Low frequency reactor for the treatment of fluids

Abstract

The present invention relates to a low frequency reactor device that is formed by a casing, preferably made of PVC, and wherein it contains minerals and a coil, to provide direct and immediate magnetic / electrostatic / electromagnetic treatment of fluids such as water and fuels, whereby several advantages are obtained, for example, better fuel performance or water quality improvement.

Description

[0001] LOW FREQUENCY REACTOR FOR FLUID TREATMENT

[0002] Field of Invention

[0003] The present invention generally relates to the field of magnetic / electrostatic / electromagnetic fluid treatment. Specifically, the present invention relates to a low-frequency fluid reactor apparatus or device comprising essentially minerals and an inductor. More particularly, the present invention relates to a low-frequency reactor device comprising a preferably PVC casing, and containing minerals and a coil, to provide direct and immediate magnetic / electrostatic / electromagnetic treatment of fluids such as water and fuels, achieving various advantages, for example, improved fuel efficiency or improved water quality.

[0004] Background of the Invention

[0005] Contemporary society is suffering from an energy crisis, partly due to the excessive use of fossil fuels. Furthermore, electricity consumes coal, all of which has economic, environmental, scientific, and technological implications. Within this framework, efforts are being made to improve fossil fuel consumption, which will help reduce greenhouse gas emissions. Diesel is a liquid hydrocarbon, composed primarily of paraffins, used as fuel in diesel engines and for heating. In Mexico, sulfur levels have been gradually reduced, reaching a maximum content of 0.5% for desulfurized diesel and dropping to 0.05% in Pemex Diesel, with an aromatics content of 30%, and a cetane index ranging from 52 to 55.This fuel has the potential for savings, which is why magnetizers or polarizers are available on the market. These are placed in the line that supplies fuel to the engine. When the fuel passes through the magnetic field generated by the device, its molecules clump together, allowing for better combination with the air.

[0006] However, the high cost of fuels and their constant price increases have forced the search for alternative uses: (a) fuels derived from renewable sources (biofuels); (b) efficient use of fossil fuels by developing devices that help achieve complete combustion and reduce environmental polluting residues. In this sense, agriculture is a primary activity that cannot be stopped; on the contrary, the demand for food is increasing due to population growth, which requires more fossil fuels, exacerbating global warming. According to Webber (2012), 10 units of fossil energy are needed to produce one unit of nutritious energy; fuel savings are necessary to reduce production costs, but also to control and reduce the emissions of pollutants into the atmosphere produced by agricultural activity.Engines have been mechanically modified in an attempt to reduce environmental pollution and fuel consumption, however, they produce other compounds that directly affect the environment and, at the same time, the useful life and lifespan of the engines. The costs of these procedures are high in the near future and in the long run; they do not always achieve the expected results of increased power, reduced consumption, and longer engine lifespan. In order to increase the octane and cetane numbers in liquid fuels and reduce environmental pollution, the use of materials that provide specific energy frequencies that disrupt hydrogen bonds in fuel molecules began.

[0007] In the case of water, during the interaction with hydrogen bonds between water molecules, there is a tendency for some to completely donate protons to their neighboring molecules, and for these in turn to donate their protons to others. When this happens, real charges appear on the molecules: (a) a net negative charge on those that donated their protons; and (b) a net positive charge on those that gained protons. This behavior is explained by the theory of J.N. Brónsted and T.M. Lowry, in which an acid is conceptualized as a molecule capable of donating protons, and a base as a molecule capable of accepting protons (Peña et al., 2004). The ionization of water gives rise to two ionic species of the water molecule: (1) the hydronium ion, H3O + which functions as an acid, is capable of donating a proton; and (2) the hydroxyl ion, OH- which is a base, can accept a proton (Peña et al., 2004).

[0008] It is known that the water molecule is formed by two hydrogen atoms (H) and one oxygen atom (O), this liquid has oxygen in the center of the molecule, while the two hydrogen atoms are at the two vertices of the tetrahedron, this creates an angle of 104.5 ° between the two hydrogen atoms, which is why it is a disordered tetrahedron, explained in its geometry by the order of the electron pairs of the water molecule, which gives a total of 8 valence or "exterior" electrons in the water molecule, of this total electrons, two pairs are from the oxygen-hydrogen bond, there each atom contributes an electron to the bond, the other two pairs of electrons do not participate in the bonds, it can be said that they are "free" or "unshared" electron pairs of oxygen.There are four pairs of electrons around the nucleus of the oxygen atom, so they are distributed in three dimensions, thus maintaining the greatest possible distance between them, so the repulsion forces are minimal.

[0009] This electron distribution explains why the hydrogen atoms and the electron pairs of the HO bond are located on the same side of the water molecule, while the two "free" pairs are located in the remaining space. Once the water molecule is formed, it joins with other molecules through a hydrogen bond, where the electronegative atom that forms the covalent bond with hydrogen acts as the "donor atom"; while the other electronegative atom becomes the "acceptor" of the hydrogen bond. Thus, in a drop of water, water molecules aggregate through bonds known as hydrogen bonds, giving rise to a disordered liquid structure in its tetrahedrons. This explains why oxygen has a greater electronegativity than hydrogen.This condition then results in an asymmetric distribution of electronic charge, allowing for greater electron density in oxygen and electron deficit in hydrogen atoms. This structure confers physical and chemical properties to water. Thanks to the hydrogen bonds between water molecules, it is possible to form hexagonal water, where six water molecules are held together by hydrogen bonds. This allotropic form is lighter than unstructured water; the hexagonal form is an open, loosely packed structure, less dense than water in its unstructured liquid state.

[0010] The applications related to water structuring can be diverse. In the case of drinking water, it facilitates the passage of water at the cellular level, improves the dissolution of bodily fluids, and enhances enzymatic reactions.

[0011] It is also useful for desilting large sediment storage tanks. Silting is achieved by the loss of moisture from sedimentable materials, requiring modification of water properties such as viscosity and density. This can be achieved by reducing the number of molecules in the clumps, which is commonly achieved through physical and chemical methods (high-cost thermal and magnetic methods or dissociation with very expensive and low-yield chemical additives).

[0012] Therefore, in this case, in order to achieve water clusters with lower molecular water content without resorting to traditional methods, it is necessary to have devices that allow the emission of specific energy frequencies that alter the upper orbital shell of the hydrogen atom in water molecules.

[0013] Although the principle of water structuring is understood, there are no devices, such as reactors, that are portable and easy to operate and that also integrate the properties to modify the structure of fluids, such as fuels and water.

[0014] For example, allotropic cells are known on the market. These, in general terms, refer to a mechanical device made of a brass tube containing a precise mixture of reagents and imparting an electromagnetic effect upon contact with fluids. It is a molecular catalyst that modifies the crystals formed by the salts in water. By preventing the formation of crystals, scaling is prevented, and the water becomes more penetrating. However, these cells contain metal oxides that can be toxic in small quantities. Furthermore, these cells are commonly manufactured from materials or in a shape that can break or develop cracks, allowing toxic reagents to escape.

[0015] Summary of the Invention In order to overcome the deficiencies of the state of the art, the different aspects of the present invention relate to improvements in a low-frequency fluid reactor apparatus or device that essentially comprises minerals, which are harmless. More particularly, the present invention relates to a low-frequency reactor device that is formed by a casing preferably made of PVC or any other harmless material, or that prevents reactions upon contact with fuels or water, such as some metals, natural or synthetic polymers, among others. Where minerals are housed inside, a coil, for example, a Tesla coil, to provide direct and immediate magnetic / electrostatic / electromagnetic treatment of fluids such as water and fuels, obtaining various advantages, for example, better fuel performance or improved water quality.

[0016] In other words, the device of the present invention also has a different application than that reported in similar devices already known, where magnets are used to generate magnetic resonance. In fact, the device of the present invention focuses on stimulating the magnetic moments of atomic nuclei in gases or liquids. Any atomic nucleus with spin, when a magnetic field is applied to it, absorbs radiation in the radiofrequency region due to a resonance effect. Information is thus obtained about the characteristics of the nuclei that absorb radiation of this type, as well as their surrounding molecular environment.

[0017] In the case of water, for example, between water molecule and molecule there is a bond known as a hydrogen bond. By polarizing the water, the intermolecular force of the hydrogen bond is reduced. Therefore, when drinking a glass of polarized water, it is less dense and lighter because the water molecules move away from each other. This generates a reduction in the boiling point of water, which is naturally influenced by the intermolecular interaction due to the hydrogen bond. Achieving this requires applying a force field generated, in this case, by a low-frequency reactor. This provides the strength of the magnetic fields, thus generating a force that is radial to the fluid. The low-frequency reactor device of the present invention is based on the principle of generating electrical and magnetic waves, which can be understood as a stream of discrete particles, wave packets, or energy known as photons.Wave-particle duality explains the device's behavior; it is the field of quantum mechanics that helps offer a rational explanation. From the electromagnetic spectrum, infrared radiation is the one that is exploited. When a molecule vibrates, an angular fluctuation occurs in its dipole moment, thus generating a field that interacts with the reactor's electromagnetic field. The electromagnetic radiation emitted by the low-frequency reactor allows for the transfer of energy from the reactor to the absorbing medium, which can be any fluid, such as water or fuel. What happens is that the electromagnetic radiation from the low-frequency reactor functions as a flow of particles called photons or quanta, modifying its molecular structure.

[0018] In a preferred embodiment, to achieve the benefits described, the device of the present invention comprises a mixture of at least two or more minerals and a coil or inductor.

[0019] More preferably, a mixture of two to three minerals. These minerals consist of a mixture of silicon- and calcium-rich products. In a preferred mixture, the device of the present invention comprises a mixture of zeolite, diatomaceous earth, and dolomite.

[0020] The proportions of the minerals can vary; for example, there may be 60% zeolite, 20% diatomaceous earth, and 20% dolomite. In another embodiment, there may be 50% zeolite, 30% diatomaceous earth, and 20% dolomite. Other proportions may also be included within the scope of the present invention, such that zeolite may be present in a range of 40 to 80%, and dolomite and diatomaceous earth in a range of 20 to 30%. Other proportions are also possible, in which zeolite is present in a smaller amount.

[0021] Natural zeolites are minerals rich in silicon, they are aluminosilicates where clinoptilolite is found, a zeolite of the most used for its properties as a nanomatehal, which due to the size used of the particle of 1 to 10 nm, the confinement of electrons is possible. In this mineral, electromagnetic fields are discharged that generate magnetic resonance in the water, which allows the breakup of the drop of water that contains, according to theoretical models, that an average cluster about 100 molecules of H2O at 0 e C, while at 70 e C the average cluster size probably does not exceed 25 molecules. So this electromagnetic force allows molecular ordering into basic units of six molecules forming hexagons.

[0022] In a further embodiment the reactor device may include a mixture of oxides.

[0023] In this way, when the mineral mixture interacts with the coil, they emit nanowaves whose energy generates a magnetic / electromagnetic and / or electrostatic field. In a more particular aspect, the reactor device according to the present invention emits specific energy frequencies or nanowaves greater than 10 6 Hertz. Similarly, the minerals are activated inside the device by an electrical discharge, reaching an electrical potential of approximately 20,000 V.

[0024] In another aspect, the operating principle of the device according to the present invention allows for at least three different applications. First, it is capable of isomerizing fuel chains, achieving greater oxygenation and thus more complete combustion. Second, it allows for the dissociation of water accumulations in large volumes, such as dams, lagoons, lakes, rivers, irrigation drains, and other water-receiving bodies, which facilitates operations such as dredging. Third, the magnetic field generated by the device allows water molecules to modify their configuration and intermolecular forces, a condition that favors, for example, the structuring of water for human consumption.

[0025] Specifically, for desilting, the ionization of water molecules generates small groups of molecules, which in turn capture all residues or materials found in a given area, allowing the water itself to act as a drag agent for the materials causing the silting. This provides the advantage of achieving high desilting efficiencies without the need for additional equipment, such as mechanical shovels. Furthermore, it avoids removing the quantities of water mixed with the materials causing the blockage, thereby reducing process time and costs.

[0026] In another aspect, the device according to the present invention may have the shape of a “T”, “I” or an “H”, without this representing a limitation, since the shapes can be adapted according to the different applications, such as a “C” or “S” or “Z” shape or any other. Likewise, it has variable lengths such as 8, 13, 21, 34, 55, 89, 144 cm, among other measurements; with diameters of 0.5, 1, 1.5, 2.0, 3.0, 4.0 inches in diameter, among other measurements.

[0027] Furthermore, the mineral quantities and coil size are tailored to the casing size and application needs. Thus, the capacity of a fuel or water tank, or the depth of the desilting zone, can be any size, as the device can be built to the required dimensions.

[0028] In another aspect, the device according to the present invention does not require maintenance, its structure is hermetic, it has no moving parts, it does not need a power source for its operation, in its manufacture they are built with sufficient energy for a useful life of at least three years.

[0029] In another aspect, the present invention also relates to a process for clearing clogged areas, characterized in that it comprises the following steps: a) Placing or immersing the device of the present invention in the area or areas to be cleared; b) Allowing said device to operate for a period of between 2 and 15 days or less; and c) Removing the device.

[0030] These and other objectives and advantages will be apparent to those skilled in the art from the following detailed description and the appended claims.

[0031] Brief description of the Figures of the Invention Figures 1 A-1 B show an exemplary embodiment of the reactor device of the present invention.

[0032] Figure 2 shows the display from which the data for the fuel economy test was obtained.

[0033] Figure 3 shows a graph of the total fuel consumption test result in 46 minutes on a Perkins Econodiesel engine.

[0034] Figure 4 shows a graph of hourly fuel consumption in the test without the use of the low frequency reactor devices compared to the test using the low frequency reactor devices of the present invention.

[0035] Figure 5 shows the power obtained in the test without the use of the low frequency reactor devices compared to the test using the low frequency reactor devices of the present invention.

[0036] Figures 6A-6D show exemplary photographs of the placement of the reactor device of the present invention, in its application for fuels.

[0037] Figures 7A-7B show exemplary photographs of another form of placement of the reactor device of the present invention.

[0038] Figure 8 shows an example of placement of the device of the present invention for dredging navigation channels.

[0039] Figure 9 shows a graph of the volume of desilting obtained using the device of the present invention.

[0040] Figure 10 shows a photograph of the level of obstruction on a ranch before the placement of the device of the present invention.

[0041] Figure 1 1 shows a photograph of the placement of the device of the present invention.

[0042] Figure 12 shows a photograph of another placement area of ​​the device of the present invention.

[0043] Figure 13 shows a photograph of another placement point of the device of the present invention.

[0044] Figures 14A-14C show the results of the desilting process using the device of the present invention.

[0045] Detailed description of the invention

[0046] Particular features of the invention are referred to in the preceding Summary and Detailed Description sections, as well as in the claims that follow. It should be understood that the description of the invention in this specification includes all possible combinations of such particular features. For example, where a particular feature is disclosed in the context of a particular aspect or embodiment of the invention, or a particular claim, that feature may also be used, to the extent possible, in combination with and / or in the context of other particular aspects and embodiments of the invention, and in the invention generally.

[0047] The present invention will now be described with reference to the accompanying drawings and examples, in which embodiments of the invention are shown. This description is not intended to be a detailed catalog of all the different ways in which the invention may be implemented, or all the features that may be added to the present invention. For example, features illustrated with respect to one embodiment may be incorporated into other embodiments, and features illustrated with respect to a particular embodiment may be deleted from that embodiment. Therefore, the invention contemplates that, in some embodiments of the invention, any feature or combination of features set forth herein may be excluded or omitted.Furthermore, numerous variations and additions to the various embodiments suggested herein will be apparent to those skilled in the art in light of the present disclosure, which do not depart from the present invention. Therefore, the following descriptions are intended to illustrate some particular embodiments of the invention, and not to exhaustively specify all permutations, combinations, and variations thereof.

[0048] Example 1. Fuel economy evaluation.

[0049] To evaluate the fuel-saving system using the device of the present invention, a continuous test was performed to measure hourly fuel consumption; four quick tests were performed to measure power.

[0050] The engine tested is a Perkins 4.236 Econodiesel, which is mounted on Massey Ferguson 4-cylinder naturally aspirated diesel tractors. The tests were conducted on a Clayton Dynamometer 1578 hydraulic adsorption test bench with a braking capacity of 373 kW (500 hp) and a rotational frequency of 5000 rpm. Data is recorded on the display and annotated, then transferred to a PC to calculate the relevant values.

[0051] The reactor device of the present invention is placed in the fuel tank; these devices energize the fuel to modify the fuel's polymer chains. The device, through a magnetic effect (it emits low-frequency waves), ionizes and aligns the hydrocarbon chains through the fuel-oxygen mixture, thereby improving combustion.

[0052] In this case, the device for saving diesel fuel is a T-shaped structure (Figures 1 A-1 B) 50 cm long and has a t of 22 cm, which facilitates the construction of a perpendicular part, the structure is made of cylindrical PVC plastic of 3 inches in diameter, inside it houses magnetic materials that are enriched with energy from the coil.

[0053] Fuel consumption was measured using the volumetric method directly from the test bench, and the data was recorded on the display. The accuracy of the equipment used to measure fuel consumption is ±1%. The methodology used for the test is specified in the official American standard SAE J-1349-J1995. This standard stipulates that the engine is tested without any engine-specific accessories, such as the alternator, fan, and others. This procedure is performed to obtain the gross power of the test engine.

[0054] The density of the diesel used in the test was measured traditionally, taking a fuel sample with a measuring cylinder and weighing it to establish a relationship between the mass and volume of fuel. Samples were taken of both untreated diesel and diesel exposed to the low-frequency reactors.

[0055] Relative humidity was measured using a psychrometer, measuring the dry bulb and wet bulb temperatures, and using a psychrometric chart, these data were correlated to obtain the relative humidity. In the continuous test, fuel consumption data were collected every 2 minutes for 46 minutes. In the rapid tests where torque was varied, fuel consumption data were recorded every time the engine speed varied by approximately 15 rpm, since the engine cannot be stabilized. These data were taken directly from the bench display, as shown in Figure 2.

[0056] The test engine is a unit that represents the manufacturer's specifications. In this case, the test engine was already installed on the test bench, according to the manufacturer's specifications. The test type corresponds to the gross engine power measurement, which consists of measuring brake horsepower with the throttle fully open and held at maximum for diesel engines, in order to determine the maximum power that can be obtained at the corresponding engine speed, with the engine unassisted.

[0057] For the 67 hp Perkins Econodiesel engine used in this test, hourly fuel consumption was measured in mass per unit of time. The accepted method is to measure the amount of fuel consumed by an engine over a time interval, which allows obtaining the average fuel consumption during a test period. Table 1 shows the results of hourly consumption recorded in a continuous 46-minute test, where hourly consumption data were taken every 2 minutes, rpm were kept constant at 1600 ± 5 rpm and a torque of 56 lb-ft. A quantitative comparison is made of the operation of the fuel-saving device, finding a saving of 0.428 L, which corresponds to 14.8 % of the total volume consumed in the normal test. 46 minutes were used because this is an engine that has exceeded its useful life, therefore it cannot operate at a temperature higher than 95 ° C, to avoid damage to its functions.Table 1. Hourly consumption and specific fuel consumption in a 67 hp Perkins Econodiesel engine.

[0058] The specific fuel consumption of untreated fuel was 166.8648 g / kW.h, while when the fuel was treated with the reactor device of the present invention it was 142.1035 g / kW.h. Treatment with the low-frequency reactors improved the specific fuel consumption by 14.8%. Engine efficiency is the ratio of the energy obtained by burning the fuel to the energy obtained by the engine.

[0059] One liter of diesel generates emissions equivalent to 2.63 kg of CO2 / liter, so the results indicate a reduction of 1,125 kg of CO2 during 46 minutes of operation with a diesel engine like the one described. The results reveal that the device represents an alternative for mitigating climate change.

[0060] Concern for greater fuel efficiency and, consequently, reduced emissions, led to a continuous hourly fuel consumption test, as illustrated in Figure 3, which reveals a saving of 0.428 L / 46 minutes of work. Figure 3 shows the hourly fuel consumption when using the reactor devices, which represents a 14% fuel saving; this translates to 0.527 L / h. For example, during a tractor's 8-hour workday, the saving is 4.22 liters, which means a reduction of 11.1 kg of CO2 emissions. In Mexico, in 2009, 238,830 tractors were registered in service (FAO, 2011), which represents a reduction of 2,650.6786 tons of CO2 for every 8 hours of work for this agricultural machinery fleet.

[0061] Another test was carried out with the influence of the reactor device of the present invention under the following conditions.

[0062] Atmospheric pressure: 782.5 mb.

[0063] Temperature: 22 °C

[0064] Relative Humidity: 44%

[0065] Fuel density: 0.815 g / mL

[0066] Engine Temperature (Min-Max): 70°C to 95°C

[0067] Figure 4 shows a graph of the hourly fuel consumption during the test without the use of low-frequency reactor devices compared to the test using the low-frequency reactor devices. Maximum fuel consumption was reduced by 16.97%, and average fuel consumption was reduced by 13.94%.

[0068] Figure 5 shows the power obtained in the test without the use of low-frequency reactor devices compared to the test using the low-frequency reactor devices. The maximum power obtained increased by 6.74%, and the average power increased by 0.17%.

[0069] Any hydrocarbon is found in its normal state with positive and negative elements in its molecule, methane (CH4) being the most basic hydrocarbon. All hydrocarbons, regardless of their position in the chain, are composed of carbon and hydrogen. Hydrogen, in turn, is composed of a positive proton (+) and a negative electron (-). The latter is the one whose polarity is momentarily affected by the magnetic resonance generated by the low-frequency device. This low-frequency reactor is installed in the fuel line and by producing carbon-hydrogen bond energy, carbon monoxide is reduced and decreased. By facilitating and making combustion more efficient, cleaner combustion is achieved. Examples of the placement of the reactor device of the present invention can be found in Figures 6A-6D.

[0070] Additionally, the same experimental procedure was performed for the device of the present invention when placed outside the fuel tank (see Figures 7A-7B). The magnetic field generated by the device allows the hydrocarbon molecules to modify their configuration and intermolecular forces, a condition that improves the dispersion of the hydrocarbon molecules, allowing them to mix better with the fuel. This makes combustion more efficient and improves engine efficiency. Therefore, it is recommended that these devices be placed or attached near the fuel tank. The results obtained are similar in terms of fuel economy.

[0071] Example 2. Dredging

[0072] As described, the emission of nanowaves or magnetic waves from the device of the present invention allows the dissociation of water clusters in large volumes in an efficient and environmentally friendly manner. That is, the device alters the upper orbital of the hydrogen bonds of water molecules in order to break the bonds between the molecules and obtain water in small clusters, thus modifying the properties of water such as viscosity and density.

[0073] A) Reactor devices were installed in the port area of ​​Coatzacoalcos, Veracruz. The port area has a general drainage system divided into five main branches, each 1.60 m in diameter, that cross from west to east until they flow into the Coatzacoalcos River. These are fed in the west by stormwater and sewage drainage systems supplied by the city to its surrounding neighborhoods. Likewise, stormwater from roads, yards, and warehouses is discharged into the port area. This causes silt, clay, sand, etc. to be carried along, settling inside the drains. This continuous storage reduces the area where water can be discharged from the pipes and, at the same time, clogs them, leading to a decrease in flow.This, along with the lack of maintenance of the pipes through dredging, causes problems of saturation and flooding in different areas of the facility, affecting roads, open-air storage yards, docks, and docksides.

[0074] In the test, devices were placed in the form of an intertwined "T", as shown in Figure 8. A period of 10 years (2012-2023) was taken into account, where the degraded silt volume was measured by other methods (mainly manually), while in the last year, for approximately six months, the device of the present invention was placed. The results are observed in Figure 9, the average degraded volume during practically the 10 years was 1,233,080 m 3 , while in the experimental period (in which the device of the present invention was placed) a desilting volume of 566,480 m was obtained 3This indicates that the required dredging was achieved. This results in savings of just over 50% compared to traditional (manual) dredging. This demonstrates that the device according to the present invention works for dredging drains and, above all, saves money and time.

[0075] B) 1,100 m of pipe was cleared at the "DllLMA" dairy farm in Gómez Palacio, Durango. This area had been flooded for two months due to cattle manure compaction in the pipes, and the only solution was mechanical action, that is, digging 5 m deep and 1,000 m long. Figure 10 shows the level of obstruction that existed before the device was installed.

[0076] Subsequently, the devices described in the present invention, in this case in the form of an "I", were placed and submerged in different registers within the ranch area, as shown in Figure 11. Similarly, as shown in Figure 12, the devices were placed in the flow line, that is, the water and waste coming from the cattle cleaning area are observed, and through which a large amount of waste materials pass.

[0077] Figure 13 shows another location point for the device, in one of the areas with the greatest influx of livestock and therefore the greatest problems.

[0078] Two days after the devices were installed, water began flowing through the drainage pipes. A strong bubbling noise was observed due to the release of oxygen from the decompacting of the feces. Finally, 15 days after the devices were installed in the different areas, the dredging process was completed, leaving the areas completely free of wastewater and materials clogging the manholes, as can be seen in Figures 14A-14C.

[0079] Through these experiments, it was determined that the electromagnetic force within the device allows electrons to be removed or lost, which is reflected in the increase or decrease of a molecule's energy. The loss or gain of electrons represents a rearrangement of the particles within a molecule. The low-frequency reactors of the present invention allow the formation of an additional electromagnetic field; the elementary particles that make up the atoms induce a magnetic field due to their spin or intrinsic angular momentum. It was then proven that when water molecules are ionized, small groups of them are generated, which in turn capture all the residues or materials found in a given area, thus allowing the water itself to function as a drag element for the materials that are causing silting.Having thus described the invention, it will be apparent that it may be varied in many ways. Such variations should not be construed as a departure from the spirit and scope of the invention, and all modifications that would be obvious to one skilled in the art are intended to be included within the scope of the following claims.

Claims

MODIFIED CLAIMS received by the International Bureau on 12 November 2024 (12.11.2024) 1. A low frequency reactor device for fluid treatment, characterized in that it comprises a housing, inside which a mixture of minerals and a coil or inductor are housed; wherein the mixture of minerals essentially consists of at least two minerals or at least three minerals, wherein said mixture of minerals comprises zeolite, diatomaceous earth and dolomite, and wherein the coil and the mixture of minerals interact to emit frequencies or nanowaves greater than 10 6Hz and generate a magnetic / electromagnetic and / or electrostatic field to transfer energy from the reactor to the fluid(s) and modify their molecular structure and, where the proportion of the mineral mixture is 60% zeolite, 20% diatomaceous earth and 20% dolomite, or 50% zeolite, 30% diatomaceous earth and 20% dolomite, or the zeolite may be present in a range of 40 to 80%, the dolomite and diatomaceous earth in a range of 20 to 30% or other proportions in which the zeolite is present in the least amount.

2. The device according to claim 1, wherein the fluids are water and fuels.

3. The device according to claim 1, characterized in that the housing has a “T”, “I” or “H” shape or any required shape.

4. The device according to claim 3, characterized in that the housing is made of natural or synthetic polymers, such as PVC, or other materials that are harmless to contact with fluids.

5. The device according to claim 1, characterized in that the device is a hermetic structure that has no moving parts.

6. The device according to claim 1, characterized in that there is also a mixture of metal oxides inside the housing.

7. The device according to claim 1, characterized in that the coil activates the mineral mixture by means of electric discharge.

8. Use of the device according to claim 1, for the treatment of water and fuels, by means of molecular restructuring or ionization thereof.

9. The use according to claim 8, wherein said use consists of clearing areas clogged by different materials.

10. A process for clearing clogged areas characterized by comprising the following stages: a) Place or immerse the device according to claim 1 in the area or areas to be desilted; b) Allow said device to operate for a period of between 2 and 15 days or less; and c) Remove the device.

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