BR102021010090A2 - INTEGRATED MANAGEMENT/MONITORING SYSTEM, LOCAL/REMOTE BY ARTIFICIAL INTELLIGENCE APPLIED TO ANIMAL BREEDING IN THE AQUACULTURE SECTOR, AND RESPECTIVE EQUIPMENT AND OPERATIONAL PROCESSES APPLIED TO EACH FUNCTIONAL MODULE OF THIS SYSTEM - Google Patents

Abstract

“INTEGRATED MANAGEMENT/MONITORING SYSTEM, LOCAL/REMOTE BY ARTIFICIAL INTELLIGENCE APPLIED IN THE BREEDING OF ANIMALS IN THE AQUACULTURE SECTOR, AND THE RESPECTIVE EQUIPMENT AND OPERATIONAL PROCESSES APPLIED TO EACH FUNCTIONAL MODULE OF THAT SYSTEM” represented by an inventive solution that finds outstanding benefit in the field of aquaculture (notably in the creation and development of animal species, whether from the practice of pisciculture or mariculture, among others, particularly useful in activities for the creation of aquatic animal species in tanks, for sorting, classification, inoculation of substances of interest, counting and /or marking of live aquatic animals, where the integrated system is formed by functional modules: Breeding module (Mod. 1); Fishing module (Mod. 2); Sedation module (Mod. 3); Classification module (Mod. 4) ; Inoculation module (Mod. 5); Separation module (Mod. 6); Dispatch module (Mod. 7); Automation module (Mod. 8); Database module ( Mod. 9); and Central management module (Mod. 10), thus ensuring greater productivity, quality, reliability and profitability in the creation of aquatic animal species.

Description

INTEGRATED MANAGEMENT/MONITORING SYSTEM, LOCAL/REMOTE BY ARTIFICIAL INTELLIGENCE APPLIED TO ANIMAL BREEDING IN THE AQUACULTURE SECTOR, AND RESPECTIVE EQUIPMENT AND OPERATIONAL PROCESSES APPLIED TO EACH FUNCTIONAL MODULE OF THIS SYSTEM TERMINOLOGY

[1] For the purposes of a better understanding of the matter disclosed and claimed in the present invention patent, the meaning of some terms and/or acronyms richly cited in the body of the descriptive report is presented, where:

[2] - Aquaculture: concerns the creation of any organism that develops in water, such as fish, molluscs, crustaceans, among others;

[3] - Fish farming: is a specialized branch of aquaculture that involves raising fish commercially in ponds or enclosures, such as fish ponds, usually for food;

[4] - Mariculture: is a specialized branch of aquaculture that involves the cultivation of marine organisms for food and other products in the open sea, an enclosed section of the ocean, or in tanks, ponds or lanes that are filled with seawater;

[5] - Diseases known in aquaculture farming: Columnariasis, Francielosis, Mobile Septicemia, Septicemia by Edwardsiella sp., Septicemia by Streptococcus, ectoparasites etc.;

[6] - Substances applied in aquaculture animal creation: in commercial creations of fish species, for the purpose of the present invention, vaccines and/or nutrients are considered as well as nutritional vaccine complexes, and the use of hormones and/or other substances may also be considered beneficial;

[7] - Immunostimulating and nutritional solutions: interferons, interleukins, nucleotides, carbohydrates, natural extracts, vitamins, prebiotics, probiotics, synbiotics, hormones, antibodies, aptamers, amino acids, vitamins, bacteria, fungi, organic and inorganic minerals, immunomodulators , antivirals, antiretrovirals, adsorbents, yeast and derivatives, cell cultures, cytokines, enzymes, growth factors, oligosaccharides, polysaccharides, chelating agents, ionic supplements, enzymatic hydrolysates, proteins, salts, organic and inorganic acids, antioxidants, preservatives , liposaccharides, polyliposaccharides, oligosaccharides, cell walls, lipids, carbohydrates, enzymatic inhibitors, protein;

[8] - Substances of interest: antibiotics, natural extracts, homeopathic compounds, prebiotics, probiotics, symbiotics, hormones, antibodies, aptamers, phototoxic agents, antiparasitics, vitamins, amino acids, antivirals, antiretrovirals, adsorbents, cell cultures , growth factors, chelating agents, ionic supplements, salts, antioxidants, antiparasitics and vaccines;

[9] - Vaccines for animal species in the aquaculture sector: for the purpose of the present invention, vaccines are cited against Streptococcus agalactiae, more specifically applied to Nile tilapia fish (Oreochromis niloticus), and may also refer to the use of this vaccine for the immunization of fish against streptococcosis. They are applied to fingerlings between 60 and 70 days and about 30 grams. To be vaccinated, the fish is anesthetized with a solution that mixes salt, water and clove oil with alcohol;

[10] - Intramuscular application: relating to the application of substances inside a muscle;

[11] - Subcutaneous application: relating to the application of substances located under the skin, hypodermic;

[12] - Post-vaccine reaction solutions: vitamins, anti-inflammatories, analgesics, antipyretics, natural extracts, amino acids, homeopathic compounds, ionic supplements, salts, antioxidants, enzymatic inhibitors;

[13] - Ph: is the symbol for the physical-chemical quantity called hydrogenionic potential, which indicates acidity, neutrality or alkalinity of any medium. pH is the unit of measurement that describes this degree of acidity or alkalinity, measured on a scale from 0 to 14. Any pH below 7 is considered acidic and any pH above 7 is considered basic, or alkaline. A pH of 7 is neutral, which is neither acidic nor basic.

[14] - Osmolarity: Osmotic Concentration, formerly known as Osmolarity, is the measure of solute concentration, defined as the number of Osmoles of solute per liter of solution. The osmolarity of a solution is usually expressed as Osm/L.

[15] - Substance inoculation module in animal species in the aquaculture sector: responsible for inoculating vaccines (and possibly nutrients) in all individuals after the fish size classification stage of the integrated management and monitoring system for animal husbandry in the fish farming sector;

[16] - Individuals: aquatic animal species;

[17] - C.L.P.: Programmable Logic Controller, derived from the English expression PLC (Programmable Logic Controller), is a specialized computer, based on a microprocessor that performs control functions through software developed by the user (each PLC has its own software ), applied to the integrated management and monitoring system for animal husbandry in the aquaculture sector;

[18] - Monitoring: for the purpose of this patent, it is conceptualized as the observation and regular recording of the activities of the integrated management and monitoring system for animal husbandry in the aquaculture sector. It is a routine process of accumulating information on the operating variables of equipment in all its aspects.

[19] - Functional information: for the purposes of this patent, relevant information is the variables related to the functional modules of the integrated management and monitoring system for animal husbandry in the aquaculture sector.

[20] - Operational information: for the purposes of this patent, information is relevant to the qualitative and quantitative productivity data of the integrated management and monitoring system for animal husbandry in the aquaculture sector.

[21] - Maintenance: for the purposes of this patent, it is defined as the action of maintaining, sustaining, repairing or conserving equipment, notably the list of equipment in the functional modules of the integrated management and monitoring system for animal husbandry in the aquaculture sector. Maintenance is formed by a set of actions that help in the good and correct functioning of the equipment list of the functional modules of that system.

[22] In this tuning fork, maintenance is defined in the following types: corrective, preventive, predictive, detective.

[23] - Predictive Maintenance: is the action carried out based on the modification of the “condition” or “performance” parameter of the list of equipment of each of the functional modules of the integrated management and monitoring system for animal husbandry in the aquaculture sector, whose follow-up obeys a system. The purpose of this type of maintenance is to prevent equipment failures by monitoring different parameters, allowing the continuous operation of the equipment for as long as possible.

[24] - KDD process: from the English knowledge-discovery in databases) is a process of "extraction of information" from the database of variables captured in the list of equipment of each of the functional modules of the integrated system of management and monitoring of creation animals in the aquaculture sector, in the pursuit of acquiring knowledge that creates relationships of interest that are not observed by the specialist in the subject, as well as helping to validate extracted knowledge. The expected product of knowledge extraction is relevant information to be used by decision makers, in this case, for managers of the integrated management and monitoring system for animal husbandry in the aquaculture sector;

[25] - Data mining: is an English expression linked to computing whose translation is data mining. It consists of a functionality that aggregates and organizes data, in this case collected from each of the equipment of the functional modules of the integrated management and monitoring system for animal husbandry in the aquaculture sector, finding relevant patterns, associations, changes and anomalies in them.

[26] - Machine Learning (ML): is an area of artificial intelligence where algorithms are created to teach the machine to perform certain tasks. An ML algorithm basically takes a set of input data from each of the equipment in the functional modules of the integrated system for managing and monitoring the creation of animal species in the aquaculture sector and, based on the patterns found, generates the outputs. Each entry in this dataset has its “features”.

[27] - Feature: in artificial intelligence it is defined as a characteristic that describes an object. Any attribute of an object can be treated as a “feature”, be it a number, a text, a date, a boolean, etc.

[28] - Gateway: in free translation into Portuguese, it can be understood as a “connection bridge”, refers to a piece of network hardware. A gateway is a hardware device that acts as a "gate" between two networks, such as a router, firewall, server, or other device that allows information traffic to flow in and out of the network. the integrated system for managing and monitoring the creation of animal species in the aquaculture sector;

[29] - Network hardware: or network devices, refer to equipment that facilitate and support the use of a computer network, that is, they are the physical means necessary for communication between the participating components of a network, for example the information network of the integrated management and monitoring system for the creation of animal species in the aquaculture sector;

[30] - Sensors: devices added to each of the equipment list of each of the functional modules of the integrated management and monitoring system for raising animal species in the aquaculture sector, with the function of capturing and sending information on operational variables, for example ;

[31] - Database in the cloud: it is a database related to an IT infrastructure (servers, databases, among others) that is no longer allocated internally within an organization and that starts to use the infrastructure of a supplier endowed with gigantic datacenters;

[32] - API: refers to the English term "Application Programming Interface" or "Application Programming Interface", which in a remissive way is understood as a set of routines and programming standards for accessing a software application or web-based platform that for the present invention allows the remote operation of the list of equipment of each of the functional modules of the integrated management and monitoring system for the creation of animal species in the aquaculture sector;

[33] - Container: provide a standard way to package code, settings and dependencies of your application in a single object. They share an operating system installed on the server and run as resource-isolated processes. This allows, in the case of the present invention, deployments in the list of equipment of each of the functional modules of the integrated management and monitoring system for the creation of animal species in the aquaculture sector in a fast, reliable and consistent way, regardless of the environment;

[34] - Front-end: are services responsible for “giving life” to the interface of a system, which in the case of the present invention, is applied to the integrated management and monitoring system for the creation of animal species in the aquaculture sector. They run the part of the application that interacts directly with the system manager and operators.

[35] - Man-machine system: is a system in which the functions of a human operator (or a group of operators) and in the case of the present invention with the list of equipment of each of the functional modules of the integrated system of management and monitoring the creation of animal species in the aquaculture sector. This term can also be used to emphasize the view of such a system as a single entity that interacts with the external environment.

[36] - Man of the craft: according to the understanding of the treatises CHAVANNE, Albert & BURST, Jean-Jacques, in their work Droit de Lá Propriété Industrielle. Paris: Dalloz, 1993, p. 53-55, by reference, is the technician in the subject who has normal and average knowledge of the technique that will be the object of analysis, who for the purpose of the present invention is the technician knowledgeable of technical specifications in the area of breeding of animal species in the sector of aquaculture;

[37] - IPC: International patent classification.

[38] The list of terms, technologies and technical concepts presented in this preliminary topic must be appreciated for the correct understanding of the present invention, giving the necessary descriptive sufficiency to the body of this descriptive report, as well as must be used as a reference for studies in analyzes comparisons either with hypothetical state-of-the-art solutions, that is, prior to the invention and not mentioned in this cartouche, as for products of the same nature and the same international patent classification (IPC), disclosed and/or marketed by third parties that are not the proprietor(s) of this patent.

APPLICATION FIELD

[39] The present patent for invention with the above title and object of description and claim in this cartouche deals with an inventive solution that finds outstanding benefit in the field of aquaculture (notably in the creation and development of animal species, whether derived from the practice of fish farming or mariculture, among others.

[40] More specifically, it is particularly useful in pond breeding activities, sorting, sorting, counting and/or marking live aquatic animals, and sexing especially adapted for fish.

[41] Although the defined field of application mentions the creation and development of animal species in the aquaculture sector, it is correct to understand that it is not exhaustive, and may be applicable to other types of creations of animal species that present identity or similarity with the procedures for raising animal species in that referenced sector.

DEMAND OF THE INVENTION

[42] a. Mainland fish farming in Brazil

[43] According to the Statistical Bulletin of Fisheries and Aquaculture — Brazil 2010 - 2011. Ministry of Fisheries and Aquiculture, Brasília, DF, 2011. 60 p, that is to say a bulletin from 10 years ago, the potential of aquaculture in Brazil, because with a coastline of 8.4 thousand kilometers, 5.5 million hectares of fresh water reservoirs, favorable climate, available land, relatively cheap labor, continuous training of specialized professionals and growing domestic market, Brazilian fish production reached almost 1.4 million tons in 2011, of which 628, 704.3 tons were produced in captivity.

[44] The expansion of aquaculture in Brazil is basically driven by continental fish farming, and in 2011 it grew 38.1%, representing 86.6% of the total volume cultivated, being already at that time, and currently consecrated as one of the most promising productive segments in Brazil, moving about R$ 5 billion a year a decade ago and generating 3.5 million direct and indirect jobs, according to data published in the 1st Brazilian Yearbook of Fishing and Aquaculture - Brazil - 2014. Associação Cultural and Educacional Brasil, Brasília, DF, 2014. 136 p.

[45] This same study also reveals that Brazil has approximately three thousand species of fish, of which a large number with potential for use in fish farming, such as: jundiá,jáu, dorado, matrinxã, piau, bonito, suruvi, cascudo, pacu, tambaqui and their hybrids, traíra and pirarucu.

[46] However, the participation of native species in fish farming is below 45% of the total produced, while in Asia, where the world's largest fish production is concentrated, about 95% of the crops are based on species native to that continent.

[47] In turn, in light of the production method in the area of fish farming, according to TAMASSIA, S. T. J.; ZAMPARETTI, A. S. in the work “Justifications and suggestions for the creation of carp in Santa Catarina. Florianópolis: Santa Catarina Agricultural Research Company 1987, 16 p. (EMPASC. Documents, 92), the researchers pointed out two major world references for fish farming:

[48] (i) the Japanese model: it is characterized by the use of balanced feed in fish feeding, automatic feeders and small amount of labor, which must be specialized. It is adopted for the production of trout and eels.

[49] (ii) the Chinese model: based on the use of agricultural by-products, the use of a large amount of labor, which does not need to be specialized as it needs to be in the Japanese model, it is indicated for the production of fish at low cost, to popular consumption, a situation that suits the creation of carp.

[50] In view of the Japanese model (i), the applicant and holder of this invention patent identified the following list of needs:

[51] - Optimize the productivity of a breeding cycle of animal species in the aquaculture sector, in all stages of creation, from end to end, from capturing and treating water in breeding tanks, passing through vaccination and finally classification of this type of animal species;

[52] - Add to the optimized productivity of the previous item, higher quality of animal species in the aquaculture sector, created, vaccinated and classified, that is, the search for a disease-free breeding site that provides fish with weight that exceeds the standards and consumer market requirements.

[53] In other words, seeking a breeding condition that preserves the well-being of animals in the aquaculture sector, preferably optimizing the need for sedation, early detection of diseases and nutritional supplementation, with a reduction in post-vaccination reactions, reduction of episodes of contamination of the breeding environment (aquatic environment in breeding tanks) with reduced mortality, reduced competition for food, uniformity of batches of animal species in the aquaculture sector;

[54] - Add to productivity, real-time monitoring of input needs and control of variables such as water temperature, water Ph, among others, applied to each stage of the breeding cycle of animal species in the fish farming sector ;

[55] - Mitigate operating problems in each operational station of the breeding cycle of animal species in the aquaculture sector, with the application of effective maintenance programs, notably predictive maintenance;

[56] - Reduce the need for direct operator interference in the breeding stations for animal species in the aquaculture sector, optimizing the man/machine ratio to the detriment of the man/animal species ratio in the aquaculture sector, thus reducing the need for manpower specialized work;

[57] - Add environmental benefits, that is, implement an ecologically correct activity, prioritizing the use of solar energy and biomass applied as fuel in the operation of equipment involved in the cycle of breeding animal species in the aquaculture sector, with consequent reduction in emissions and disposal of waste material into the environment;

[58] - Reduction of the industrial cost in the operation of automated creation of animal species in the aquaculture sector.

REQUIREMENTS OF THE INVENTION

[59] In line with the demand for the invention, the applicant devised the “INTEGRATED MANAGEMENT/MONITORING SYSTEM, LO-CAL/REMOTE BY ARTIFICIAL INTELLIGENCE APPLIED TO ANIMAL BREEDING IN THE AQUACULTURE SECTOR, AND RESPECTIVE EQUIPMENT AND OPERATIONAL PROCESSES APPLIED TO EACH MODULE FUNCTIONAL OF THIS SYSTEM” provided with novelty associated with inventive activity, since it does not result in an obvious or evident way from other techniques anticipated by the state of the art in the aquaculture sector, notably in the Japanese model of automated creation of aquatic animal species raised in confinement, conferring advantages from a technical, industrial, commercial and environmental point of view.

[60] In addition, the "invention" is provided with industrial applicability, being feasible to reproduce on an industrial scale, and therefore, meeting the rigor of the patentability requirements, notably as an invention patent, as provided for in the dictates of articles 8 , 13th and 15th of the Industrial Property Law, n. 9.279/96.

FUNDAMENTALS OF THE TECHNIQUE

[61] In order to provide veracity, and consolidate the context explained in the topics of the introductory table, an explanation will be presented on the state of the art for systems, equipment, devices, procedures applied to the creation of aquatic animal species, where after a critical analysis of these, once evaluated by specialists in the subject, they will be able to identify their limiting aspects, thus consolidating the identification of the aforementioned demand.

[62] a. State of the art: research in patent databases, in national and international territory, reveals that there are outstanding techniques aimed at raising aquatic animal species, which are now presented here, in chronological order:

[63] D1 US patent document, US2776746 entitled “Shrimp Classifier”, published on 01/08/1957, which teaches a classification apparatus comprising a form of classification by size, of shrimp and the like, by means of distance between the movable straps, the straps diverge from each other, so that the distance between the straps at the narrow end is less than the distance between them at the wide end. The rotation is counterclockwise and the belts are driven by the motor and the reduction unit through the coupling, fixing the rotating drive pulleys to the shaft. The direction of the upper part of the strap travel is from right to left. The straps are preferably in a plane that is approximately horizontal. Items to be sorted, such as shrimp and the like, feed into the feed chute, past the spacer wheel and onto the end of the moving belts. The articles are conveyed to the opposite end of the belts and, as the distance between each belt increases, the various sized articles fall through the space between the belts into the sized bins.

[64] D2 US patent document, US4051952 A entitled “Detecting and classifying fish characteristics apparatus”, published on 10/04/1977 that teaches a method where fish are oriented by placing them in random arrangements in the central part of a vibrating trough, the opposite ends of which form passages slightly wider than the larger fish being separated. The fish move upside down towards the ends of the trough, and the movement of fish discharged in single file from these ends of the trough is accelerated to propel the fish beyond the means of detection. Such detector means include a source of radiant energy and fish sorting means responsive to energy from such source operable to divert fish exiting such source to channel fish corresponding to a feature detected by the detector. This characteristic can be gender, length or lateral orientation. Alternatively, the fish may be subjected to sensing means to energize a signal simply to indicate a characteristic of the fish, without separating the fish;

[65] D3 Brazilian patent document, MU7500759-2 entitled “Digital counter for fingerlings, tadpoles, larvae and the like” published on 05/13/1997, which teaches a digital contactor device for different animal species such as fingerlings, tadpoles , larvae and the like. This digital counting system, processed through a hose that moves the species in the middle of the water from a reservoir with species to be counted, located at a higher level, to another reservoir where the species arrive properly counted, located at a lower level. , by the law of gravity, the water passes from a reservoir to the reservoir through hoses, taking with it the species (fry, tadpoles, larvae and similar) that when crossing through the hose between the existing sensors in the digital counter device processes the count quickly and precision, without, however, causing the propagation of fungi and/or diseases, as it prevents the species from being out of their habitat, that is, out of the water, as well as saving labor, thus obtaining a result, as the sum of the species, in a short period of time and accurately providing a unique means of counting, used in large, medium and small pisciculture stations.

[66] D4 US patent document, US4351438 A entitled “Apparatus for analyzing a fish population” published on 09/28/1982, which teaches an Apparatus for analyzing a fish population. The apparatus includes an elevated tank which receives fish transferred from a tank. The fish travel from this tank and by gravity through a grader that separates the fish into different fish size ranges. Displacement weighing tanks are included to allow the weight and number of fish in a selected size range to be determined.

[67] D5 US patent document, US20100127086 A1 entitled “Fish Measurement Selection Device” published on 05/27/2010, which teaches a device to provide the angler with a current score on a predetermined number of larger fish caught, culling the smaller fish and keeping the larger fish. The invention provides a device body that floats on water, as well as a series of fish measuring recording devices that are unaffected by inclement weather;

[68] D6 Brazilian patent document, BR 10 2013 016291 4 entitled “EQUIPMENT TO CLASSIFY FISH BY SIZE”, published on 08/09/2016, which teaches equipment to classify fish by size, belonging to the field of equipment used in pisciculture, comprising several (multiple) parallel classifier sets, each consisting of: a channel, fish receiver and a pair of lower rotating rollers, arranged in a horizontal plane, inclined towards each other and defining a growing classifier passage at one end the other; by vat, receiving fish and from one side of which extend the parallel classification sets; by a set of parallel channels for receiving and conducting sorted fish, arranged below and crossed in relation to the parallel sorting sets; by a set of means for receiving classified fish and removing them from the equipment and classification area; by a hydraulic circuit that feeds running water into the vat and into the channels to help move the fish; by adjustment device of the classification scale of the equipment; by drive mechanism; and by table-type support-structure, which has mounted the equipment.

[69] D7 Brazilian patent document, BR 10 2015 020188 5 entitled “MACHINE TO CLASSIFY, VACCINATE AND COUNT FISH”, published on 03/01/2017, where it presents as technical problems of known solutions of the state of the art the fact that that the necessary operations for the production of fish, namely, classification, vaccination and counting, are carried out in an archaic and artisanal way, where a machine equipped with a chassis that configures a longitudinal structure divided into three levels, in the upper level of which includes a ramp for receiving fish that are directed to a set of divergent horizontal cylinders responsible for classifying the fish according to the distance between axles, dropping them onto the trays in the intermediate level where they are collected one by one to be vaccinated with the pistols strategically positioned within reach of hands, and once vaccinated the animals are placed in the side channels passing through a hole on the right ection of the half-round conduit for counting at the lower level;

[70] D8 Brazilian patent document, BR 11 2018 000950 4 title TANK AND FISH BREEDING METHOD published on 09/04/2018, teaches a fish farming tank comprising the characteristics of: a) a shaped shell egg-shaped with a long geometric axis that is generally vertical and gradually narrows towards its terminal volumetric portion; b) said casing forming a generally rigid tank; c) said enclosure being closed; d) said casing having one or more water inlets; e) said casing having one or more water outlets; said egg-shaped tank for holding a volume of water in its lower major volumetric portion and enclosing air in its upper terminal minor volumetric portion. Further described is a method of rearing fish which provides such an egg-shaped shell and conducts bottom-to-top water circulation or the "inverse" of water through said egg-shaped shell while maintaining its full volume of water. air at said tip.

[71] D9 Brazilian patent document, BR 10 2017 007577 0 entitled “EXTERNAL VISUAL MARKER FOR FISH IDENTIFICATION AND APPLICATOR”, published 10/30/2018, teaches a single body external visual marker for fish identification formed by a polymeric plate containing an anchoring system with a barb that extends, forming a label for coding, also has the marker applicator, which comprises a needle, a lock and a support, which allows its application so that the anchorage is inserted on the animal's musculature and the label remains exposed, allowing the visual detection of the information. The polymer sheet can be produced using polymers with a smooth, rough or porous surface, preferably the PETG polymer (Glycol Modified Polyethylene Terephthalate). The polymer sheet can preferably be manufactured via extrusion calendering, stamping, blowing or thermoforming and its design and coding can be carried out via laser, plasma or water jet cutting. The marker can be manufactured in different colors and sizes, with or without coding.

[72] D10 Brazilian patent document BR 10 2017 025771 1 title FLOATING AUTOMATED SOLAR FISH FEEDER FOR FISH AND SHRIMP, published on 06/25/2019 teaches an automated solar floating feeder for fish and shrimp, consisting basically of a float on which a silo is fixed, both made of high density polyethylene (HDPE). The float comprises a hollow structure equipped with hermetic holes arranged vertically in the center of the larger and smaller sides, where metal support feet and foot support support are fixed, through which the silo is fixed. The silo comprises a solar panel fixed to the upper external part, and a lid over a funnel-shaped compartment where the feed is placed. Internment the silo comprises, in addition to the compartment, two adjacent compartments under the solar panel, to respectively house a control panel, and batteries, and in the lower part of the silo there is an engine, whose lower end is coupled to a feed doser, being that the motor shaft is connected to a rotating plate that launches the feed from the feeder into the fish and shrimp feeding area;

[73] D11 Brazilian patent document, BR 11 2019 011080 1 entitled “METHOD TO ESTIMATE FISH SIZE, POPULATION DENSITY, DISTRIBUTION OF SPECIES AND UNDERWATER BIOMASS, COMPUTER SYSTEM AND CAMERA EQUIPMENT” published on 10/01/2019, teaches a computerized system for conducting fish censuses that would otherwise require a high level of domain knowledge and expertise is described. Divers with minimal knowledge of fish can obtain high-quality measurements of population and species distribution using stereo camera equipment and fish video analyzer software that has been developed. The system has two main components: camera equipment and software for estimating fish size, density and biomass. The camera rig consists of a simple stand on which one to four pairs of stereo cameras are mounted to capture video of the benthic floor for a few minutes. The collected videos are sent to a server that performs stereo analysis and image recognition. The software produces video clips containing estimates of fish size, species density and biodiversity, and a log report containing information on individual fish for later end-user analysis.

[74] D12 Brazilian patent document BR 10 2017 026956 6 titled “AUTOMATIC FEED SUPPLY AND DISTRIBUTION SYSTEM AND MECHANISM FOR FLOATING FISH FEEDER”, published 06/25/2019, deals with an automatic supply and supply system and mechanism distribution of feed for floating fish feeders, which will be applied to the field of equipment and devices aimed at aquaculture, preferably directed to fish farming to feed fish or similar. In which it is comprised of a floating feeder formed by a set of buoys for fixing the supply compartment in which it is automatically supplied without operator intervention, by the feed silo through the introduction of the outlet tube in the synchronized tilting lid with the opening drive of the valves driven by the lever pushed by the fixed bar;

[75] D13 Brazilian patent document, BR 20 2018 007196 9 entitled “INTRANET INTEGRATED SYSTEM OF CONSTRUCTIVE SOLUTIONS IN SURVEILLANCE EQUIPMENT, DETECTION OF THERMAL CLIMATE CONDITIONS, RAIN AND TIDE PRECIPITATION, PHOTOMETRY, ANALYSIS SOFTWARE, DOSIMETRY AND FOOD AUTOMÁTICA DE PEIXES EM PISCICULTURAS”, published on 10/22/2019, which teaches fish breeders, whether in excavated tanks or net tanks, who have great difficulty in rationalizing management and treatment since there are currently only a few models of fish dispensers. mechanical rations. This is a new and revolutionary intelligent system for analyzing, managing, treating and managing a fish farm. It consists of a buoy equipped with several sensors, a photometry rod, a ferry/tract-dispensing platform, a specially developed computer program, all with a specific constructive arrangement and communicating with the data center via intranet, thus the data emitted by the buoy, go to the central, permanently with video images and data, on the winds, rain, sun, luminosity, water temperature, turbidity, acidity, movement, these data added to the photometry provided by the rod, supply and they are analyzed in the specific computer program, issuing a command to the feed dispenser barge, which goes to each net tank, carrying out the treatment; it also innovates in the administrative area by creating spreadsheets for consumption, conversion of fish weight, cost per tank, as well as physical, stock, and financial control of sales and purchases; and

[76] D14 Brazilian patent document BR 20 2018 009149 8 titled “DISPOSIÇÃO APPLIED EM CONTADOR DE PEIXES”, published on 11/19/2019, teaches a highly accurate industrial scale fish counter, equipped with a convex grid on the separation chamber, which distributes the fish homogeneously to at least three channels whose profile and triangular projection force the verticalization and direction of the fish to pass through the curtain of sensors capable of reading a greater dimensional variation of the animal, which is positioned on a support with height adjustment at the end of the equipment before the output chamfer.

[77] b. Identification of problems and/or restrictions: as can be seen from the list of state-of-the-art documents, by the way, it is not exhaustive, but sufficient for understanding the evolution of the development of solutions aimed at breeding of aquatic animal species, notably in tanks, it is revealed, especially in the most recent patent documents, that although the adoption of automation technology and the use of remote communication technology is not new in the aquaculture sector, as in the case of document D13 Brazilian patent document, BR 20 2018 007196 9, it is a fact that no solution is identified that includes the end-to-end creation cycle, as solutions only deal with individualized steps, such as the solution presented in the cited document, D13 BR 20 2018 007196 9, restricted to an operational and punctual management solution, that is, it acts through a “portrait of the present moment” and not of the future moment, that is, predictive, of the conditions of the variables water from a pond (dug. Network, etc.,... ), as well as that same patent document only provides for the operational management of the input feeding stage of the said tank, through the remote activation of a feed dispenser barge, given the present diagnosis and not predictive of tank conditions.

[78] This solution, from document D13 BR 20 2018 007196 9, as well as any other listed in the list of state of the art considered closest to the solution achieved in the present invention, does not include, for example, the integrated management of steps such as (i ) predictive management of pond water condition variables (excavated, mains, etc.,... ); predictive management of variables in the harvesting stage, predictive management of the sedation stage, predictive management of the vaccination stage of aquatic animal species in cultivation, predictive management of classification by size and weight of aquatic animal species; and predictive management of separation by size and weight of aquatic animal species.

[79] Remissively, the lack of a solution that integrates the end-to-end breeding cycle of aquatic animal species gives numerous negative aspects, such as:

[80] - compromised productivity of lots of aquatic animal species, at the end of the cultivation cycle;

[81] - impairment of the quality of batches of aquatic animal species, at the end of the cultivation cycle, with a high rate of non-compliant individuals, that is, outside the quality standards required by the aquaculture industry and trade;

[82] - high numbers of individuals with illnesses and consequent deaths;

[83] - high waste of inputs, notably feed;

[84] - high waste of vaccine doses, as they are also applied to individuals who already have illnesses;

[85] - high cost of labor, as it requires the interference of operators in each stage of the cycle of creation of aquatic animal species; and

[86] - high final industrial cost of the batch of aquatic animal species.

[87] Still in relation to the critical analysis of the closest state of the art, this time with a more specific bias, specifically for the classification, vaccination and separation modules, there are no signs of impactful development in improvements regarding productivity improvements and quality of the procedures and practical effects obtained in this stage of the cycle of creation of aquatic animal species.

INVENTION PROPOSAL

[88] a. Objectives: immediately, the present invention converges to idealize and make available to the industry of breeding aquatic animal species, which embraces the entire universe of the aquaculture sector, it can be understood as a first objective of macro applicability and a second objective of punctual applicability, this inserted in the functional modules provided throughout the creation cycle of this universe of animal species.

[89] a. 1 Objective of macro applicability: it is guided by the presentation of a system for raising aquatic animal species, characterized by being modular and integrated and provided with control and monitoring based on the collection and processing of data from environmental (biological) and technical variables. nicas/operational, which integrates all the functional modules of each of the foreseen stages in the creation cycle, so that the control needs of survival environment variables can be met in real time, such as temperature variables and quality parameters of the water from nurseries and/or tanks; feeding control, disease control and batch classification of aquatic animal species. In the creation cycle, the steps are defined (in a non-exhaustive way):

[90] - Step. 1 Preparation of the nursery and/or breeding tank:

[91] The term “nursery”, in fish farming, is considered as any environment excavated in natural soil, equipped with a water supply and drainage system and intended for the cultivation of fish. Among the advantages of this type of structure is the low cost of its construction. The term “tank” is any environment built with a material other than earth (concrete, cement, plastic, fiberglass, etc.) Water.

[92] Among the common procedures in the preparation of ponds are: emptying and drying; disinfection; fertilization to stimulate plankton growth; control of macrophytes and finally filling with water, and for fish farming it is vitally important to know the physical, chemical and biological characteristics of the water, as fish depend on water to carry out all their vital functions, that is: to breathe, to feed , reproduce and excrete.

[93] The characteristics that most limit fish production in any farming system are physical ones such as temperature and transparency and chemical ones such as dissolved oxygen, hydrogen potential (pH), total alkalinity, electrical conductivity, salinity, hardness, ammonia, nitrite, nitrate.

[94] - Step. 2 Harvesting: it is commonly performed whenever there is a need to change matrices in the tanks, sales, capture of larvae, nursery maintenance, biometrics, among other routine situations. For the present invention, the harvesting step can be understood as transporting the batch of aquatic animal species raised in captivity to the sedation step;

[95] - Step. 3 Sedation of aquatic animal species: where the batch of aquatic animal species bred in captivity is placed in a sedation tank, in an environment where the water is treated with sedatives that act on the referred breeding batches;

[96] - Step. 4 Classification: where the batch of sedated aquatic animal species is transported from the sedation tank to the classification cell of each individual, by weight, size, disease detection, pre-vaccination classification, intermediates;

[97] - Step. 5 Inoculation: where each batch of sedated and classified aquatic animal species is submitted, in 100% of the population, to the inoculation of: vaccines, immunostimulating and nutritional solutions, solutions to prevent post-vaccination reaction, therapeutic solutions, inoculation chips for tracking and blood sampling for disease detection;

[98] - Step. 6 Separation: where the separation of each individual of aquatic animal species, already inoculated, is carried out, in defined sub-lots of aquatic animal species, sedated and classified, according to the received classification of weight, size, treatments (inoculations of solutions) and diseases previously registered in the stage. 4 of Rating; and

[99] - Step. 7 Shipping.

[100] In this vein, the macro system presents an inventive concept based on the definition of functional modules for each stage of an operational nature and/or data capture (mining), where each one will be communicating with a data management center, a management that is carried out using dedicated application software, which recognizes and processes the collected data and defines strategies for adapting the operational and biological variables of each of the breeding stations for aquatic animal species.

[101] a. 2 Purpose of punctual applicability: it is guided by the presentation of improvements, discreet or of great relevance in the equipment/devices that integrate each of the functional modules of the integrated macro system, modular of control management and monitoring by artificial intelligence, of the creation of species aquatic animals, previously described.

DESCRIPTION OF FIGURES

[102] To complement the present description in order to obtain a better understanding of the characteristics of the present invention and in accordance with a preferred embodiment, a set of drawings is attached to the description, where:

[103] The figure. 1 is an illustrative representation in the form of a block diagram that represents the steps (not exhaustive) that involve the creation of aquatic animal species, in the aquaculture sector;

[104] The figure. 2 is an illustrative representation in the form of a block diagram representing a preferred embodiment of the integrated management/monitoring system, local/remote by artificial intelligence applied in animal husbandry in the aquaculture sector; showing its functional modules;

[105] The figure. 3 is an illustrative representation in the form of a block diagram representing a preferred embodiment of the integrated management/monitoring system, local/remote by artificial intelligence applied in animal husbandry in the aquaculture sector; highlighting the equipment and/or devices defined in their functional modules;

[106] The figure. 4 is an illustrative representation of the operational flow of a preferred embodiment of the integrated management/monitoring system, local/remote by artificial intelligence applied in the creation of animals in the aquaculture sector; showing its functional modules;

[107] The figure. 5 is an illustrative representation of the equipment embedded in the functional module for classifying individuals from a batch of aquatic animal species, demonstrating its constructive and operational concept in a timely manner, as well as its interaction with the integrated management/monitoring, location/monitoring system. remote by artificial intelligence;

[108] The figure. 6 is an illustrative representation of the equipment embedded in the functional module for inoculating substances in individuals of a batch of aquatic animal species, showing its constructive and operational concept in a timely manner, and also its interaction with the integrated management/monitoring system, location/ remote by artificial intelligence;

[109] The figure. 7 is an illustrative representation of the equipment incorporated in the functional module for the inoculation of substances in individuals of a batch of aquatic animal species, showing the inoculation sub-steps and specific functionalities of the tip device for these sub-steps;

[110] The figure. 8 is an illustrative representation of the equipment incorporated in the functional module for the inoculation of substances in individuals of a batch of aquatic animal species, showing the steps of disinfection/cleaning of the inoculation needles and specific functionalities of the tip device for these sub-steps; and

[111] The figure. 9 is an illustrative representation of the equipment shipped in the functional module for separating individuals classified by size/weight of the batch of aquatic animal species, showing its constructive and operational concept in a timely manner, and also its interaction with the integrated management/monitoring system, local/remote by artificial intelligence.

DETAILED DESCRIPTION

[112] The following detailed description must be read and interpreted with reference to the block diagrams, process flowcharts and drawings referring to the equipment embedded in the functional modules of the integrated management/monitoring system, local/remote by artificial intelligence, not being intended to limit the scope of the invention, which is limited only to what is explained in the set of claims.

[113] a. Breeding cycle of aquatic animal species

[114] As shown in the figure. 1, this consists of the basic (non-exhaustive) steps, reproduced here:

[115] - Preparation of the nursery and/or breeding tank (Step. 1);

[116] - Unfishing (Step. 2);

[117] - Sedation (Step. 3);

[118] - Classification (Step. 4);

[119] - Inoculation (Step. 5);

[120] - Separation (Step . 6); and

[121] - Dispatch (Step . 7).

[122] b. Architecture of the management/monitoring system.

[123] As shown in the figure. 2, is formed by the operational modules:

[124] - Breeding module (Mod. 1): where the development of matrices of aquatic animal species occurs, for example tilapia, catfish, carp, among others;

[125] - Harvesting module (Mod. 2): where the batch of matrices of aquatic animal species considered ready for commercialization, is transported from the breeding module (Mod1) to the harvesting stage (Step. 2), which can be considered as an intermediate storage, in case of need for maintenance in the breeding module (Mod. 1)

[126] - Sedation module (Mod. 3): where the batch of matrices of aquatic animal species receives sedation for a later classification stage (Step. 4);

[127] - Classification module (Mod. 4): where the identification and registration with classification by weight and size, detection of diseases, of 100% of the population of the batch of matrices of aquatic animal species are carried out;

[128] - Inoculation module (Mod. 5): where each individual can receive the application of: vaccines, immunostimulating and nutritional solutions, solutions to prevent post-vaccination reaction, therapeutic solutions, inoculation of chips for tracking, cleaning scales and needle disinfection after each vaccination, control of applied doses, release of authorized products; Blood collection for disease detection;

[129] - Separation module (Mod. 6): individuals are separated by weight, size, t according to the information received from the classification module (Mod. 4) and counted. The operator will be able to define the lanes in which the selection gates will open to direct individuals.

[130] - Dispatch module (Mod. 7): of lots of aquatic animal species.

[131] - Automation module (Mod. 8): responsible for the operation and integration of all functional modules (Mod. 1), (Mod. 2), (Mod. 3), (Mod. 4), ( Mod. 5), (Mod. 6) and (Mod. 7);

[132] - Database module (Mod. 9): with the function of receiving and storing data from all functional modules (Mod. 1), (Mod. 2), (Mod. 3), (Mod. 4) , (Mod. 5), (Mod. 6) and (Mod. 7), communicating with the central management module (Mod. 10); and

[133] - Central management module (Mod. 10): with the function of receiving, interpreting, pulling operating strategies for all functional modules (Mod. 1), (Mod. 2), (Mod. 3), (Mod. 3), (Mod. . 4), (Mod. 5), (Mod. 6) and (Mod. 7) and also manages the automation module (Mod. 8).

[134] c. Equipment embedded in functional modules

[135] As illustrated in the figures. 3 and. 4, where:

[136] - Breeding module (Mod. 1): basically composed of at least one tank (Tq1), which can be of the excavated or mesh type, produced in concrete, cement, plastic, fiberglass, etc., and to this is also added a plurality of sensors (Se1) for monitoring the parameters related to the physical and chemical characteristics and also numerous collector devices (Co1) notably for the collection of samples for biological analysis, with a pump (Bo1) also being foreseen, with the function of providing the transport of the population of individuals of aquatic animal species to the harvesting tank (Tq2), defined in the harvesting module (Mod. 2), where in particular the sensors (Se1) send the information to the database (B. D. ) of the database module (Mod. 9), which are sent for due treatment with the artificial intelligence software (A.I. ), defined in the central management module (Mod. 10);

[137] - Fishing module (Mod. 2): basically composed of at least one tank (Tq2), which can be of the excavated or mesh type, produced in concrete, cement, plastic, fiberglass, etc., with to this is also added a plurality of sensors (Se2) for monitoring the parameters referring to the physical and chemical characteristics and also numerous collector devices (Co2) notably for the collection of samples for biological analysis, with a pump (Bo2) also being foreseen, with the function of providing the transport of the population of individuals of aquatic animal species to the sedation tank (Tq3), defined in the sedation module (Mod. 3), where in particular the sensors (Se2) send the information to the database (B. D. ) of the database module (Mod. 9), which are sent for due treatment with the artificial intelligence software (A.I. ), defined in the central management module (Mod. 10);

[138] - Sedation module (Mod. 3): basically composed of at least one sedation tank (Tq3), which can be of the excavated or mesh type, produced in concrete, cement, plastic, fiberglass, etc., to which is also added a plurality of sensors (Se3) for monitoring the parameters referring to the physical and chemical characteristics and even numerous collector devices (Co3) notably for the collection of samples for biological analyses, with a pump (Bo3 ), with the function of providing the transport of the population of individuals of aquatic animal species sedated to the classification module (Mod. 4), where in particular the sensors (Se3) send the information to the database (B. D. ) of the bank module data (Mod. 9), which are sent for due treatment with the artificial intelligence software (A.I. ), defined in the central management module (Mod. 10);

[139] - Classification module (Mod. 4): where its equipment (Eq. 4) and devices, with a minimum processing capacity of 3, 600 individuals/hour, whose constructive concept is revealed in the figure. 5, which can be described as follows:

[140] - loading nozzle (41): formed by an access ramp, which invites the individual (In) to enter the classification bay (42);

[141] - classification bay (42): formed by a channel whose internal surface, in contact with the individual (In), is coated with a low friction material;

[142] - frontal limiter (43): in the form of a movable bar, with the function of restraining the individual (In) in the correct position of image capture;

[143] - water jet hose (44): with the function of maintaining the individual's hydration (In) in the classification procedure;

• - câmera fotográfica (46): câmeras de alta e baixa resolução com conexões de rede IP, Serial ou USB, com função de captura e registro de informações visuais com realização da documentação fotográfica do indivíduo (In), na definição de tamanho e estimativa de peso, pelo software aplicativo de inteligência artificial (I. A. ) definido no software de inteligência artificial (I. A. ), definido no módulo central de gestão (Mod. 10);

[144] - lighting elements (45): preferably in the form of a set of LED lamps, with the function of guaranteeing the adequate and necessary luminosity for the photographic documentation of the individual (In), guaranteeing the assertiveness in the definition of size and weight estimation, by the artificial intelligence (AI ) application software defined in the artificial intelligence (AI ) software, defined in the central management module (Mod. 10);

• - photographic camera (46): high and low resolution cameras with IP, Serial or USB network connections, with the function of capturing and recording visual information with photographic documentation of the individual (In), in the definition of size and estimation of weight, by the artificial intelligence (AI ) application software defined in the artificial intelligence (AI ) software, defined in the central management module (Mod. 10);

[145] — signal lamp (47): with the function of indicating the condition of the individual's set up (In), to be loaded manually or automatically, through the feeding nozzle (41); and

[146] - presence sensor (48): with the function of providing the identification of the individual (In) properly positioned to receive its classification, and this sends the information to the device (Eq. 8), in the form of a C.L.P. of the automation module (Mod. 8); and

[147] - Inoculation module (Mod. 5): where its equipment (Eq. 5) and devices, with a minimum processing capacity of 3, 600 individuals/hour, whose constructive concept is revealed in the figures. 6, . 7 e. 8 which can be described as follows:

[148] - inoculation bay (51): formed by a channel whose internal surface, in contact with the individual (In), is coated with material with a low coefficient of friction;

[149] - inoculation cradle (52): formed by an opening in one of the side walls, or even at the bottom of the inoculation bay (51), through which the individual (In), more specifically its belly, is accommodated, for gravity, with the function of providing stability and correct positioning for the inoculation of substances, by injection process;

[150] - frontal limiter (53): in the form of a mobile bar, with the function of containing the individual (In) in the correct position and stability for the inoculation of substances, by injection process;

[151] - auxiliary limiter (54): in the form of a mobile bar, with the function of containing the individual (In) in its upper part, attached as an auxiliary to the frontal limiter (53) and inoculation cradle (52), in the position correctness and stability for the inoculation of substances, by injection process;

[152] - water jet hose (55): with the function of maintaining the individual's hydration (In) in the inoculation procedure;

[153] — presence sensor (56): with the function of providing the identification of the individual (In) properly positioned to receive its inoculation, which sends the information to the device (Eq. 8), in the form of a C.L.P. of the automation module (Mod. 8);

[154] — injection device (57): with the function of providing the inoculation of “substances of interest” in the individual (In), formed essentially by the following components:

[155] - support rod (57a): with the function of providing support to the tip (57b) and the needle (57c), and also with the function of a plunger to move that needle (57c);

[156] - tip (57b) with pressure sensor (57b'): with functions:

[157] (i) Limit the depth of the needle (57c) inside the individual (In), making the tip (57b) the depth reference;

[158] (ii) in the needle cleaning procedure (57c), because after inoculation the needle (57c) is withdrawn into the tip (57b), and thus a mechanical cleaning is performed, removing scales and/or particles from the needle itself (57c), increasing its useful life;

[159] (iii) In the needle sanitization procedure (57c), guide the sanitizing solution (Sa), coming from the sanitizing reservoir (57g) to the needle body (57c) and form a disinfection chamber (57d), see figure. 8;

[160] (iv) In the procedure for sanitizing the needle (57c), provide a compressed air jet guide inside the disinfection chamber (57d) so that the sanitizing solution (Sa) can travel the entire length of the needle (57c);

[161] - needle (57c): with the function of being the means of inoculation of the substances of interest;

[162] - disinfection chamber (57d), defined in the tip (57b), with the function of providing an environment for disinfecting the needle (57c);

[163] - dosing pump (57e), which can be driven: electric, pneumatic or mechanical, with the function of feeding the needle (57c) with the substance of interest and feeding the disinfection chamber (57d) with the sanitizing solution (Sa), being activated by the C. L. P. system of the equipment (Eq. 8) of the automation module (Mod. 8);

[164] - inoculation substance reservoir (57f): with the function of supplying the inoculation needle (57c) with substances of interest;

[165] - sanitizing reservoir (57g): with the function of supplying the disinfection chamber (57d) with the sanitizing solution (Sa);

[166] - positioning system (58): the activation can be electric, pneumatic or mechanical, and the positioning of the needle (57c), for the correct inoculation of substances of interest in the individual (In), activated by the software of artificial intelligence (I.A. ), defined as equipment (Eq. 10), in the central management module (Mod. 10), “needle set up” defined according to its classification data, stored in the database (B.D. ) of the equipment ( Eq. 9) of the Database Module module (Mod. 9), which provides:

[167] X - Longitudinal positioning;

[168] Y - Depth inserted in the fish;

[169] Z - Height.

[170] — Separation module (Mod. 6): where its equipment (Eq. 6) and devices, whose operation interface, the operator will be able to define the ranges in which the selection gates (62) will open to direct the classified individual and inoculated (In3), where the equipment (Eq. 6) is equipped with a counter for each door/range, with indication and programming of warning/alarm number of classified and inoculated individual (In3) by weight/size range. They have minimum operating limits: 0.1g to 5,000g, 0.1mm to 1m, being able to specify 2 to 20 separation outputs, and processing capacity of 3,600 individuals/honor, whose constructive concept is revealed in the figure . 9 which can be described as follows:

[171] - separation bay (61): formed by a channel whose internal surface, in contact with the individual (In), is coated with low friction material;

[172] - separation gates (62): defined along the separation bay (61), at least one for each classification of individuals (In), where the choice of which gate (62) will be opened is controlled by recognition of the individual (In) from the inoculation module (Mod. 5), which in turn is already classified in the classification module (Mod. 4), and its effective opening and subsequent closing is triggered when the individual (In) is perceived by the presence sensor (64), which activates the C.L.P. system of the equipment (Eq. 8) of the automation module (Mod. 8), which in turn acts on the opening/closing of the gate (62);

[173] - water jet hose (63): with the function of maintaining the hydration of the individual (In) in the separation procedure;

[174] - presence sensor (64): with the function of providing the identification of the passage of the individual (In) and this sends the information to the device (Eq. 8), in the form of a C.L.P. system of the automation module ( Mod. 8).

[175] - Automation module (Mod. 8): where the equipment (Eq. 8) is defined by a C.L.P system, which operates in activating the equipment (Eq. 4), (Eq. 5) and (Eq. 6) classification (Mod. 4), inoculation (Mod. 5) and separation (Mod. 6) modules;

[176] - Database module (Mod. 9): formed by a database (B. D. ), which can be local or remote, such as a cloud database, which receives information from all functional modules (Mod 1), (Mod. 2), (Mod. 3), (Mod. 4), (Mod. 5), (Mod. 6) and (Mod. 7), and provides this information to the central management module (Mod. 10);

[177] - Central management module (Mod. 10): composed of artificial intelligence software (A.I.).

[178] d. Other equipment and specifications: as shown in the figure. 4:

[179] d. 1 Piping for the flow of individuals for harvesting (T1): which makes the interconnection between the breeding tank (Tq1) and the harvesting tank (Tq2), the latter receiving the batch flow of aquatic animal species removed from the breeding tank ( Tq1) through the hydraulic pump (Bo1), being a rigid or flexible pipe, with a length of at least 1,000 meters and an elevation of at least 300m;

[180] d. 2 Piping for the flow of individuals for sedation (T2): which makes the interconnection between the collection tank (Tq2) and the sedation tank (Tq3), the latter receiving the flow of aquatic animal species removed from the collection tank ( Tq2) through the hydraulic pump (Bo2), being a Rigid or flexible pipe, with a length of at least 1,000 meters and an elevation of at least 300m;

[181] d. 3 Pipe for the flow of individuals for classification (T3): which makes the interconnection between the sedation tank (Tq3) and the equipment (Eq. 4) of the classification module (Mod. 4), the latter receiving the flow of lot of sedated aquatic animal species removed from the sedation tank (Tq3) by means of the hydraulic pump (Bo3), being a Rigid or flexible pipe, with a length of at least 1,000 meters and an elevation of at least 300m;

[182] d. 4 Piping for the flow of individuals for inoculation (T4): which makes the interconnection of the equipment (Eq. 4) of the classification module (Mod. 4) to the equipment (Eq. 5) of the inoculation module (Mod. 5) being which receives the batch flow of inoculated aquatic animal species;

[183] d. 5 Other devices: Power supply will be Hi-brid, Conventional electrical network; Batteries; Generator; Solar; Wind; air compressor with water pump reservoir, electric actuator motors and sensors, among others.

[184] e. From the operational logic of the functional modules.

[185] e. 1 Classification Module Operation (Mod. 4)

[186] As illustrated in the figure. 4, where the classification procedure for each individual is described by the sequential steps:

[187] Step 1 - When the indicator lamp (47) is on (signaling that the equipment (Eq. 4) is available, the individual (In) is loaded manually or automatically, through the power supply nozzle (41);

[188] Step. 2: The (In) sedated individual will slide by gravity inside the classification bay (42), until finding the front limiting shield (43), a mobile containment element, in an obstruction position;

[189] Step. 3 The presence sensor (48) recognizes the presence of the sedated individual (In), and sends a message to the equipment (Eq. 8), of the C.L.P. type, which turns off the signal lamp (47) and returns a signal for equipment initialization ( Eq. 4), turning on the lighting elements (45) and activating the camera (46);

[190] Step. 4 The camera (46), which takes a photographic record of the individual (In), with specific frames for recognizing their weight/size by artificial intelligence techniques, and sends this record to the equipment (Eq. 9), bank of data (B.D.).

[191] Step. 5 The photographic record of the individual (In) is then sent from the database (B. D. ) of the equipment (Eq. 9) to the artificial intelligence software (A.I. ), defined in the central management module (Mod. 10), where the information receives treatment of identification and comparison with data mining of artificial interference, "Data mining", and application of filters of contours, colors and binary models creating diverse models of comparison predicting: position of the individual (In) detailing Cartesian position of the head, tail, dorsal fin; exact Cartesian position for application of substances of interest; needle advance stroke (57c) of the injection device (57), possible illness; weight and dimension of the individual (In), dosage of the substance of interest (Sub), thus generating a report of classification characteristics (Rel) of the classified individual (In1).

[192] Step. 6 The artificial intelligence software (AI), defined in the central management module (Mod. 10) sends to the equipment {Eq. 9), database (B. D. ), from the database module (Mod. 9), the classification characteristics report (Rel) of the classified individual (In1), where they are duly stored;

[193] Step. 7 Upon completion of the analysis and classification of the individual (In) in step. 5, the front limiter (43) is pulled back, the water jet hose (44) is activated, focusing a water jet on the classified individual (In1), already identified, where he moves thanks to gravity and the coating low friction bay (42); and

[194] Step. 8 As soon as the classified individual (In1) is no longer perceived by the presence sensor (48), it sends a message to the equipment (Eq. 8), of the C.L.P. type, which returns a signal for the displacement of the frontal limiter (43) in position of obstruction, as well as turning on the signaling lamp (47), thus indicating to the operator that the equipment (Eq. 4) is able to receive the next individual who will receive the classification.

[195] e. 2 Operation of the Inoculation Module (Mod. 5)

[196] As illustrated in the figure. 5, where the inoculation procedure of substances of interest of each classified individual (In1) is described by the sequential steps:

[197] Step. 1: The classified individual (In1) will slide by gravity inside the classification bay (51) of the equipment (Eq. 5) until it finds the front limiting bulkhead (53), a mobile containment element, in an obstructed position;

[198] Step. 2 The presence sensor (56) recognizes the presence of the classified individual (In) and sends a message to the equipment (Eq. 8), of the C.L.P. type, which returns a signal to initialize the equipment (Eq. 5);

[199] Step. 3 The equipment (Eq. 8), of the C.L.P. type, acts on the auxiliary limiter (54), acting in such a way as to press the classified individual (In1), on his back, compressing his belly to accommodate next to the inoculation cradle (52) , thus leaving the classified individual (In1) properly stabilized and positioned;

[200] Step. 4 The operator of the central management module (Mod. 10) searches the equipment (Eq. 9), database (B. D. ) of the database module (Mod. 9), the classification characteristics report (Rel) of the classified individual (In1), retrieving the exact Cartesian position information for the application of substances of interest, to then load the equipment (Eq. 8), of the C.L.P. type, with this information;

[201] Step. 5 The equipment (Eq. 8), of the C.L.P. type, activates the positioning system (58) that loads the exact spatial Cartesian position, with X, Y and Z spatial coordinates, for the application of substances of interest, which in turn adjusts the position of the injection device (57), where on the Y axis, at least two movements will be described, the first of which is to advance the injection device (57), until the tip (57b) touches the body of the classified individual ( In1), exerting a small force, see figure. 7 moment (1);

[202] Step. 6 The tip (57b) has a pressure sensor (57b') on its contact face with the classified individual (In1), see figure. 7, movement (1), which once activated sends a signal to the equipment (Eq. 8), of the C.L.P. type that preliminarily regattas in the equipment (Eq. 9), database (B.D.) 9), specifically in the classification characteristics report (Rel) of the classified individual (In1), retrieving the information about the needle advancement course (57c) of the injection device (57) and also the dose of the substance of interest ( Sub);

[203] Step. 7 The equipment (Eq. 8), of the C.L.P. type, activates the support rod (57a) displacing the needle (57c) that pierces the body of the classified individual (In1), where the forward course is limited by the previously identified course of the rescued the classification characteristics report information (Rel) of the classified individual (In1);

[204] Step. 8 Once the classified individual (In1) has been perforated, the equipment (Eq. 8), of the C.L.P. Sub), also rescued from the information of the classification characteristics report (Rel) of the classified individual (In1), transferring to the reservoir (57a') of the support rod (57a), injecting the substance of interest (Sub) inside the classified individual (In1), which is now called inoculated individual (In2), see figure. 7, movement (2);

[205] Step. 9 At the end of the inoculation of the substance of interest, the equipment (Eq. 8), of the C.L.P type, immediately triggers the withdrawal of the support rod (57a) and the needle (57c), in their original position, as illustrated in figure. 7, moving (1),

[206] Step. 10 The needle disinfection procedure (57c) starts, where the equipment (Eq. 8), of the C.L.P. Sa), and injects it into the disinfection chamber (57d), see figure . 8, movements (1) and (2);

[207] Step. 11 The equipment (Eq. 8), of the C.L.P. type, acts on the auxiliary limiter (54), acting in such a way as to move it away from the inoculated individual (In2), leaving it still only superimposed, but not attached to the inoculation cradle ( 52), thus leaving the individual classified (In1) released;

[208] Step. 12 The equipment (Eq. 8), of the C.L.P. type, acts on the front limiter (53) which is recessed, and the water jet hose (55) is activated, focusing a water jet on the inoculated individual (In2), where it moves thanks to gravity and the low friction lining of the bay (51); and

[209] Step. 13 As soon as the inoculated individual (In2) is no longer perceived by the presence sensor (56), it sends a message to the equipment (Eq. 8), of the C.L.P. type, which returns a signal for the displacement of the frontal limiter (53) in position obstruction, thus indicating to the operator that the inoculation equipment (Eq. 5) is able to receive the next individual who will receive the inoculation of the substance of interest (Sub);

[210] e. 3 Operation of the Separation Module (Mod. 8)

[211] As shown in the figure. 9, where the procedure for separating each inoculated individual (In2) is described by the sequential steps:

[212] Step. 1 As soon as the inoculated individual (In2) passes through the output presence sensor (56a) of the inoculation equipment (Eq. 5), this sensor sends a message to the equipment (Eq. 8), of the C.L.P. type, retrieves the data again of the classification characteristics report (Rel) of the classified individual (In1), referring to the weight/size of that individual, sending a signal to the equipment (Eq. 6), opening only the gate (62) corresponding to the weight/size information of that individual inoculated individual (In2);

[213] Step. 2 The equipment (Eq. 8), type C.L.P. activates the water jet hose (55), focusing a water jet inside the classification bay (61) of the equipment (Eq. 6), thus reducing friction of the inoculated individual (In2) increasing its displacement speed;

[214] Step. 3 The inoculated individual (In2) will slide by gravity inside the classification bay (61) of the equipment (Eq. 6);

[215] Step. 4 The inoculated individual (In2) finds the hatch (62) open, corresponding to its weight/size, thus being unloaded from the classification bay (61) and accommodated in the respective reservoir (65) of classified and inoculated individuals (In3), which they can be for example small (In31), medium (In32) or large (In33);

[216] Step. 5 As soon as the classified and inoculated individual (In3) leaves through the respective gate (62), the respective presence sensor (64) aligned with it, identifies the passage of the individual (In3), sending a signal to the C.L.P. of the equipment (Eq. 8 ) which in turn sends the write-off in the separation to the central management module (Mod. 10), artificial intelligence software (A.I. ), processes a real-time storage report of the batch of classified and inoculated individuals (In3); and

[217] Step. 6 As soon as the classified and inoculated individual is discharged (In3), the artificial intelligence software (A.I.) sends a signal to the C.L.P. of the equipment (Eq. 8) which triggers the closing of the gate (62), leaving the equipment (Eq. 6) ready to receive and separate a new classified and inoculated individual (In3).

[218] The choice of preferred embodiment of the invention object of claim in this cartouche, described in this detailing topic is provided only by way of example. Changes, modifications and variations can be carried out for any other embodiment of the system, equipment and operational processes, changes that can be idealized by those with skill in the art without, however, diverging from the objective revealed in the application of the present patent, which is uniquely defined by the appended claims.

[219] It can be seen from what has been described and illustrated that the “INTEGRATED MANAGEMENT/MONITORING SYSTEM, LOCAL/REMOTE BY ARTIFICIAL INTELLIGENCE APPLIED IN ANIMAL BREEDING IN THE AQUACULTURE SECTOR, AND THE RESPECTIVE EQUIPMENT AND OPERATIONAL PROCESSES APPLIED TO EACH FUNCTIONAL MODULE OF THAT SYSTEM” now claimed fits the rules governing the patent of invention in the light of the Industrial Property Law, deserving for what has been exposed and as a consequence, the respective privilege.

Claims (7)

“ARTIFICIAL INTELLIGENCE MANAGEMENT/MONITORING SYSTEM” applied to a breeding cycle of animal species in the aquaculture sector, for operational steps defined as preparing the nursery and/or breeding tank (Step. 1); harvesting (Step.2); sedation (Step.3); classification (Step.4); inoculation (Step.5); separation (Stage.6) and dispatch (Stage.7) is characterized by being integrated, local or remote, whose architecture is formed by functional modules: breeding module (Mod.1) where the development of matrices of aquatic animal species takes place ; harvesting module (Mod.2) where the batch of matrices of aquatic animal species is transported from the breeding module (Mod1) to the harvesting stage (Step.2); sedation module (Mod.3) where the batch of matrices of aquatic animal species receives sedation for a later classification stage (Step.4); classification module (Mod.4) where the identification and registration with classification of the batch of matrices of aquatic animal species are carried out; inoculation module (Mod.5) where each individual can receive the inoculation of substances of interest (Sub), inoculation of chips for tracking, cleaning of scales and disinfection of the needle [57c] , control of applied inoculation doses, release of authorized (Sub) substances of interest; blood collection for disease detection; separation module (Mod.6) where individuals (In) from the array of aquatic animal species are separated according to the information received from the classification module (Mod.4); dispatch module (Mod.7) of lots of aquatic animal species; automation module (Mod.8) operates and integrates all functional modules (Mod.1), (Mod.2), (Mod.3), (Mod.4), (Mod.5), (Mod.6) and (Mod.7); database module (Mod.9) that receives and stores data from all functional modules (Mod.1), (Mod.2), (Mod.3), (Mod.4), (Mod.5), ( Mod.6) and (Mod. 7), communicating with the central management module (Mod.10) which receives, interprets and traces operating strategies for all functional modules (Mod.1), (Mod.2), (Mod.3), (Mod.4), (Mod.5), (Mod.6) and (Mod.7) and still performs the operational management of the automation module (Mod. 8); "EQUIPMENT" of the functional modules (Mod.1), (Mod.2), (Mod.3), (Mod.4), (Mod.5), (Mod.6), (Mod.7), (Mod. .8), (Mod.9) and (Mod.10) of the claim's artificial intelligence management/monitoring system. 1, characterized by:

• - breeding module (Mod.1) be basically composed of at least one tank (Tq1) to which a plurality of sensors (Se1) of the parameters related to the physical and chemical characteristics and numerous collection devices (Co1) of samples for biological analysis are added and pump (Bo1);
• - harvesting module (Mod.2) composed of at least one tank (Tq2), to which a plurality of sensors (Se2) of parameters related to physical and chemical characteristics and numerous collection devices (Co2) of samples for biological analysis are added, and pump (Bo2);
• - sedation module (Mod. 3) composed of at least one tank (Tq3), to which a plurality of sensors (Se3) of parameters related to physical and chemical characteristics and numerous collection devices (Co3) of samples for biological analysis are added, and bomb (Bo3);
• - classification module (Mod. 4) where its equipment (Eq. 4) and devices have a constructive concept formed by a loading nozzle (41) such as an access ramp; a classification bay (42) formed by a channel whose internal surface is coated with a low friction material; a front limiter (43 in the form of a movable bar; at least one water jet hose (44); a plurality of lighting elements (45); photographic camera (46); signal lamp (47); presence sensor (48);
• - inoculation module (Mod. 5), where its equipment (Eq. 5) and devices have a constructive concept composed of: inoculation bay (51) formed by a channel whose internal surface is coated with material with a low coefficient of friction; inoculation cradle (52) formed by an opening in one of the side walls, or even at the bottom of the inoculation bay (51); front limiter (53) in the form of a movable bar; auxiliary limiter (54): in the form of a movable bar; at least one water jet hose (55); presence sensor (56); injection device (57) formed by a support rod (57a), tip (57b) with pressure sensor (57b'), needle (57c), disinfection chamber (57d), defined in the tip (57b), dosing pump ( 57e), inoculation substance reservoir (57f) and sanitizing reservoir (57g); a positioning system (58) and needle set-up (57c);
• - separation module (Mod.6), whose equipment (Eq.6) and devices, whose constructive concept is composed of a separation bay (61): formed by a channel whose internal surface is coated with low friction material ; a plurality of separation gates (62) defined along the separation bay (61), at least one for each classification of individuals (In), a presence sensor (64) for each separation gate (62), or at least one water jet hose (63) for each separation gate (62);
• - automation module (Mod.8) where the equipment (Eq.8) is defined by a CL P system;
• - database module (Mod.9) formed by a database (BD), which can be local or remote, such as a cloud database, which receives information from all functional modules (Mod.1), (Mod.2), (Mod.3), (Mod.4), (Mod.5), (Mod.6) and (Mod.7), and provides this information to the central management module (Mod.10 ); and
• - central management module (Mod.10) composed of artificial intelligence software (AI);

“EQUIPMENT” according to the claim. 2, where other equipment is defined, characterized by piping for the flow of individuals for harvesting (T1): which makes the interconnection between the breeding tank (Tq1) and the harvesting tank (Tq2), piping for the flow of individuals for sedation (T2) that makes the interconnection between the collection tank (Tq2) and the sedation tank (Tq3), piping for the flow of individuals for classification (T3) that makes the interconnection between the sedation tank (Tq3) and the equipment (Eq. 4 ) of the classification module (Mod.4), tubing for the flow of individuals for inoculation (T4) that interconnects the equipment (Eq. 4) of the classification module (Mod.4) to the equipment (Eq. 5) of the inoculation module (Mod. 5); hybrid power supply, mains; batteries; generators; air compressor with reservoir; water pump, electric actuator motors and sensors; “EQUIPMENT” according to the claim. 3, where for the flow pipes of individuals (T1), (T2), (T3) and (T4), in an embodiment, are specified characterized by being rigid or flexible, with a length of 1,000 meters and elevation from 300 meters; “OPERATIONAL PROCESSES” applied to the classification module (Mod.4) and equipment [Eq. 4] of the claims. 1 and. 2 respectively, whose operational logic is characterized by the sequential steps:

• - Step 1 When the indicator lamp (47) is on (signaling that the equipment (Eq. 4) is available, the individual (In) is loaded manually or automatically, through the feeding nozzle (41);
• - Step. 2: The (In) sedated individual will slide by gravity inside the classification bay (42), until finding the front limiting shield (43), a mobile containment element, in an obstruction position;
• - Step. 3 The presence sensor (48) recognizes the presence of the sedated individual (In), and sends a message to the equipment (Eq. 8), of the CLP type, which turns off the signal lamp (47) and returns a signal for equipment initialization ( Eq. 4), turning on the lighting elements (45) and activating the camera (46);
• - Step. 4 The camera (46), which takes a photographic record of the individual (In), with specific frames for recognizing their weight/size by artificial intelligence techniques, and sends this record to the equipment (Eq. 9), bank data (BD );
• - Step. 5 The photographic record of the individual (In) is then sent from the database (BD ) of the equipment (Eq. 9) to the artificial intelligence software (AI ), defined in the central management module (Mod. 10), where the information receives treatment of identification and comparison with data mining of artificial interference, "Data mining", and application of filters of contours, colors and binary models creating diverse models of comparison predicting: position of the individual (In) detailing Cartesian position of the head, tail, dorsal fin; exact Cartesian position for application of substances of interest; needle advance stroke (57c) of the injection device (57), possible illness; weight and dimension of the individual (In), dosage of the substance of interest (Sub), thus generating a report of classification characteristics (Rel) of the classified individual (In1);
• - Step. 6 The artificial intelligence (AI ) software, defined in the central management module (Mod. 10) sends to the equipment {Eq. 9), database (BD), from the database module (Mod. 9), the classification characteristics report (Rel) of the classified individual (In1), where they are duly stored;
• - Step. 7 Upon completion of the analysis and classification of the individual (In) in step. 5, the front limiter (43) is pulled back, the water jet hose (44) is activated, focusing a water jet on the classified individual (In1), already identified, where he moves thanks to gravity and the coating low friction bay (42); and
• - Step. 8 As soon as the classified individual (In1) is no longer perceived by the presence sensor (48), it sends a message to the equipment (Eq. 8), of the PLC type, which returns a signal for the displacement of the frontal limiter (43) in position of obstruction, as well as turning on the signaling lamp (47), thus indicating to the operator that the equipment (Eq. 4) is able to receive the next individual who will receive the classification;

“OPERATIONAL PROCESSES” applied to the inoculation module (Mod. 5) and equipment [Eq. 5] of the claims. 1 and. 2 respectively, whose operational logic is characterized by the sequential steps:

• - Step. 1 The classified individual (In1) will slide by gravity inside the classification bay (51) of the equipment (Eq. 5) until it finds the front limiting bulkhead (53), a mobile containment element, in an obstructed position;
• - Step. 2 The presence sensor (56) recognizes the presence of the classified individual (In) and sends a message to the equipment (Eq. 8), of the PLC type, which returns a signal to initialize the equipment (Eq. 5);
• - Step. 3 The equipment (Eq. 8), of the CLP type, acts on the auxiliary limiter (54), acting in such a way as to press the classified individual (In1), on his back, compressing his belly to accommodate next to the inoculation cradle (52) , thus leaving the classified individual (In1) properly stabilized and positioned;
• - Step. 4 The operator of the central management module (Mod. 10) searches the equipment (Eq. 9), database (BD ) of the database module (Mod. 9), the classification characteristics report (Rel) of the classified individual (In1), retrieving the exact Cartesian position information for the application of substances of interest, to then load the equipment (Eq. 8), of the CLP type, with this information;
• - Step. 5 The equipment (Eq. 8), of the PLC type, activates the positioning system (58) that loads the exact spatial Cartesian position, with X, Y and Z spatial coordinates, for the application of substances of interest, which in turn adjusts the position of the injection device (57), where on the Y axis, at least two movements will be described, the first of which is to advance the injection device (57), until the tip (57b) touches the body of the classified individual ( In1), exerting small force;
• - Step. 6 The tip (57b) has on its face of contact with the classified individual (In1), a pressure sensor (57b'), which, once activated, sends a signal to the equipment (Eq. 8), of the CLP type, which preliminarily races in the equipment (Eq. 9), database (BD ) of the database module (Mod. 9), specifically in the report of classification characteristics (Rel) of the classified individual (In1), rescuing the information about the advancement course of advancement the needle (57c) of the injection device (57) and the dose of the substance of interest (Sub);
• - Step. 7 The CLP-type equipment (Eq. 8) activates the support rod (57a) displacing the needle (57c) that pierces the body of the classified individual (In1), where the forward course is limited by the previously identified course of the rescued the classification characteristics report information (Rel) of the classified individual (In1);
• - Step. 8 Once the classified individual (In1) has been perforated, the CLP-type equipment (Eq. 8) activates the dosing pump (57e) which activates the inoculation substance reservoir (57f) and captures the dose volume of the substance of interest ( Sub), also rescued from the information of the classification characteristics report (Rel) of the classified individual (In1), transferring to the reservoir (57a') of the support rod (57a), injecting the substance of interest (Sub) inside the classified individual (In1), which is now called inoculated individual (In2);
• - Step. 9 At the end of the inoculation of the substance of interest, the equipment (Eq. 8), of the CL P type, immediately triggers the withdrawal of the support rod (57a) and the needle (57c), in their original position;
• - Step. 10 The needle disinfection procedure (57c) begins, where the equipment (Eq. 8), of the CLP type, activates the dosing pump (57e) that activates the sanitizer reservoir (57g) and captures the volume of sanitizer dose ( Sa) and injects it into the disinfection chamber (57d);
• - Step. 11 The equipment (Eq. 8), of the CLP type, acts on the auxiliary limiter (54), acting in such a way as to move it away from the inoculated individual (In2), leaving it still only superimposed, but not attached to the inoculation cradle ( 52), thus leaving the individual classified (In1) released;
• - Step. 12 The equipment (Eq. 8), of the CLP type, acts on the front limiter (53) which is recessed, and the water jet hose (55) is activated, focusing a water jet on the inoculated individual (In2), where it moves thanks to gravity and the low friction lining of the bay (51); and
• - Step. 13 As soon as the inoculated individual (In2) is no longer perceived by the presence sensor (56), it sends a message to the equipment (Eq. 8), of the PLC type, which returns a signal for the displacement of the frontal limiter (53) in position obstruction, thus indicating to the operator that the inoculation equipment (Eq. 5) is able to receive the next individual who will receive the inoculation of the substance of interest (Sub);

“OPERATIONAL PROCESSES” applied to the separation module (Mod. 6) and equipment [Eq. 6] of the claims. 1 and. 2 respectively, whose operational logic is characterized by the sequential steps:

• - Step. 1 As soon as the inoculated individual (In2) passes the output presence sensor (56a) of the inoculation equipment (Eq. 5), this sensor sends a message to the equipment (Eq. 8), of the PLC type, retrieves the data again of the classification characteristics report (Rel) of the classified individual (In1), referring to the weight/size of that individual, sending a signal to the equipment (Eq. 6), opening only the gate (62) corresponding to the weight/ size of this inoculated individual (In2);
• - Step. 2 The PLC-type equipment (Eq. 8) activates the water jet hose (55), focusing a water jet inside the classification bay (61) of the equipment (Eq. 6), thus reducing friction of the inoculated individual (In2) increasing its displacement speed;
• - Step. 3 The inoculated individual (In2) will slide by gravity inside the classification bay (61) of the equipment (Eq. 6);
• - Step. 4 The inoculated individual (In2) finds the hatch (62) open, corresponding to its weight/size, thus being unloaded from the classification bay (61) and accommodated in the respective reservoir (65) of classified and inoculated individuals (In3), which they can be for example small (In31), medium (In32) or large (In33);
• - Step. 5 As soon as the classified and inoculated individual (In3) leaves through the respective gate (62), the respective presence sensor (64) aligned with it, identifies the passage of the individual (In3), sending a signal to the equipment PLC (Eq. 8 ) which in turn sends the write-off in the separation to the central management module (Mod. 10), artificial intelligence software (AI ), processes a real-time storage report of the batch of classified and inoculated individuals (In3); and
• - Step. 6 As soon as the classified and inoculated individual is discharged (In3), the artificial intelligence software (AI ) sends a signal to the equipment's PLC (Eq. 8) which triggers the closing of the gate (62), leaving the equipment (Eq. 6) ready to receive and separate a new classified and inoculated individual (In3).

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