fourth connecting element intended to bring the two flows together towards the outlet opening.

According to the invention, the arrangement of pipes further comprises rings, preferably of brass type alloy, which surround the pipes.

In the context of the invention, the oloid defines a three-dimensional geometric object determined by the convex envelope of an armature created by two circles placed in perpendicular planes and each passing through the center of the other. This very particular geometric shape developed by Paul Schatz has a developable surface, namely that it can roll without sliding on a plane, developing its entire surface.

The device offers a water structuring approach independent of any energy source or external mechanism and without the use of chemicals, without irradiation of the water by ultraviolet or infrared radiation. The device integrates purely mechanical and magnetic processes which also produce the effects of self-regeneration and self-purification of the device. The device acts in three sections. The purpose of the entry section is the destructuring of the different molecular chains by an intense action on the hydrogen bonds with a direct impact on the electronic potential and the resistivity. The central section comprises a reactor whose general shape is based on a specific model, modular and adaptable according to the type of network and its purpose. Inside, the structuring element acts as an operating system by integrating an equilibrium vector which increases the power of information exchange.

Through the successive use of vortices, in parallel, levorotatory and dextrorotatory flows, and by successive phases of compression, expansion and acceleration, the device creates multiple turbulences. After the outlet section, the water is restructured, energized and its oxygenation is reactivated.

The device offers a complete solution without maintenance or maintenance which is also adaptable and configurable with the various existing systems and applications in private households, in agriculture and in local purification or wastewater treatment systems.

The water treatment device according to the invention makes it possible to structure the water by giving it a new biodynamic balance, by increasing its zeta potential, and by charging it with negative ions. The water is then completely purified, energized, sensitive to taste. It is perfectly biocompatible and also strengthens the body's intracellular exchanges.

Advantageously, the cylindrical case is made of stainless steel, the inner surface of which has undergone electrolytic polishing so as to free it from its impurities.

The goal of treating the case is to amplify the concentration of electromagnetic fields generated inside. By extension, this makes it possible to amplify the energy exchanges which take place within the device itself, when the water flows and undergoes transformations.

Preferably, the internal space between the cylindrical housing and the arrangement of pipes is placed under vacuum, preferably a vacuum of 50 to 200 mbar, in particular of the order of 100 mbar.

This helps to create an environment in which electronic exchanges are not the same as in the normal atmosphere of the organic world. These exchanges are then accelerated.

In addition, the evacuation offers protection of the device by dissuading a user from disassembling it under the risk of compromising its operation. Vacuum is then clearly notified on the device in service in order to prevent any intrusive action and risk of accident.

In preferred embodiments, the device comprises a dextrorotatory vortex and a levorotatory vortex. The combination of the two vortices of opposite directions allows to have two flows with different movements. The meeting of these two flows amplifies the implosion action created by the vortices.

Advantageously, the axes are preferably coated with quartz.

Preferably, the oloid comprises a structuring element, preferably an equilibrium vector, for example made of ceramic material. The Equilibrium Vector is a geometric shape based on the work of Richard Buckminster Fuller.

Its function is to be able to immediately generate a structuring energy and to emit it in a considerable perimeter.

Advantageously, the central reactor comprises an interior surface which comprises reliefs which describe geometric shapes, preferably describing a zome of revolution. The incrustations of these geometric shapes, enter into friction with the flow of water and generate waves that excite the water.

In preferred embodiments, the first axis comprises, at each end and in its center, matrices containing mixtures of suspended mineral powders. The second axis preferably comprises, at each end, matrices containing mixtures of powdered minerals in suspension. The purpose of these powders is to promote the exchange of information relating to the different atomic structures of molecular chains in water.

Advantageously, the device comprises at least four rings, for example made of a brass type alloy, arranged at the inlet and at the outlet of each section of the arrangement of pipes. These rings help to emit a magnetism which constitutes an information field transmitted to the water which passes through them.

Advantageously, the rings include elements encrusted with trigrams. Their function is to encode the information field of the rings, preferably metallic, by a coding system which takes up series of information generated by alternatives of solid or cut lines on three planes. The principles of this codification system have been developed in China since antiquity. This system is described as a mathematical programming language describing the different levels of creation.

Preferably, the device comprises a particulate filter arranged before the inlet opening. This configuration allows the device to be used in the treatment of muddy water by avoiding obstruction of the pipes of the device.

Detailed description using the figures Other features and characteristics of the invention will emerge from the detailed description of at least one advantageous embodiment presented below, by way of illustration, with reference to the accompanying drawings. These show: Figure 1: a perspective view of an embodiment of a water device according to the invention, with the case open; Figure 2: an exploded perspective view of an embodiment of a pipe arrangement for a water treatment device according to the invention;

Figure 3: a perspective view of a first connecting element of the device of Figure 2; Figure 4: a perspective view of a second connecting element of the device of Figure 2; Figure 5: a perspective view of a first axis of the device of Figure 2, Figure 6: a side view of a half-shell of the central reactor of the device of Figure 2; Figure 7: a perspective view of a half-shell of the central reactor of the device of Figure 2; Figure 8: a perspective view of an oil of the central reactor of the device of Figure 2; Figure 9: a perspective view of a structural element of the device of Figure 2; Figure 10: a perspective view of a third connecting element of the device of Figure 2; Figure 11: a perspective view of a fourth connecting element of the device of Figure 2; Figure 12: a perspective view of a second axis of the device of Figure 2; Figure 13: a perspective view of a ring of the device of Figure 2. A water treatment device 10 according to a preferred embodiment of the invention as shown in Figure 1 comprises a sealed cylindrical housing 12 .

The housing 12 comprises a water inlet opening 14 at which the water flow arrives in the device 10, and a water outlet opening 16 at which the flow is discharged from the device. The cylindrical case 12 can be made of any suitable material.

Preferably, the cylindrical housing 12 is a stainless steel cylinder, the inner surface of which has undergone electrolytic polishing.

In other embodiments, not shown, the case is made of a composite material such as basalt impregnated with a ceramic resin. The inner surface of the case is preferably coated with a silica projection which generates an electromagnetic field.

The device 10 can be adapted to all the water pipes of the network, whatever their configuration, such as for example a building network, an irrigation network, a water treatment complex or another circuit. waters.

A conventional network is defined by the ratio between the internal and external diameters, in mm, of the piping. For a 20/27 network, the box has for example a length of 47 cm long and 5.3 cm in external diameter.

For a 40/49 network, the box has for example a length of 83 cm and an external diameter of 9.3 mm. The inlet and outlet openings 14, 16, are connected in a sealed manner by an arrangement of pipes 18. L The arrangement 18 comprises a succession of pipe elements which sealingly connects the water inlet and outlet openings 14, 16. In this way, the housing 12 includes the pipe arrangement 18 but does not participate in conduction of water.

The dimensions of the inlet and outlet openings 14, 16 can be determined as a function of the standard dimensions of the network on which the device is fitted.

Before the device is put into service, the space between the housing 12 and the arrangement of pipes 18 is placed under vacuum, with a pressure for example of about 100 mbar.

The arrangement 18 comprising from upstream to downstream: an inlet section 20, a central section 22, and an outlet section 24.

The various sections of the duct arrangement will now be described in more detail with reference to Figures 1 to 13.

The inlet section 20 includes a first Y-shaped connector 25 shown in Figure 3, which receives the fluid at the water inlet opening 14 and distributes it to two curved legs 26. The curved legs 26 go up. impose a rotational movement on the water flow and open into two swirl chambers or vortices 28. The vortices 28 are configured to generate a gyratory movement of the water flow, respectively dextrorotatory and levorotatory.

The vortices 28 are sized according to a perfect hyperbola recreated from the principles described in the work of Viktor Schauberger in his studies on the natural movements of water.

The flow thus swirls in a manner analogous to the meanders of a river.

From this initial phase, the water undergoes a first transformation with a destructuring of the molecular whole.

The vortices 28 also generate an effect of acceleration of the flow.

The vortices 28 then respectively open into two straight cylindrical conduits 30, preferably made of quartz, which will be called more simply tubes 30. It should be noted that the tubes 30 are not shown in FIG. 2, but in this embodiment the tubes 30 are not shown in FIG. tubes are identical to those shown in Figure 1. In the two tubes 30, the water continues its swirling motion.

The eddies of the water flows create a concentration of energy at their center which changes the zeta potential and, therefore, the electronegative charges of the water.

This movement of water causes a phenomenon called implosion, in reference to the work of Viktor Schauberger, simultaneously with a phenomenon of ionization.

Based on the work of Rudolph Steiner in relation to silica, it is understood that the electromagnetic properties, for example of the quartz of tubes 30, allow it to amplify the phenomenon of implosion and ionization of water.

A first axis 32 is arranged between the two tubes 30. The axis 32, as shown in Figure 5, comprises a straight cylindrical tube 34.

The tube 34 is surrounded at each end as well as at its center by three identical dies 36.

The matrix 36 is an ellipsoidal, or ovoid, space of small dimension relative to the length of the tube 34. As shown in Figure 1, the matrix 34 may also have a substantially cylindrical shape.

The matrix 36 comprises a mixture of fine suspended mineral powders.

These powders can for example comprise peridot.

The tube 34 as well as the matrices 36 are surrounded in a cladding preferably of quartz.

The axis 32 has a smaller diameter than that of the tubes 30. The axis is preferably disposed aligned in the plane of the tubes 30. The axis can be maintained between the tubes 30 by any suitable means.

For example, the pipe elements comprise housings 38 for the axis 30. The inlet section 20 finally comprises a second Y-connector element 40 shown in FIG. 4, intended to bring together the two flows respectively coming from the tubes. 30. The second connecting element 40 opens onto the central section 22 which essentially comprises a central reactor 42. Just before entering the central reactor, the dextrorotatory and levorotatory flows meet.

This meeting creates a "shock" which renews the destructuring of molecular chains and hydrogen bonds within the water flow.

The water then enters the reactor 42, completely 'excited', in an electromechanical dynamic that it only rarely experiences in current network and water distribution systems.

The reactor 42 is an ellipsoidal or ovoid shaped space similar to that of the matrices 36 mentioned above.

The reactor 42 includes a shell 44 separated into two similar half-shells 44, one of which is shown in Figure 6. The half-shells 44 are configured to fit together.

The two half-shells include assembly means, not shown.

Any suitable assembly means can be used, such as for example screwing or latching means.

Figure 7 shows the interior of the reactor shell 44. The interior surfaces of the half-shells 44 comprise reliefs 46 preferably inlaid which will be in contact with the flow of water. In some embodiments, the interior reliefs are formed as a hollow or as an extra thickness, and can be designed in one piece with the half-shells by molding. The reliefs are developed according to the calculation bases of zomes of revolution. At the center of the reactor 42, there is a part which has an oloid outer volume 48, shown in FIG. 8. The oloid 48 is here formed in two half-oloids 48a, 48b, so as to facilitate assembly. The two half-oloids can be assembled by any suitable means, such as for example by correspondence of shape.

The interior of the oloid 48 includes a housing 50 for a structuring element

52. The structuring element 52 is, in the embodiment shown in Figure 9, an element in the form of an Equilibrium Vector 52 which allows an exchange of information with water. The Equilibrium Vector 52 can be made of ceramic material. In Figure 9, Equilibrium Vector 52 appears solid because it is 20mm in diameter, but it is still hollow and formed of thin strips of material.

The flow of water circulating in the reactor 42 is subjected to turbulence and an excitation generated both by the reliefs 46 of the interior of the shell 44 and by the contour of the oloid 48 which imposes a deflection and a separation of the water flow. This circulation of the flow increases the zeta potential of the water.

The water flow is simultaneously subjected to the energetic influence of the Equilibrium Vector 52 around which the flow circulates. This double action on the water in the reactor 42 allows the streams to be restructured before it flows to the outlet section 24.

In some embodiments, the interior of the reactor is configured as a zome. These are the junctions of the continuous flow systems of several devices that create a device that is fully removable and modular according to the use of the network. The outlet section 24 comprises a Y-shaped connection element 54, shown in Figure 10, which receives the fluid at the outlet of the reactor 42 and distributes it to two straight branches 56 which open respectively into two straight cylindrical conduits 58, preferably made of quartz, similar to the tubes 30 of the inlet section 20. Note that the tubes 58 are not shown in Figure 2, but in this embodiment the tubes are identical to those shown in Figure 1.

The two flows then flow to a fourth Y-connector 60, shown in Figure 11, intended to merge the two flows respectively coming from pipes 58. The flow leaving the fourth Y-connector 60 arrives. finally in the outlet opening 16.

Water has a high electronegative charge and, consequently, its ionizing power. The impact is an effective action on the elimination of polluting substances, such as limestone by reducing them in non-adherent colloidal form.

The outlet section 24 also includes a second axis 62, as in Figure 12, disposed between the conduits 58 analogous to the first axis 32. The second axis 62 is preferably disposed aligned in the plane of the conduits 58, and the third and fourth connecting elements include housings 68 for the second axis 62.

The second axis 62 comprises a tube 64, and dies 66 similar to those of the first axis 32 included in the input section 20. The notable difference between the first axis 32 and the second axis 62 is that the latter has only two. dies 66 arranged at each end of tube 64.

Preferably, the matrices 66 of the second axis contain a mixture of fine powders of suspended minerals different from that of the matrices of the first axis 32. These powders may for example comprise basalt. These different mixtures make it possible to promote structuring information transmitted to the water circulating in the pipes 58.

In the outlet section, the water is not only charged with a higher zeta potential than in the inlet section, but the water is also charged with information. At the entry and exit of each section, the arrangement 18 comprises rings, preferably metallic, 70, for example of copper and zinc alloy, as shown in Figure 13. The rings 70 are preferably taken. clamped between two annular coding parts 72. These annular parts 72 are encrusted with trigrams 74. Their functions are to encode the information field of the rings, preferably metallic, 70.

Structurally, the rings, preferably metallic, 70 ensure contact between the arrangement of pipes 18 and the inner surface of the housing 12, so as to stiffen the device 10.

The device exhibits improved performance in terms of throughput compared to the known state of the art. The device for a 20/27 network offers an average flow rate of 80 l / min, or 5 m ° / h with a base pressure of 3 to 4 bars. For a 40/49 network, the device offers an average flow of 240 min, or 15 mh.

The pressure remains proportional to the planned flow, however the device should also be able to withstand up to 10 bars.

In addition, the devices can be installed in a bank of parallel devices up to 6 devices or more. Thus for a 20/27 network, a battery of 4 devices offers an average flow rate of 480 m * / day and for a 40/49 network, a battery of 4 devices offers more than 1400 m * / day.

In an effort to increase the effect of the device, it is also possible to combine several devices in a series installation. This operation is preferable, for example, to treat effluents. In a series arrangement, it is also possible to combine devices comprising different structuring elements so as to combine their effects.

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Claims (13)

Claims 1. Device for treating a water flow comprising a sealed cylindrical casing comprising a water inlet opening at which the flow arrives in the device, and a water outlet opening at which the flow is evacuated from the device; in which housing, the inlet and outlet openings are connected in a sealed manner by an arrangement of conduits comprising from upstream to downstream: an inlet section, a central section, and an outlet section; the inlet section comprising, a first connector member configured to receive the flow from the inlet opening, and distribute it; to at least two separate circuits respectively comprising a vortex configured to accelerate the incoming flow in a swirling motion; at least two pipes, preferably quartz; a first axis disposed between the pipes; and a second connecting element intended to cause the flows to converge: the central section comprising a central reactor in which the flow circulates around an oloid shaped part so as to increase the zeta potential of the water; the outlet section comprising, a third connector member configured to distribute the flow; to at least two pipes, preferably quartz; a second axis disposed between the pipes; and a fourth connecting element intended to bring the two flows together towards the outlet opening; the arrangement of pipes further comprises rings, preferably of brass type alloy, which surround the pipes. 2. Device according to claim 1, wherein the cylindrical housing is made of stainless steel. 3. Device according to claims 1 or 2, wherein the internal space between the cylindrical housing and the arrangement of pipes is placed under vacuum, preferably of the order of 100 mbar. 4. Device according to any preceding claim, wherein at least one of the vortices is right-handed, and at least one other of the vortices is levorotatory. 5. Device according to any one of the preceding claims, wherein the axes are sheathed in material, preferably quartz. 6. Device according to any one of the preceding claims, in which the oloid comprises a structuring element, preferably an equilibrium vector, preferably of ceramic material. 7. Device according to any one of the preceding claims, wherein the central reactor has an interior surface which comprises reliefs which describe geometric shapes. 8. Device according to claim 7, wherein the geometric shapes describe a zome of revolution. 9. Device according to any one of the preceding claims, wherein the first axis comprises at each end and at its center, matrices containing mixtures of suspended mineral powders. 10. Device according to any one of the preceding claims, in which the second axis comprises, at each end, matrices containing mixtures of powdered minerals in suspension. 11. Device according to any one of the preceding claims, comprising at least four rings, preferably copper and zinc alloy, arranged at the inlet and at the outlet of each section of the pipe arrangement. 12. Device according to claim 11, wherein the rings comprise elements encrusted with trigrams. 13. Device according to any one of the preceding claims, further comprising a particulate filter arranged before the inlet opening.