WO2017209593A1

WO2017209593A1 - Soil bioregenerator

Info

Publication number: WO2017209593A1
Application number: PCT/MX2017/000058
Authority: WO
Inventors: Horacio GALLEGOS ACUÑA
Original assignee: Gallegos Acuña Horacio
Priority date: 2016-06-02
Filing date: 2017-06-05
Publication date: 2017-12-07
Also published as: MX2016007177A; ES2698162A1; ES2698162B2; MX369478B

Abstract

The present invention relates to a soil bioregenerator that uses a zeolite-based composition as a carrier and catalyst in order to produce a soil remineralisation effect and, in turn, through the use of nanotechnology, to produce a biotransfer of nutrients directly to the plant and to make said nutrients available to the plant whenever necessary, without saturating the soil or the plant, thereby obtaining completely organic cultivation.

Description

SOIL BIOREGENERATOR

FIELD OF THE INVENTION

The present invention is directed to the field of agriculture, in particular with a product that regenerates the crop fields, allowing it to recover the microbiota and mineralization thereof, which allows the crops to potentiate their growth and development. The bioregenerator comprises an alumino-silicate as a base material, preferably a zeolite, to achieve a biotransfer of all nutrients which are placed in the soil available to the plant for the proper growth and development of plants and crops.

BACKGROUND OF THE INVENTION

In agriculture it has been found with various techniques that have degraded or continue to degrade the soil, some natural and others caused by man, among the effects they cause are Soil erosion, Nutrient runoff, Drowning, Desertification, Acidification, Compaction, Crusting , Loss of organic matter, Salinization, Nutrient percolation and Toxic Accumulation among others, and other conservative techniques, which despite these crops need to be helped to achieve greater efficiency. Cultivation systems have been developed where biofertilizers have been reached, through the use of living organisms that promote plant development, however, they are still precarious and need to be combined with other cultivation techniques. Different materials, products and techniques have been used to be able to make plantations and crops grow and develop to have a better yield in the crop or harvest by plant or by planting area, for example the use of agrochemicals, however , they have the disadvantage that these do not achieve a balance of soil biology, but instead destroy it, they even end up with the plantation that wanted to help if the doses of these materials are not well determined or applied in excess; in the same way it is necessary to add the same chemical formulation every sowing or harvest period, or different formulations that make the products expensive and have to specialize for each type of plant or crop, and even so the soil does not really have a balance of nutrients or biota. The use of agrochemicals only saturates the soil with chemical substances, usually NKP (Sodium - Potassium-Phosphorus), which make the plant equally saturated with these elements that prevent a healthy development, since it is saturated with one or more of these components, making it simply discard it without taking advantage of it and that when discarded it is not available for later use by the plant or crop.

The agrochemicals saturate since the synthesis of its components by the plant is slow and is done from within the plant and not before, which causes the plant to become saturated or use too much energy to try to absorb the components causing the plant grow or develop slowly. The NPK is applied directly to the plant, both topically and by capillarity, saturating the content of these components in the plant. For example, if there is too much nitrogen present, which happens when too much fertilizer is used, a part of that nitrogen does not return to the atmosphere, and instead contributes to environmental pollution. When too much fertilizer is applied to the soil, the excess seeps into the groundwater (leaching) and flows into rivers and lakes, and finally into oceans, where it can cause problems for marine life.

The use of bacteria has also been used, mainly the use of bacteria that fix the nitrogen to the soil, however, these due to bad tillage practices do not survive in each cultivation period, and their use or application is necessary every time That the earth is prepared. Also, they have the disadvantage that depending on the type of soil it is necessary to select a bacterium. In addition to keep the bacterial colony alive, it is necessary to maintain a certain level of moisture in the soil, which due to various conditions is not possible many times, similarly, the conditions of acid or Ph of the soil causes bacteria die and it is necessary to inject new bacteria in each tillage cycle.

It has been shown that burning fields as a means of preparation and turning the earth, eliminates microorganisms by killing certain types of beneficial bacteria. The process Bioregeneration achieved with the present invention helps keep alive microorganisms, bacteria and enzymes, maintaining the potential of the earth, so these culture techniques are not necessary to apply and should be avoided. Other products that have been used as fertilizers or natural fertilizers are humus, organic matter, such as feces of sheep, cow and other animals, mixed with other products such as limes, or substrates does not ensure that the soil remains healthy, nor ensures adequate proportion of nutrients needed by plants or crops, causing these products to saturate the soil in the same way and with it the plants. Similarly, the inclusion of some of these materials causes the soil to become contaminated, as they may contain E. coli, salmonella and other dangerous bacteria.

Different types of substrates have been used as soil improvers, such as sands, dolomites, different types of clays, including bentonite, etc., with which it is intended to improve soil quality and humidity level, but fail to provide the necessary nutrients to the soil and consequently to the plant or crop, resulting in many of the times that these crops have to be mixed with other compounds such as agrochemicals or organic fertilizers, creating over-elaborated compounds that do not solve the problem of providing a healthy environment of the soil, since the endemic bacteria of this are not regenerated, much less maintained, creating inert soils over time.

The use of aluminosilicates, such as zeolites, have been used as soil improver elements or as part of chemical fertilizer compounds for the soil, this due to their physical-chemical properties, among which is the ability to absorb a large amount of water Y store it, thereby improving the amount of moisture in the crop soil; In the same way, zeolite allows the acidity of the soil to be regulated, however, the use alone does not allow the soil to regenerate, promoting healthy soil. Another property of zeolite is its ionic-cation exchange capacity, so it has also been used as filters in catalytic converters or filters, however in cultivation it has not been widely used.

Mexican patent application MX / a / 2010/005496 (VILLAFAÑA DE LA GARZA, ET AL) describes a composition for agricultural soils composed of zeolite, humic acid, agricultural lime, dolomitic lime, Nitrogen, Phosphorus, Potassium and organic matter obtained from composts and are added by impregnation. This composition uses all its elements as aggregates that are transported in the zeolite, where the components of the composition only affect the zeolite on the external surface since the size of the zeolite used is 2 to 4 mm, in the zeolite being externally impregnated to form a pellet and using the zeolite only as an additional aggregate or carrier substrate. The proportions used of this composition are apparently between 300 kg to 500 kg per 500 m ^z . The use of non-organic components, such as lime and urea make this composition behave like an agrochemical and saturate the crop field and contaminate it.

Zeolite has also been used as a component of compositions that can clean fields contaminated with hydrocarbons, as mentioned in Mexican patent application MX / a / 2013/014093 (Avila Woodroffe), in which a composition is described very briefly based on zeolite and bacteria, however, the document does not mention What proportions of bacteria or zeolites should be used, neither the type of zeolite nor its size. Although it mentions that it is in proportion to the contaminated land, the zeolite is used from 2 to 60% of the land to be cleaned and bacteria from 40 to 80% in proportion to the contaminated land, without demonstrating its efficiency, or uses in agriculture .

The use of bacteria have been widely used as components of fertilizer compositions, as in patent application US20140352376 (Al) (Biowish Technologies, Inc.) in which they are used in conjunction with a mixture of NPK, which covers the zeolite used as a carrier of this mixture and in turn is coated with a mixture of Bacillus, Pseuodomonas, and Streptomyces bacteria from 10 ⁶ to 10 ¹¹ CFU, per gram of Zeolite. However, the use of NKP causes this agrochemical to have the same soil saturation problems without achieving soil improvement, and does not ensure the life of the bacteria.

International application WO 2012154019 describes an aqueous suspension of micronized natural zeolite, with particle size of 1 to 20 um. The suspension has a solids concentration of 50 to 55% zeolite and its application in the fields does not mention what or how it is, nor does it mention how it can be combined with other biocomponents to fulfill its purpose, or the doses to be applied to the crops, which, by the way, would be minimal, since the suspension comprises only zeolite. In this way, there is still a need in agriculture for a compound that allows the soil to regenerate sustainably, allowing its remineralization, as well as regenerating and keeping its microbiota alive, so that a balance is achieved in it. The need for a soil bioregenerator that does not have the problems of agrochemicals is still latent and which in turn allows the crops to potentiate their crops naturally, thus allowing sustainable organic agriculture.

BRIEF DESCRIPTION OF THE INVENTION

In this way the present invention relates to a soil bioregenerator which uses zeolite as a carrier and catalyst to achieve this soil remineralization effect and in turn through the use of nanotechnology achieve a biotransfer of nutrients directly to the plant and leave them at your disposal, when it needs them, without saturating the soil or the plant, thus achieving a completely organic crop. Every time the zeolite becomes a carrier agent for microbial, enzymatic, micronutrient, mineral, macronutrient, vitamin, biostimual, etc. complexes, at the same time as the zeolite acts as a catalyst and soil bioregenerating agent.

A healthy soil is considered to comprise 25% water, 25% air, 45% soil, 5% bacteria, if any of the components is diminished in the soil, the systemic balance is broken causing problems in the crops. The present invention aims to make living matter increased by at least 10% when applicable to land. of high production crop, thus being a sustainable and organic soil. Healthy soil reduces the risk of flooding and eliminates contaminants by water filtration.

In this way a bioregenerating composition for agricultural soils with remineralizing and bioactivating capacity, composed of a zeolite base, and a specifically selected enrichment mixture or compound, considered as biocomponents, is described, which when deposited by direct biotransference to the root zone of crop plants, or be deposited prior to planting allow the soil to have all the nutrients so that the plants develop more quickly and potentially, so that plants are obtained, as well as healthy organic products and with better contents Nutritional

The biotransfer of nutrients in the fields of crops the inventor has shown that it is highly efficient through the use of a zeolite-based composition comprising particles and grains of various sizes, which allows the hauling and transfer of nutrients to be rapid and efficient. The zeolite levels the pH of the soil, it is used as a heavy metal trap, since it can be used as a molecular sieve and alkaline buffer. Biotransfer of nutrients is achieved because the zeolite has approximately 11 km of nanotunnels in

1 cm

In addition, the use of zeolite favors the permeability of water to reach the water table by allowing bentonite chains or leagues to break. This invention is also a process for preparing the composition and its uses.

BRIEF DESCRIPTION OF FIGURES

Figure 1 illustrates roots of corn plants that were developed with different compounds and the compound of the present invention.

Figure 2 illustrates carricillo chile almacigo, where the action of the compound of the present invention in plant development is appreciated.

DETAILED DESCRIPTION OF THE INVENTION The present invention relates to a soil bioregenerating compound which uses a zeolite-based composition as a carrier and catalyst to achieve this bioregenerative effect and soil remineralization and in turn through the use of nanotechnology. achieve a biotransfer of nutrients directly to the plant and make them available when it needs them, without saturating the soil or the plant, achieving an organic crop.

In this way the bioregenerating composition of agricultural soils of the present invention has remineralizing capacity, being composed of zeolite which is enriched with a composition comprising a large amount of biocomponents, as detailed below. The zeolite being a mineral in the family of crystalline aluminoailicates, has a cage-like structure, silicon and aluminum tetrahedra type, joined by shared oxygen atoms, which form open three-dimensional networks and are arranged in order size channels molecular, they present an excess of negative charge, as a consequence of the isomorphite substitution of Si ⁴⁺ by Al ³⁺ . These ions can be displaced by other substances such as ammonia and heavy metal ions, this phenomenon is known as cation exchange.

Some of the properties of zeolite are:

Oyster white

A zeolite whose composition is:

A zeolite that complies with this composition is the natural type zeolite, Clinoptilolite. Whose capacity for ion exchange is 120mep / 100gr. Clinoptilolite zeolite has been classified as a mineral suitable for human consumption.

Surprisingly, it has been found that the bioregenerating compound acts directly in the root zone of the plant, making available the required nutrients and biocomponents and that the plant needs for favorable development, because the composition comprises a mixture of zeolite in different sizes.

Preferably, the bioregenerating compound comprises a granulometry in which 20% to 40% of the zeolite has a fine size, less than 100 um, preferably 30%. In a preferred embodiment, the fines have been selected with a micronized particle size. Preferably, the micronized particles of zeolite pass through a mesh between number 100 to 400, preferably mesh between 150 to 300. Preferably the powdered zeolite comprises a mixture of different particle sizes.

More preferably, at least 25% of fines pass through a 200th mesh. Preferably the fines pass through a 400 mesh (particle size equal to or less than 38 um) between 15% and 18%. In a preferred manner the fine zeolite particles comprise size between 100 to 50 microns.

While the remaining 60-80% of the bioregenerating compound has a grain size between 1 to 2 mm. And more preferably of 1.00 and 0.18 mm. Preferably particles or grains that pass between 12 mesh and 80 mesh. Even more preferably the grains comprise a size of 1.5 mm.

Due to the size of the zeolite,. The inventor has surprisingly noticed that the biotransfer process, which allows the transfer of nutrients directly to the plant, is faster and more efficient, leaving the nutrients available to the plant, without these components and nutrients being lost. as in the case of agrochemicals, which is because the micronized zeolite is applied and is maintained directly in the root zone of the plant, favoring its development by immediately making available the nutrients it needs through the synthesis that the Micronized zeolite achieves, and the large-sized grain will gradually penetrate, achieving a supportive effect on the ground.

The micronized zeolite with the irrigation or rains is in turn transported down the field of cultivation, which helps to improve its permeability for the recovery of the water tables, thus achieving that this compound is environmentally friendly environment also promoting organic crops. In the nanotuneles of the zeolite these nutrients or blocomponents necessary for the plants can be stored, and due to an ionic-cationic transfer produced by the zeolite, they are transferred to the plant directly. The synthesis of the biocomponents and nutrients necessary for the plant is made easier, since these are directly and immediately available to the plant, without it having to synthesize them due to the particle size of the micronized zeolite, which carries the biocomponents, causing the plant to use less resources or energy to absorb them, since they are already synthesized, with which the plant develops more rapidly. The nutrients that are not absorbed by the plant are trapped in the zeolite being at your disposal, for when the plant requires them, which prevents the saturation of the soil or the plant and in turn the loss of them, thus preventing the contamination of the cultivated soil, achieving an organic crop.

Soil remineralization is achieved almost immediately by micronized zeolite, and is maintained in the long term by larger grain zeolite. The zeolite is also enriched with a mineralizing composition in conjunction with the biocomponents.

The zeolite due to its ionic-cationic effect, also manages to trap heavy metals and contaminants, pathogenic fungi, viruses, electro-negative elements, which are in the ground preventing them from being absorbed by the plant, thus allowing to clean the soil and achieving a full organic crop.

Soil bioregeneration is achieved by incorporating a mixture of zeolite (fines and grains) into a mixture of biocomponents comprising at least one mixture of microorganisms. To these biocomponents can be added other specifically selected substances, as can be seen below. The microbiology that is incorporated into the composition will catalyze plant growth, mineral solubilization, as well as atmospheric nitrogen fixation, causing the plant's natural defenses. Biofertilizers help plants better capture NPK.

The composition of biocomponents comprises a selection of minerals and other components that are necessary for the healthy development of the plant and soil conservation.

The biocomponent mixture is inoculated or deposited in the zeolite, which are trapped in the nanotuneles thereof. Upon depositing the composition to the soil to be regenerated, bacteria and biocomponents are expelled from the nanotuneles of the micronized zeolite, when it begins to absorb water, which is almost instantaneous, with the first irrigation or by moisture of the land itself, after placing the product in the field. The presence of moisture 10 allows the encapsulant or the biopolymer to break allowing reactivation of microorganisms, achieving their recovery in the soil and spreading rapidly in it, enriching and strengthening the presence of endemic microorganisms in the area. The inoculation of bacteria directly to the root zone of the cultures by means of the micronized zeolite of the present invention, causes bacterial colonies to be created more quickly in that area, the bacteria Atmospheric nitrogen fixers are responsible for producing the nitrogen necessary for plants naturally, so it is important to create colonies abundant enough to meet the demand required by the plant or crop.

Additionally, mycorrhizae are strengthened and generate their own phosphorus and solubilize it as well as potassium. They create a natural fertilization system, activating the plants and regenerating their natural protection system, thus creating a perfect systemic field and consequently a healthy land, and an organic production system.

The use of the bioregenerating compound of the present invention increases the presence of nitrogen fixing bacteria in the root zone of the plant or in the crop fields, improving it by about 10%, which improves nitrogen uptake, hydration of the land, by keeping the area moist by the collection and retention of water made by the zeolite, the bacteria and mycorrhizae maintain, preventing the water necessary to keep the microorganisms alive from being lost. If the humidity is maintained for a longer time, the stress of the plant is avoided due to lack of water, or lack of nutrients, avoiding the lack of vigor.

The soil bioregenerating compound of the present invention, in turn, allows the endemic bacteria of the soil to regenerate, since in turn it provides them with the means and nutrients necessary for their development.

In an alternative embodiment of the invention and to enhance the biotransference of the biocomponents to the soil and the plant, the zeolite is subjected to an activation process chemical, to activate it and ensure that it has an increased capacity to capture biocomponents. This activation process is known in the art, for example of the application ES 2071797. This would increase the biotransfer capacity of nutrients in a range of 25 to 30%, since the activated zeolite increases the size of the nanotuneles when opening the ^w cage "that composes the zeolite from 4 to 5.

The microorganisms used and selected are prepared in a concentrate, a non-pathogenic bacterial consortium, comprising bacteria, enzymes and amino acids, which are encapsulated in a natural, non-toxic and organic biopolymer, to be subsequently added to the zeolite. The encapsulation of the microorganisms contained in the concentrate is in a dormant-dormant state which allows the microorganisms to remain alive in a latent state while retaining their functionality when inoculated into the zeolite, so that the soil bioregenerating compound achieves that these microorganisms when deposited in the soil are reactivated when the encapsulating biopolymer dissolves, achieving the formation of pretended bacterial colonies. This encapsulation as already mentioned allows the microorganisms to survive, compared to the direct application of known compounds that are not encapsulated in the state of the art, since the microorganisms do not survive and their application is limited.

The enzymes are food grade, obtained from controlled fermentation, of a modified strain, not genetically from fungal cultures, which hydrolyzes in a form effective to proteins and starches and cellulosic material contained in the food.

The bioregenerating compound comprises a base concentrate, Formulation (1), which in liquid is added to the zeolite and comprises at least Azotobacter vinelandii and Clostridium pasteurianum with 300,000 ÜFC / ml each.

The base concentrate is applied in a proportion of at least 3 liters of base concentrate per ton of zeolite. Preferably 1 to 2 liters. Preferably, at least one liter of the base concentrate is inoculated by spraying on the zeolite.

In a preferred embodiment of the invention, the base concentrate further comprises another type of bacteria that can be selected from Nitrosomonas, Nitrobacter, Nitrococcus, Pseudomonas, Microccocus, Lactobacter, Thermoactinomycetes, Actinomycetes, Aspergillus, Lactobacillus, Bacillus subtilis, Basillus cereus, Basillus cereus, Basillus cereus, Basillus cereus, Basillus cereus, Basillus cereus, Basillus cereus, Basillus cereus thuringiensis, Basillus megaterium and Rhizobium, to favor the fixation of atmospheric nitrogen, and reproduction of nitrifying bacteria in the soil, promoting the rapid and effective development of bacterial colonies, which may be present up to 20% of the base concentrate. The concentrate may also contain cytokinin extracted from algae. Which are also encapsulated by the biopolymer to keep you in a dormant state.

The base concentrate also includes other biocomponents, such as nutrients, vitamins, minerals and enzymes. The proportions of these may vary according to the requirements of each type of soil, however, the following are preferred. The base concentrate can be combined with at least one of the following biocoponents: Aloe vera extract, molasses, fermenting agents, chitosan, microelements, macroelements and other biocomponents and biostimulants.

Preferably, the base concentrate is combined with a liquid composition of between 90 to 75%, said composition comprising: up to 80% of Aloe vera extract, molasses and fermenting agents in 19-20%. In a preferred composition, it can also comprise chitosan in 1%.

Said liquid composition additionally comprises:

As macroelements are selected from Nitrogen, Potassium, Phosphorus, Calcium, Magnesium, Sulfur.

As microelements comprising B, Zn, Mn, Fe, Cu, Mo, Co and Se.

As biocomponents comprising Aloin, Amino Acids, Polysaccharides, among others such as salicylic acid and saponins.

As biostimulants comprising monosaccharides, polysaccharides, amino acids, phospholipids, anthraquinones, enzymes and vitamins.

The use of aloe vera in the soil bioregenerating compound of the present invention, allows the soil's own endemic bacteria to be reactivated, since it provides them with the necessary means and nutrients for their development. Additionally, other fermenting agents and molasses promote the development of microorganism colonies. The base concentrate that contains the microorganisms and that encapsulates them, comprises an immobilizing liquid of microorganisms, of 100% organic extracts containing polypeptides, polysaccharides and carbohydrates.

Regardless of whether each type of soil is different, and each crop has a specific nutrient requirement, the composition of the present invention has demonstrated a high degree of adaptability to any type of crop and soil, since this composition regenerates the nutritional components of the Soil in a natural way, where it is being cultivated, making the necessary nutrients available to the crops, which the plant takes with minimal effort.

The colonization process will last 3 to 5 weeks (depending on the application dose, soil type, fertility, humidity and temperature) when the colonies have been established, the soil will have a wide variety of microorganisms both aerobic, anaerobic cornofacultative own of a fertile soil.

An optimal application in the irrigation system will achieve a faster colonization, observing results even within 10-25 days after application. Once the soil has recovered the living and active part of its organic matter through the colonization of microorganisms, it will present better physical-chemical conditions and the microorganisms will work directly and indirectly in the fixation of atmospheric nitrogen, mineralization and solubilization of fertilizers and other nutrients from the soil are of organic or mineral origin. All these processes will be carried out at a higher speed because the exchange capacity of microorganisms is more efficient and constant when they are immobilized by the formula.

It has been shown that this bioregenerating compound, in an alkaline soil, which has a bactericidal effect, helps to control the pH in a natural way, managing to stabilize the soil, nourish it and supply it with water, doing, as already mentioned that the microorganisms survive , reproduce and regenerate the soil, being protected by the zeolite of this compound. Ά the time that with this invention it is possible to give the nutrients in time and form to the crops.

The use of this bioregenerating compound manages to decontaminate the field or soil where agrochemicals have been used, achieving organic cultivation fields.

Uses and phases of application of the bioregenerating compound.

The bioregenerating compound of the present invention can be applied in phases during the culture cycle, as follows:

1) Prior to planting, and during planting or at the beginning of the cycle in existing crops.

2) Prior to flowering (pre-flowering).

3) Prior to filling the fruits.

In phase 1, it is preferred to make a first application with a first dose of the bioregenerating compound at the time of sowing or starting the cycle. Phase 2. Prior to flowering (pre-flowering) a second application of the bioregenerating compound is performed, with a second dose.

Phase 3. Filling the fruits. A third application of the bioregenerating compound is made, with a third dose.

The application of the bioregenerating compound should be as close to the seed or the root zone of the plant, either by manual or mechanical means. Always providing moisture (irrigation) so that microorganisms and biocomponents travel and reproduce quickly and properly. Preferably it should be applied around the plant and not in one place. The deposition of the composition on the crop field can be superficial, applied for example by boleo. Although depending on the type of crop can be deposited at a predetermined depth, which ranges between 5 to 10 cm.

In one embodiment of the invention in the application of the bioregenerating compound, the concentrate is adaptable to the needs of each type of crop or planting by modifying the concentrations or composition of the biocomponent concentrate, as explained below.

In this way, a bioregenerating compound that will comprise the biocomponents that the plant most needs to generate the colonies of microorganisms, potentiated and enriched by the product and comprise the following formulation (2):

Micronized Zeolite from 20 to 40%; 80 to 60% granular zeolite; Y

Concentrate comprising:

10 to 25% base concentrate;

A liquid solution of 90 to 75% comprising Aloe vera extract, up to 80%, molasses and fermenting agents in 19%, and chitosan 1%,

Macroelements comprise Nitrogen at least 15%, Potassium 1.30%, Phosphorus 1.30%, Calcium 4.50%, Magnesium 1.50%, Sulfur 1%; Y

Microelements such as B, Zn, Mn, Fe, Cu, Mo and Co, less than 100 ppm, and

Biocoraponents comprises 5% Aloin, 0.22% 3% Polysaccharides, among others, such as salicylic acid and saponins.

An additional composition in another embodiment of the bioregenerating compound is enriched with other new biocomponents and biostimulants that reinforce already worked areas, comprising minerals and nutrients, thus the bioregenerating compound comprises the following formulation (3):

Micronized zeolite from 20 to 40%, granular zeolite from 80 to 60%.

Concentrate comprising: 10 to 25% base concentrate;

A liquid solution of 90 to 75% comprising the following composition at 2%: Aloe vera extract,

»Nitrogen 3.5%, Potassium 1.3%, Phosphorus 0.90%,

Calcium 4.50%, Magnesium 0.30%, Sulfur 0.20% and microelements such as B, Zn, Mn, Fe, Cu, Mo, Co and Se less than 100 ppm, and biostimulants such as Monosaccharides and Polysaccharides: it comprises at least fructose, maltose, sucrose , galacturonic acid, glucoronic acid and manuronic acid; Amino acids comprise at least L-alginine. L-asparagine, L-serine, L-alanine and L-phenylamine; phospholipids comprise at least choline and inositol; anthraquinones comprising at least aloeic acid, cinnamic acid, salicylic acid, aloin; Enzymes such as amylases, catalases, cellulases, phosphatase and lipase and vitamins comprise A, Bl, B2, B3, B6, B9, B12, C and E.

An alternate modality of the bioregenerating compound that improves the plant's growth and vigor process, increasing the availability and utilization of plant nutrients comprises (formulation 4) the following proportions:

Micronized zeolite from 20 to 40%, granular zeolite from 80 to 60%.

Concentrate comprising: 10 to 25% base concentrate;

A liquid solution comprising Aloe vera extract, up to 80%, molasses and 20% terming agents, and macroelements comprises 1.65% Nitrogen, Potassium

1.30%, Phosphorus 1.30%, Calcium 4.50%, Magnesium 1.50%, microelements such as B, Zn, Mn, Fe, Cu, Mo, Co and Se, less than 100 ppm, and i Biocomponents comprises 5% Aloin, 3% Amino Acids

0.22% polysaccharides, among others such as salicylic acid and saponins.

The bioregenerating compound object of the present invention can be applied in the following way to the cultivation fields, using its base formulation (formulation 1) or modalities of formulations (formulations 2 to 4), according to the specific conditions of each crop.

Preferably, in order to achieve soil regeneration, the soil bioregenerator compound with formulation 1 has been used at all stages of the crop cycle (sowing, pre-flowering and filling).

In other types of crops it has been preferred to use the soil bioregenerator compound using the different compositions or formulations thereof, using one or more of them during or at different stages or phases of the crop cycle. For example, in a crop, formulation 1 can be used for sowing, formulation 2 and / or 3 for pre-flowering, and formulation 4. for filling Type of applications can be adapted depending on the type of crop and its conditions.

The application of the compound of the present invention is applied between 250 to 1200 kg per hectare (kg / Ha). Preferably, 250 to 500 kg / Ha is applied. In a particular embodiment, the application of between 10 and 30 gr per plant is preferred.

In citrus fruits, such as orange and lemon trees, it can be applied up to 75 gr per plant. In larger trees such as avocado, concentrations from 250 gr to 2 kg have been tested with very good results.

In annual crops (grains such as corn, wheat, barley, sorghum, etc.) A minimum of 100 kilos per hectare at the beginning and two partial applications of 100 kilos / Ha each.

In perennial crops (alfalfa, grass, etc.): A minimum of 300 kilos per hectare at the beginning and quarterly applications of 300 kilos / Ha.

In short-cycle vegetables (lettuce, squash, etc.): It is recommended to use 500 kilos per hectare as follows: 100 kilos at the beginning and 200 kilos in a second and third application.

In intermediate cycle vegetables (garlic, onion, carrot, etc.): It is recommended to apply 500 kilos per hectare as follows: 200 kilos at the beginning and three applications of 100 kilos every 3 weeks.

In high-yield crops: It is recommended to apply 500 kilos to one ton per hectare as follows: 300 to 500 kilos at the beginning and two applications of 100 to 250 kilos every 3 weeks. In fruit trees: It is recommended to apply from 300 kilos to 1200 kg, in two or three applications depending on the size of the tree.

Benefits of using the bioregenerating compound of the present invention:

• Fix atmospheric nitrogen in a non-symbiotic way and through aerobic or anaerobic periods.

^■ Promote the complete nitrogen cycle.

• Release phosphorus, potassium and minor elements so that they are usable.

• Increase the capacity of cationic soil-plant exchange.

• Restore the microbiological balance of the soil.

• Produce important biological substances of plant growth and pathogen control.

• To favor a balanced soil-plant diet and therefore a greater genetic expression in production and quality.

• Improve soil structure and fertility.

• Promote environmental care.

• Improves the process of growth and vigor of plants.

• It is 100% organic.

• By releasing agrochemical components from the soil, it bioregenerates to achieve organic crops.

• It significantly increases the density of plants that will be born with greater vigor and synchrony. • Increases the amount of micro-biological and organic matter in the soil.

• Increases the availability and utilization of nutrients.

• Promotes cation exchange capacity by increasing soil permeability and Ph, achieving a better recovery of groundwater.

• Increases and promotes flowering, increases the biomass of the plants causing a greater precocity of the fruit, increasing the size, improves its coloring process, increases its sugar and vitamin content.

• Stimulates the creation of chlorophyll.

The soil bioregenerator compound can be prepared as follows.

1) Provide micronized and grained zeolite,

2) Prepare a liquid base concentrate comprising at least Azotobacter vinelandii and Clostridium pasteurianum with 300,000 CFU / ml each of 10% to 25%.

3) Apply the base concentrate to the zeolite while maintaining constant stirring in a mixer.

The step of providing micronized zeolite comprises providing zeolite with particle size less than 100 um It preferably comprises from 20% to 40% of the zeolite less than 100 um, preferably 30%. Preferably, the micronized particles of zeolite pass through a mesh between number 100 to 400, preferably mesh between 150 to 300. Preferably the powdered zeolite comprises a mixture of different particle sizes.

Zeolite in grains is supplied with a size between 1 and 2 mm. Preferably it is provided between 60% -80%. More preferably of 1.00 and 0.18 mm. Preferably particles or grains that pass between 12 mesh and 80 mesh. Even more preferably the grains comprise a size of 1.5 mm.

The base concentrate is applied in a proportion of at least 3 liters of base concentrate per ton of zeolite. Preferably, the spray concentrate is applied to the zeolite while maintaining constant stirring in a mixer. Preferably in a proportion of 1 to 2 liters of base concentrate per ton of zeolite, and more preferably 1 liter per ton.

The base concentrate can also be added up to 20% of other bacteria that can be selected from Nitrosomonas, Nitrobacter, Nltrococcus, Pseudomonas, MicroccocuS _f Lactobacter, Thermoactinomycetes,

Actinomycetes, Aspergillus, Lactobacillus, Bacillus subtilis, Basillus cereus, Basillus thuringiensis, Basillus megaterium and Rhizobium. The concentrate may also contain cytokinin extracted from algae.

The microorganisms used and selected are prepared in a concentrate, a non-pathogenic bacterial consortium, comprising bacteria, enzymes and amino acids, which are encapsulated in a natural, non-toxic and organic blopolymer.

Preferably, the base concentrate is combined with a liquid composition of between 90% to 75%, said composition comprising: up to 80% of Aloe vera extract, molasses and fermenting agents in 19% -20%. In a preferred composition, it can also comprise chitosan in 1%.

Said liquid composition additionally comprises:

As macroelements comprising B, Zn, Mn, Fe, Cu, Mo, Co and Se.

An alternate concentrate (formulation 2) comprising: 10% to 25% base concentrate;

Liquid solution from 90% to 75% comprising Aloe vera extract, up to 80%, molasses and fermenting agents in 19%, and chitosan 1%;

The Macroelements comprise Nitrogen at least 15%, Potassium 1.30%, Phosphorus 1.30%, Calcium 4.50%, Magnesium 1.50%, Sulfur 1%; Y

Microelements such as B, Zn, Mn, Fe, Cu, Mo and Co, less than 100 ppm.

The Biocomponents comprise 5% Aloin, 0.22% 3% Polysaccharides, among others, such as salicylic acid and saponins.

An additional composition of the Concentrate (formulation 3) comprises:

10% to 25% base concentrate;

Liquid solution from 90% to 75% comprising the following composition at 2%:

Aloe Vera extract

Nitrogen 3.5%, Potassium 1.3%, Phosphorus 0.90%, Calcium 4.50%, Magnesium 0.30%, Sulfur 0.20% and microelements such as B, Zn, Mn, Fe, Cu, Mo, Co and Se less than 100 ppm,

Biostimulants such as monosaccharides and polysaccharides: it comprises at least fructose, maltose, sucrose, galacturonic acid, glucoronic acid and manuronic acid; Amino acids comprise at least L-alginine. L-asparagine, L- serine, L-alanine and L-phenylamine; phospholipids comprise at least choline and inositol; anthraquinones comprising at least aloeic acid, cinnamic acid, salicylic acid, aloin; Enzymes such as amylases, catalases, cellulases, phosphatase and lipase and vitamins comprise A, Bl, B2, B3, B6, B9, B12, C and E.

An alternate modality of the Concentrate (formulation 4) comprises:

10% to 25% base concentrate;

Liquid solution comprising Aloe vera extract, up to 80%, molasses and fermenting agents by 20%,

The macroelements comprise Nitrogen 1.65%, Potassium 1.30%, Phosphorus 1.30%, Calcium 4.50%, Magnesium 1.50%,

microelements such as B, Zn, Mn, Fe, Cu, Mo, Co and Se, less than 100 ppm, and

The Biocomponents comprise Aloina 5%, Amino Acids 3% Polysaccharides 0.22%, among others such as salicylic acid and saponins.

As already mentioned, the base concentrate or the modified concentrate in formulations 2 to 4 is applied in 31 / ton of zeolite, preferably from 1 to 2 1 / ton and even more preferably from 1 1 / ton of zeolite

The biotransference of nutrients in crop fields the inventor has shown to be highly efficient by means of using the bioregenerating compound of the present invention and in turn, which levels the pH thereof, is used as a heavy metal trap, being able to be used as a molecular sieve and alkaline buffer. Biotransfer of nutrients is achieved because the zeolite has approximately 11 km of nanotunnels in 1 cm ³ .

It has been shown that with the composition of the bioregenerating compound of the present invention biotransfer is enhanced because the fine particle zeolite potentiates the biotransmitter effect by having more nanotunnels exposed than the grains and thereby obtaining the effect of the bioregenerator in the soil, ensuring that microorganisms survive, develop rapidly and achieve soil functionality again. The use of the zeolite allows to achieve a catalytic effect and allows the minerals and biocomponents to be permanently available for biotransfer so that the flat takes it at any time obtaining that the plants develop much better, which achieves a synergistic effect between the use of biocomponents (minerals, bacteria, enzymes, etc.) with the zeolite, since its effect is potentiated, since the use of the bacteria alone cannot regenerate the soil in the short term since they are not prepared and do not have a support that keeps them alive and available to make the colonies, and in the same way the zeolite does not by itself condition the soil, in this way the inventor found that the combination of different sizes of zeolites, and specific biocomponents it manages to regenerate the soil quickly and efficiently, without the use of agrochemicals, causing the colonies of bacteria to be maintained and functional. for the soil and with which a biotransference of nutrients from effective and sustained way, potentiating the effects of the biocomponents used, carrying out a synchronized biofertilization, by making available to the plant all the biocomponents necessary for its development at the right time, thus obtaining a healthy crop, without the use of agrochemicals , so it is 100% organic.

The ionic-cationic effect of biotransference also achieved thanks to the micronized zeolite and sustained by the granular zeolite of the present bioregenerating compound, performs the additional function of maintaining the biocomponents that are not absorbed by the flat at their disposal, making the soil not saturates, unlike other agrochemical fertilizers.

EXAMPLES

Example 1. Corn

In corn crops the evaluation of the bioregenerating compound of the present invention (compound 1-formulation 1), compared with other compounds was carried out and the measurement of the following parameters, germination percentage, flowering dates, was carried out. plant height, cob height, percentage of spike coal, percentage of rust, percentage of acame (cogollero worm), corn weight and grain yield.}

The compounds used and their results are shown below.

Table 1: Fertilizer compounds or agromejorators used

The methodology consisted of:

1. Apply fertilizers, prior to planting, in three different growing areas for each compound.

2. Perform sowing.

3. Germination sampling. The plant outbreak was reported as a percentage.

4. Sampling of cogollero worm (Spodoptera frugiperda).

The cogollero worm is of tropical origin and affects almost all the producing areas, it attacks with more rigor the late sowings in the coasts and the warm regions of irrigation. Less infested are the cornfields of the highlands. This pest is considered the most important of the corn in Mexico, the losses caused by the insect can reach up to 60 percent.

5. Sample of rust [Uromyces phaseoli typica Arth.) Rust, known as "canelilla", "chahuixtle", "rust", "zaratán" or "brick" is considered as one of the main limiting factors in the production of some Crops like beans and corn.

6. Cultivation. The yield of the crop was measured.

Table 2: Results of the tests and show them according to products, on average, of the different crops tested.

As can be seen, the germination percentage achieved using compound 1 (B) of the present invention was 94%, 2.6% above the control. Although very similar to the value obtained with mixture 1 (C) or mixture 2 (D), with which the efficiency of the bioregenerating compound is checked, without the need to add additional components since as in compound D (MIX 2) which includes compound 1 (B), hydrogel and mixture 1, only the difference is 1.5%.

Similarly, the incidence of the cogollero worm was decreased by 4.2% compared to the control and 9.2% if applied with other compounds, which shows that compound 1 (B) regenerates the plant's natural defenses to the plagues With which it has also been determined that it can be mixed with other compounds to achieve greater effectiveness in areas where the pest is very recurrent. Similar situation regarding the appearance of the rust, where it was found that compound 1 (B) has one of the lowest values, 11% below the control. In this way the resistance to the attack of cogollero worm is positive since it influences a more nourished plant with more turgid leaves and does not show susceptibility to the attack, and already in mixture with the other treatments we can observe that it still behaves much better, the incidence The attack is much smaller compared to the witness.

As for the height of the plant and the location of the cob, compared to the control, a better performance is noted, where the plant grew 20 cm more than the control and the ears were located 10 cm taller.

As for the weight of the ear compared to the control, an increase of 100 gr was achieved, and if it is applied with other compounds it is very similar, varying on average of 2 gr. The use of mixture D obtained better ear growth performance but does not combat worm or rust, so the use of agrochemicals in combination with the compound of the present invention is not recommended as the yield of the compound of the present is low invention, also stop being organic.

As a conclusion of this sowing, a grain yield was found as follows on average.

Table 3: corn grain yield

Whereby the yield of compound 1 (B) is almost 1 ton 950 kg per hectare of planting, compared to the control and on average greater than the mixture D.

Similarly, the development of the plant can be seen remarkably in Figure 1, where the growth of the roots of corn plants according to the different compounds tested is shown, where the root of compound 1 (B) has one more root compact, and with the most developed root zone, which shows that the root did not have nutrient shortages, because it found them very close to it, unlike the other roots that are longer, a sign that they had to look for more nutrients away from them.

EXAMPLE 2. ALFALFA

In a second crop compound 1 was tested, in the alfalfa culture the results shown in table 4 were obtained. The application was 500 kg per hectare, in application per boleo. In two demonstration plots of half a hectare each.

Table 4: Green matter yield grown in alfalfa

As can be seen compared to the control, the use of compound 1 achieved that alfalfa cultivation achieved an increase of almost 1.5 tons per hectare of cultivation.

Additionally, it was observed that the plant maintained a much higher vigor, turgidity, and density compared to the control.

Bjeoplo 3 Chiles

The bioregenerating compound of the present invention was tested in different chili crops and the results shown in Table 5 were obtained.

The application was done in phases, applying 400 kg per hectare of the formulation 1 to 4, in manual application, at plant level. In productive plots comprising 25 hectares.

Formulation 1 was applied at the beginning of germination and transplantation at sowing, 100 kg / Ha.

Formulation 2 was applied 4 to 5 weeks after transplantation. 100 kg / Ha.

Formulation 3 was applied 10 to 12 weeks after transplantation. 100 kg / Ha.

Formulation 4 was applied 20 to 22 weeks after transplantation. 100 kg / Ha.

Table 5: Yield in chili crops.

38

In the Serrano Chile Cultivation, the plant had a half-life of the plant that allowed to obtain a maximum of 6 harvests, with the application of the bioregenerating compound of the present invention it has been possible to increase the life of the plant so that it can be harvest 9 times, increasing almost 55% more. Some plants that are still alive have been left and it has been observed that they begin their flowering cycle to prepare in their productive stage awaiting their evaluation in the next cycle.

As can be seen in figure 2, the application of the compound of the present invention in the germination effect in carricillo chili crops, in almacigo, in a) it can be seen that they are completely full, with healthy plants, in where the density of sprouted plants is total, while in the control, shown in b) it is appreciated that some drawers were less than half in the sprouted, with reduced size plants, and the density is low, compared to the that the composition of the present invention was applied. For the germination of the seedlings the boleo formulation 1 was used, with a load of approximately 500 kg to achieve seedlings for transplantation for a density of 50 Ha, which demonstrates that in crops prepared by this technique, the effect, and the use of the bioregenerating compound to achieve organic crops is maximized.

Claims

1. Soil bioregenerative compound comprising:

to. A portion of micronized zeolite that comprises between 20 to 40%,

b. A portion of granular zeolite that comprises between 60 to 80%, and

c. A biocomponent concentrate comprising at least Azotobacter vinelandíí and Clostridium pasteurianum with at least 300,000 CFU/ml inoculated into the zeolite portions.

2. The compound of claim 1 wherein the micronized zeolite portion comprises a particle size between 100 and less than 38 um.

3. The compound of claim 2 wherein the micronized zeolite portion comprises a particle size between 100 and 50 um.

4. The compound of claim 3 wherein the micronized zeolite portion comprises a particle size of less than 100 μm.

5. The compound of claim 4 wherein the micronized zeolite portion comprises a particle size equal to or less than 38 um.

6. The compound of claim 1 wherein the micronized zeolite portion comprises at least 30%.

7. The compound of claim 6 wherein the micronized zeolite portion comprises a mixture of different sizes.

8. The compound of claim 7 wherein the micronized zeolite portion comprises at least between 15 and 18% micronized zeolite with a particle size less than or equal to 38um.

9. The compound of claim 7 wherein the micronized zeolite portion comprises at least 25% micronized zeolite with a particle size that passes through a number 200 mesh.

10. The compound according to any of claims 1 to 9 wherein the granular zeolite portion comprises at least 70%.

11. The compound of claim 10 wherein the granular zeolite portion comprises a particle size between 1 to 2 mm.

12. The compound of claim 11 wherein the granular zeolite portion comprises a particle size of 1.5 mm.

13. The compound of claim 10 wherein the micronized zeolite portion comprises at least 70% micronized zeolite with a particle size that passes through a number 20 mesh.

14. The compound according to any of claims 1 to 13 wherein the micronized zeolite and granular zeolite comprise clinoptilolite zeolite.

15. The compound according to any of claims 1 to 14 characterized in that the concentrate further comprises any of the following bacteria Nitrose-monas, Nitrobacter, Nitrococcus, Pseudomonas, Microccocus, Lactobacter, Termoactinomycetes, Actinomycetes, Aspergillus, Lactobacillus, Bacillus subtilis, Basillus cereus, Baslllus thuringiensis, Basillus megaterixm, Rhizobium.

16. The compound of claim 15 characterized in that the aforementioned bacteria comprise up to 20% in the concentrate.

17. The compound according to any of claims 1 to 16 wherein the concentrate comprises an encapsulator of the microorganisms.

18. The compound according to any of claims 1 to 17, wherein the microorganism encapsulator is a natural, non-toxic and organic biopolymer.

19. The compound according to any of claims 1 to 18 wherein the biocomponent concentrate further comprises at least one of vitamins, minerals, enzymes, biostimulants, macroelements and microelements.

20. The compound of claim 19 characterized in that the concentrate further comprises Cytokinin extracted from algae.

21. The compound according to any of claims 1 to 20 characterized in that the biocomponent concentrate comprises 10 to 25% and 90 to 75% of a solution comprising aloe vera extract.

22. The compound of claim 21 characterized in that the aloe vera extract comprises up to 80% of the solution.

23. The compound of claim 22 characterized in that the solution further comprises molasses and fermenting agents.

24. The compound of claim 23 characterized in that molasses and fermenting agents are present at 19%

25. The compound of claim 22 characterized in that the solution further comprises chitosan.

26. The compound of claim 25 characterized in that chitosan is present at 1%.

27. The compound of claim 22 characterized in that the solution also comprises Macroelements that include Nitrogen, Potassium, Phosphorus, Calcium, Magnesium, Sulfur and other microelements such as B, Zn, Mn, Fe, Cu, Mo, Co and Se.

28. The compound of claim 27 characterized in that the solution comprises Nitrogen at least 15%, Potassium 1.30%, Phosphorus 1.30%, Calcium 4.50%, Magnesium 1.50%, Sulfur 1%;

29. The compound of claim 28 characterized in that the Microelements such as B, Zn, Mn, Fe, Cu, Mo and Co, comprise less than 100 ppm,

30. The compound of claim 29 characterized in that the solution also comprises as Biocomponents Aloin 5%, Amino acids 3% Polysaccharides 0.22%, among others such as salicylic acid and saponins.

31. The compound of claim 21 characterized in that the 2% solution comprises: Aloe vera, Nitrogen 3.5%, Potassium 1.3%, Phosphorus 0.90%, Calcium 4.50%, Magnesium 0.30%, Sulfur 0.20% and microelements such as B, Zn, Mn, Fe, Cu, Mo, Co and Se less than 100 ppm, and

32. The compound of claim 31 characterized in that the 2% solution also comprises biostimulants such as Monosaccharides and polysaccharides: selected from fructose, maltose, sucrose, galacturonic acid, glucuronic acid and mannuronic acid; amino acids comprising at least L-alginine. L-asparagine, L-serine, L-alanine and L-phenylamine; phospholipids comprising at least choline and inositol; anthraquinones comprising at least aloetic acid, cinnamic acid, salicylic acid, aloin; enzymes such as amylases, catalases, cellulases, phosphatase and lipase and vitamins comprise A, Bl, B2, B3, B6, B9, B12, C and E.

33. The compound of claim 23 characterized in that the solution comprises 20% molasses and tempting agents.

34. The compound of claim 33 characterized in that the solution also comprises macroelements that include Nitrogen 1.65%, Potassium 1.30%, Phosphorus 1.30%, Calcium 4.50%, Magnesium 1.50%, microelements such as B, Zn, Mn, Fe, Cu , Mo, Co and Se, less than 100 ppm, and Biocomponents that include Aloin 5%, Amino acids 3% Polysaccharides 0.22%, among others such as salicylic acid and saponins.

35. Method for preparing a soil bioregenerative compound that includes

to. Provide micronized zeolite and grains,

b. Prepare a liquid base concentrate comprising at least Azotobacter vinelandii and Clostridium pasteurianum with 300,000 CFU/ml each of 10% to 25%, and

c. Apply the base concentrate to the zeolite while maintaining constant agitation in a mixer.

36. The method of preparing a soil bioregenerative compound according to claim 35 wherein the step of providing micronized zeolite comprises providing zeolite with a particle size less than 100 um.

37. The method of preparing a soil bioregenerative compound according to claim 36 wherein the step of providing micronized zeolite comprises providing 20% to 40% of the zeolite.

38. The method of preparing a soil bioregenerative compound according to claim

37 where the step of providing micronized zeolite comprises 30%.

39. The method of preparing a soil bioregenerative compound according to claim

38 wherein the step of providing micronized zeolite comprises providing micronized zeolite particles that pass through a mesh between number 100 to 400, preferably mesh between 150 to 300.

40. The method of preparing a soil bioregenerative compound according to claim 35 wherein the step of providing micronized zeolite comprises providing a mixture of different particle sizes.

41. The method of preparing a soil bioregenerative compound according to claim

40 wherein the step of providing micronized zeolite comprises providing a mixture of different particle sizes that pass through a mesh number 200 with at least 25% fines.

42. The method of preparing a soil bioregenerative compound according to claim

41 where the step of providing micronized zeolite comprises providing a mixture of different particle sizes that pass through a 400 mesh (particle size equal to or less than 38 um) between 15% and 18%.

43. The method of preparing a soil bioregenerative compound according to claim

42 where the step of providing micronized zeolite comprises providing a mixture of different sizes of particle that comprises a size between 100 to 50 microns.

44. The method of preparing a soil bioregenerative compound according to any of claims 35 to 43 wherein the step of providing zeolite grain is provided with a size between 1 and 2 nuil.

45. The method of preparing a soil bioregenerative compound according to claim

44 where the step of providing zeolite grain is preferably provided between 60-80%.

46. The method of preparing a soil bioregenerative compound according to claim

45 where the step of providing zeolite grain is preferably provided at 1.00 and 0.18 mm.

47. The method of preparing a soil bioregenerative compound according to claim

46 where the step of providing zeolite grain is preferably provided particles or grains that pass between 12 mesh and 80 mesh.

48. The method of preparing a soil bioregenerative compound according to claim 44 wherein the step of providing zeolite in grain is provided. Even more preferably, the grains comprise a size of 1.5 mm.

49. The method of preparing a soil bioregenerative compound according to any of claims 35 to 48 wherein the step of providing the base concentrate involves inoculating a proportion of at least 3 liters of base concentrate per ton of zeolite.

50. The method of preparing a soil bioregenerative compound according to claim 49 wherein the step of providing the base concentrate comprises inoculating a portion of the concentrate of between 1 to 2 liters per ton of zeolite,

51. The method of preparing a soil bioregenerative compound according to any of claims 35 to 48 wherein the step of providing the base concentrate comprises inoculating 1 liter per ton.

52. The method of preparing a soil bioregenerative compound according to any of claims 35 to 51 wherein the micronized zeolite and the granular zeolite comprise clinoptilolite zeolite.

53. The method of preparing a soil bioregenerative compound according to any of claims 35 to 52, characterized in that the concentrate also comprises any of the following bacteria Nitrosomonas, Nitrobacter, Nitrococcus, Pseudomonas, Microccocus, Lactobacter, Termoactinomycetes, Actinomycetes, Aspergillus , Lactobacillus, Bacillus subtilis, Basillus cereus, Basillus thuringiensis, Basillus megaterium, Rhizobium.

54. The method for preparing a soil bioregenerative compound according to claim 53, characterized in that the aforementioned bacteria comprise up to 20% in the concentrate.

55. The method of preparing a soil bioregenerative compound according to any of claims 35 to 54 wherein the concentrate comprises an encapsulator of the microorganisms.

56. The method of preparing a soil bioregenerative compound according to any of claims 35 to 57, wherein the microorganism encapsulator is a natural, non-toxic and organic biopolymer.

57. The method of preparing a soil bioregenerative compound according to any of claims 35 to 56 wherein the biocomponent concentrate also comprises at least one of vitamins, minerals, enzymes, biostimulants, macroelements and microelements.

58. The method for preparing a soil bioregenerative compound according to claim 57, characterized in that the concentrate also comprises Cytokinin extracted from algae.

59. The method for preparing a soil bioregenerative compound according to any of claims 35 to 58, characterized in that the biocomponent concentrate comprises 10 to 25% and 90 to 75% of a solution comprising aloe vera extract.

60. The method for preparing a soil bioregenerative compound according to claim 59, characterized in that the aloe vera extract comprises up to 80% of the solution.

61. The method of preparing a soil bloregenerator compound according to claim 60, characterized in that the solution also comprises molasses and fermenting agents.

62. The method of preparing a soil bioregenerative compound according to claim 61 characterized in that molasses and fermenting agents are present at 19%.

63. The method of preparing a soil bioregenerative compound according to claim 59, characterized in that the solution also comprises chitosan.

64. The method for preparing a soil bioregenerative compound according to claim 64 characterized in that chitosan is present at 1%.

65. The Method for preparing a soil bioregenerative compound according to claim 59 characterized in that the solution also comprises Macroelements that include Nitrogen, Potassium, Phosphorus, Calcium, Magnesium, Sulfur and other microelements such as B, Zn, Mn, Fe, Cu, Mo, Co and Se.

66. The compound d The method of preparing a soil bioregenerative compound according to claim 65 characterized in that the solution comprises Nitrogen at least 15%, Potassium 1.30%, Phosphorus 1.30%, Calcium 4.50%, Magnesium 1.50%, Sulfur 1 %;

67. The Method for preparing a soil bioregenerative compound according to claim 66 characterized in that the Microelements such as B, Zn, Mn, Fe, Cu, Mo and Co, comprise less than 100 ppm,

68. The Method for preparing a soil bioregenerative compound according to claim 67 characterized in that the solution also comprises as Biocomponents Aloin 5%, Amino Acids 3% Polysaccharides 0.22%, among others such as salicylic acid and saponins.

69. The Method for preparing a soil bioregenerative compound according to claim 58 characterized in that the 2% solution comprises: Aloe vera, Nitrogen 3.5%, Potassium 1.3%, Phosphorus 0.90%, Calcium 4.50%, Magnesium 0.30%, Sulfur 0.20% and microelements such as B, Zn, Mn, Fe, Cu, Mo, Co and Se less than 100 ppm, and

70. The method of preparing a soil bioregenerative compound according to claim 69 characterized in that the 2% solution also comprises biostimulants such as monosaccharides and polysaccharides: selected from fructose, maltose, sucrose, galacturonic acid, glucuronic acid and acid manuroonic; amino acids comprising at least L-alginine. L-asparagine, L-serine, L-alanine and L-phenylamine; phospholipids comprising at least choline and inositol; anthraquinones comprising at least aloetic acid, cinnamic acid, salicylic acid, aloin; enzymes such as amylases, catalases, cellulases, phosphatase and lipase and vitamins comprise A, Bl, B2, B3, B6, B9, B12, C and E.

71. The method for preparing a soil bioregenerative compound according to claim 58, characterized in that the solution comprises 20% molasses and thermal agents.

72. The Method for preparing a soil bioregenerative compound according to claim 71 characterized in that the solution also comprises macroelements that include Nitrogen 1.65%, Potassium 1.30%, Phosphorus 1.30%, Calcium 4.50%, Magnesium 1.50%, microelements such as B , Zn, Mn, Fe, Cu, Mo, Co and Se, less than 100 ppm, and Biocomponents that include Aloin 5%, Amino acids 3% Polysaccharides 0.22%, among others such as salicylic acid and saponins.

73. A process for the bioregeneration of soils that comprises applying the bioregenerative compound of any of claims 1 to 34 to the soil.

74. The soil bioregeneration process according to claim 73 which comprises applying the bioregenerative compound to the soil at least once.

75. The soil bioregeneration process according to claim 73 which comprises applying at least 250 kg/ha of soil.

76. The soil bioregeneration process according to claim 73 which comprises applying between 250 kg to 1200 kg per hectare of soil.

77. The soil bioregeneration process according to claim 73 which comprises applying the bioregenerative compound to the soil at least once.

78. The soil bioregeneration process according to claim 77 which comprises applying the bioregenerative compound to the soil at least four times.

79. The soil bioregeneration process according to claim 73 which comprises applying the bioregenerative compound at least once to the soil of any of claims 1 to 20.

80. The soil bioregeneration process according to claim 73 which comprises applying the bioregenerative compound at least once to the soil of any of claims 21 to 30.

81. The soil bioregeneration process according to claim 73 which comprises applying the bioregenerative compound at least once to the soil of any of claims 31 to 35.