WO2012112019A1

WO2012112019A1 - Integral disinfection system for swimming pool water

Info

Publication number: WO2012112019A1
Application number: PCT/MX2011/000024
Authority: WO
Inventors: Héctor ARGOTE MINGRAMM
Original assignee: Argote Mingramm Hector
Priority date: 2011-02-15
Filing date: 2011-02-15
Publication date: 2012-08-23

Abstract

The invention relates to a disinfection system characterised in that it is highly efficient, generating chlorine and ozone in situ, which kill bacteria, viruses and other pathogenic organisms in swimming pool water, thereby preventing the growth of algae and fungi. The system dispenses with the need for the production, transport, storage and handling of chemicals and, as such, is considered to be an environmentally friendly treatment. The system is fully automated and is monitored remotely, thereby facilitating operation and minimising potential human errors that can occur with manual dosing. The system is safe and avoids the risks associated with the handling of chemical products which can be dangerous without adequate supervision. The system can be implemented in order to comply with Mexican national standard PROY-NOM-000-SSA1-2005 and international standards. For the most part, the system is manufactured in Mexico using components produced nationally.

Description

INTEGRAL DISINFECTION SYSTEM FOR WATER

SWIMMING POOLS

OBJECT OF THE INVENTION

The present invention, as expressed in the statement of this specification, refers to an integral disinfection system for swimming pool water, the invention also relates to the apparatus and the method for sanitizing the water; it also relates to the devices and the method; It is based on the generation of chlorine in situ by saline electrolysis and ozone by voltaic arc, with this combined action an efficient disinfection is achieved, without the application of sanitizing chemicals, this treatment is called ecological, it is carried out in order to obtain numerous and notable advantages over other existing systems similar purposes and with the results obtained meets national and international standards, including PROY-NOM-000-SSA1 -2005 (Mexico). BACKGROUND OF THE INVENTION

Commercially there is no system similar to the one proposed, which constitutes an integral treatment system; it is carried out in order to obtain numerous and notable advantages over other similar systems existing purposes; There are some versions on the market of the function of some of its components, specifically chlorine and ozone generators.

Chlorine generation equipment by saline electrolysis, based on titanium cells; Our research focused on the metallurgical study of compatible coatings (based on precious metals), as well as on electronic design, in order to give them self-cleaning properties and a commercial duration close to 30,000 hrs.

Equipment for generating ozone is also known; also based on the generation of a high electrical voltage MAT (very high voltage); In our model, in the design of the electrodes we use materials that allow us Ozone generation is more efficient, minimizing heat losses and operating at lower amperage, which results in lower operating costs.

The synergistic action of ozone and chlorine, eliminates pathogenic microorganisms from the pool water (bacteria and viruses), keeping the walls free of algae and fungus growth, the pool becomes a light brine (3 to 4 gr. of salt per lt.), which gives the water an additional natural disinfection, this salinity is less than that of tears.

With this system an efficient result is achieved with very low concentration of chlorine and ozone in the pool water, and because of its continuous and concentrated application in the feeding lines, it does not generate chloramines. With this treatment, the pool water has a superior crystallinity aspect than conventional treatments.

The system has an automatic process control, in the water line there is an ORP and PH sensor, which send signal to the generator controller, monitoring is done locally and remotely, via satellite signal; This disinfection system has a compact user-friendly design; and electrical devices meet the strictest safety standards.

With all this, the disinfection system object of this patent is constituted as the best and most efficient way to sanitize pool water; Its total automation and remote monitoring facilitate operation and supervision, all components are national, easy replacement and low cost, with reduced maintenance during its useful life.

The disinfectant treatment mostly used for swimming pools is chlorine; the most common use in these is the stabilized with cyanuric acid, called trichloroisocyanuric, although this treatment is efficient and at a good cost, it presents the following problem: the limits of cyanuric acid are constantly being reviewed, so the WHO marks a lower limit to 100 parts per million, some European regulations limit it between 30 and 50 parts per million.

In Mexico, PROY-NOM-000-SSA1-2005, published by the Ministry of Health, establishes a range of 30 to 50 ppm for roofless pools and for swimming pools with ceiling is 0 ppm. This standard is subject to revision and the proposed new values are 0 for roofed pools and less than 20 ppm for roofless pools; Obviously this greatly limits the use of this stabilized chlorine.

The other alternative to sanitize with chlorine is calcium hypochlorite and sodium hypochlorite, the problem of these non-stabilized chlorines, is the fact of their little permanence in the pool due to the action of the sun's rays. A common problem with these chemicals is transport, storage and handling that can become dangerous without adequate supervision and specialized labor. Conventional chemical treatments employ chemical products, with the problem of transport, storage and handling that can become dangerous without adequate supervision and specialized labor. As an alternative, the disinfection system proposed in this document can be used for the application of chemical products. BRIEF DESCRIPTION OF THE DRAWINGS

Figure 1 shows the General Diagram, where the filtration system of a pool is shown, for a better understanding of the system, a typical filtration system of a pool is included in the diagram, consisting of the pump, the filter, valves and suction and return pipes to the pools. Figure 2 shows the Electrolysis Cell Diagram, which describes the main components of the cell, whose function is to generate a chlorinated solution, from a saline solution.

Figure 3 shows the Ozone Generator Diagram, where the basic components of the ozone generator are indicated. Figure 4 shows the electronic diagram of the chlorine generator by saline electrolysis, where an electronic circuit of the titanium cells for the generation of chlorine is shown. Figure 5 shows the electronic diagram of the ozone generator, where this diagram shows an electronic circuit that emits a calculated oscillation through a capacitive-resistive circuit to generate the pulses that when they reach the transformer, become high voltage pulses , where the oxygen enrichment is turned on and a signal is emitted through a light bulb.

DESCRIPTION OF THE INVENTION

The invention; The integral disinfection system can be described in 3 basic aspects. 1. Description of the general system figure 1.

2. The generation of chlorine by saline electrolysis is illustrated in Figure 2 and its electronic diagram in Figure 4.

3. The generation of ozone by very high voltage is illustrated in Figure 3 and its electronic diagram in Figure 5.

Figure 1 shows the General Diagram, where the filtration system of a swimming pool is shown. For a better understanding of the system, a typical filtration system of a swimming pool is included in the diagram, composed of the pump, the filter, the valves and the suction and return pipes to the pools, the chlorine salt generator (1), where a derivation of the filtered and salt pool water, feeds the electrolysis cell, which generates a chlorinated solution, the Cell of electrolysis (2), which generates chlorine from the saline solution, Brine Injection (3), taking advantage of the pool's own filtration system (return of filtered water to the pool), the Pressure Valve (4) , which would act as a shunt in case of blockage of the cell, the Chlorine Injection Venturi (5) to the return pipe to the pool, the Degassed Valve ra (6), to avoid gas accumulation in the cell, the Sensor cell flow (7), connected to the control panel of the salt generator, which commands system shutdown in case of not detecting flow, the water supply to the chlorine and ph sensors (8), the Ph and ORP meters (9); Chlorine sensor based on ORP, connected to the control panel, commands stop of the electrolysis system if the value is exceeded predetermined. PH sensor, for measurement and control of the system ph, is connected to an auxiliary dosing pump, which sucks from the ph modifier container tank, this is controlled from the control panel, the Saline generator control board (10) , with the following functions: ORP and PH measurement and control, Electrolysis cell power supply, regulated voltage and amperage, Satellite signal output, with ORP and PH values, Satellite Antenna (1 1), Dashboard Power supply (12), Oxygen Enrichment (13), ozone generator, which includes air dryer filter, Ozone Generator (14), Voltage and Amperage Meter (15), Plastic Pipe Ozone injection (16), Ozone injection Venturi (17), Main flow valve (18), where water circulates through the venturi making a vacuum for ozone injection, System auxiliary pump ozone (19), where the water flows through avés of the venturi, to the contact tank, the Ozone Destroyer (20), the activated carbon filter placed above the contact tank, the stainless steel contact tank (21), the water injection Venturi (22) with ozone to the return pipe to the pool, the PH Modifier metering pump (23) (optional), the PH tank modifier container (24), an injection modifier "T" (25), the ph Pipe (26) main return to the pool. Figure 2 shows the Electrolysis Cell Diagram, where the main components of the cell are described, whose function is to generate a chlorinated solution, from a saline solution, so they are listed as follows:

(1) Control board. With ORP indication, voltage, amperage and flow sensor.

(2) Titanium plates (5 plates per cell) of the indicated dimensions.

(3) Electrical connections, voltage supply and regulated amperage to Titanium cells.

(4) Brine inlet, (5 mg of salt per It of water).

(5) Chlorine solution outlet, formed by electrolysis in the cell.

Pvc pipe ced 80 2 ". (6) Degasifier, to prevent the accumulation of gases.

(7) Plastic cabinet, cell container.

(8) Flow sensor. Command system shutdown in case of detecting the absence of flow.

(9) Power supply.

(10) Electrical connection

(11) ced 80 2 "pvc pipe

(12) Insulating material

(13) Chlorine solution outlet Figure 3 shows the Ozone Generator Diagram, which indicates the basic components of the ozone generator, which are listed as follows:

(1) Oxygen Enrichment. Send dry air under pressure to the ozone generating cell.

(2) Ozone generator control board.

(3) Ozone generation cell.

(4) High pressure insulating plastic material.

(5) Enriched oxygen input.

(6) Ozone output (0 ₃ ).

(7) Airtight plastic container.

(8) Plastic hose.

(9) Ozone resistant plastic hose.

(10) Damper.

(11) Stainless steel 3161 space 2mm glass.

(12) Cooling fins.

Figure 4 shows the electronic diagram of the chlorine generator by saline electrolysis, where an electronic circuit of the titanium cells for chlorine generation is shown.

By point (20) the current is entered at 110 or 220 Volts, then it drops to 12 Volts through a high power transformer (5) and said current is rectified to through a current of 12 Volts with high amperage, this current directly feeds a variable two-cycle timer (14) permanently; In each of the cycles, the developers (4) and (6) will turn on or off, alternating in this way the polarity of the cells, so they are listed as follows:

(1) VD LED

(2) 1.2 K OHM

(3) DIODE IN4001

(4) RE2

(5) 9V 25A

(6) RE1

(7) 1.2 K OHM

(8) VD LED

(9) VD LED

(10) 1.2 K OHM

(11) BC548C

(12) 1.8 K OHM

(13) R1

(14) Temp circuit, base, ne555, 8 hours

(15) Ph alternate emergency pump

(16) 12v

(17) Chemical pump

(18) Emergency orp emergency pump

(19) Current cut

(20) 110/220 60Hz 50Hz

Figure 5 shows the electronic diagram of the ozone generator, where this diagram shows an electronic circuit that emits a calculated oscillation through a capacitive-resistive circuit to generate the pulses that when they reach the transformer, become high voltage pulses ; When there is a current, the oxygen enrichment is turned on and emits a signal through a light bulb. The current enters (1), thus turning on the air enrichment (1 1), and the indicator light (2) whose voltage is decreased through a resistor (3); The current is rectified through diodes (4), the capacitors (7) finish the rectification and serve as a trigger for the SCR (12) through the resistor (5) and (6) said trip is amplified by the primary winding of the transformer (9) thus obtaining a MAT (Very high voltage) output from the secondary of the transformer (10), so they are listed as follows:

(1) AC input

(2) Indicator on

(3) 10k 2 watt resistor

(4) Diode in4007

(5) 33k 1w resistor

(6) 82 ohm 1 / 4w resistor

(7) 225k 250v capacitor

(8) High gain transfer

(9) Transformer Primary

(10) Transformer secondary

(1 1) load output (0 ₂ enrichment)

(12) be (rectified silicon controller) Total system description (General diagram):

Our integral disinfection system for pool water is installed in the filtration system typical of conventional pools, with the condition of converting pool water into a light brine, this is achieved by adding 5 gr to the body of water. of chlorine per liter. The chlorine and ozone generated are injected into the return line of already filtered water. Likewise, an ORP sensor will be installed on the return line, this monitoring will provide feedback to the control system, which will send system shutdown in case of exceeding the preset value. The system complements a ph meter and a controller, which will send a signal to a dosing pump of a ph modifier, in order to keep this parameter within the regulated range. These measurements are sent by the controller, via satellite to a web page, with real-time values, alarms and graphics that contribute to an easy and efficient operation.

With this automatic system, the risks involved in manual dosing, which requires skilled labor and supervision, are avoided. Brief description of the components:

The operation of the salt generator is as follows: A derivation of the flow of water back to the pool (water with a salinity of 5 gr. Of salt), feeds the electrolysis cell, the chlorine solution generated in the cell is injected into through a venturi to the return line to the pool; The chlorine generation system completes a pressure valve that derives the flow in case of obstruction of the cell by fouling, disposes the cell of a degassing valve that eliminates the accumulated gases, a flow sensor, sends signal to the control board, same that commands system shutdown in case of not detecting flow through the salt generation cell. The control panel of the chlorine generator has voltage, amperage, ORP (indirect chlorine measurement) and PH measurement, as well as the power and flow indicators of the cell.

The chlorine and PH sensors, feed from a bypass of the pool return water, and connect electronically to the control board, and command system shutdown if the setpoint is exceeded.

The control panel is powered by the power supply board, whose function is to distribute the loads and interrupt in case of emergency based on thermoelectric switches.

The system has an Ozone Generator, powered by an electronic controller, which generates the MAT (very high voltage), the electronic controller is electrically powered from the electrical board.

The oxygen enricher, has a compressor and a filter, feeds enriched oxygen (0 ₂ ) to the ozone generator, where by a very high voltage, Ozone (O3) is generated; this ozone is injected into the drag pipe through a hose and a venturi, the drag flow is generated with an auxiliary pump, through the feed valve to the contact tank, the water reaches the tank through microbubbling; This solution of water and ozone is injected into the return line, through a venturi. The tank has an Ozone destroyer (activated carbon filter) integrated to the top, to prevent ozone leakage into the environment.

An optional device to this system is illustrated, for the application of a ph modifier with a metering pump, which is fed from a container tank, this pump doses to the return pipe to the pool through an injection "T" .

In the system a satellite signal is implemented, for remote control and monitoring, of the ORP value (indirect measurement of chlorine and ozone) and of the PH, both values Regulated in the Official Mexican Standard (PROY-NOM-000-SSA1-2005 ).

Description of the generation of chlorine by saline electrolysis: Which is carried out in an electrolysis cell, consisting of plates of Titanium, coated with precious metals, Gold, Platinum and Ruterium. The quality of the electrodes, (components and modes of power supply), is decisive in the production of chlorine and in the duration of the system.

Our invention was developed by experimenting with different types of coatings and varying the power supply, we incorporate a cell design that allows us to easily and totally eliminate the gases that accumulate, this minimizes the possibility of an explosion, resulting in a Efficient and safe chlorine generation.

The mentioned coating gives the electrodes self-cleaning properties, since the polarity of the voltage we supply to the cells can be changed, exchanging the anode and cathode function; The cells we design are estimated to last 30,000 hours; Even so, we incorporate a chemical cleaning system with a chelating solution into the design. We circulate slightly salty water (3 to 5 grams of salt per liter of water), between the Titanium electrodes, applying a weak electric current; a voltage of 12 to 18 volts rectified, with a constant polarity over a period of time; The amperage demand is up to a maximum of 30 amps. The chlorine produced by the salt generator, in the electrolysis cell, depends on the combination of voltage and amperage that passes through the cell. We have developed a type cell, capable of producing 1.0 kg., Of chlorine gas / day, our assembly system facilitates the parallel assembly of the amount of cells that each system requires; This demand for chlorine is calculated for each user by software that obtains its information from a group of sensors.

The production of chlorine gas that is obtained, is combined with water as hypochlorous acid HCIO (a very active species of chlorine), this active chlorine is eliminated under the effects of the sun's UV rays and is constantly renewed in the electrolysis cell , because of the local superchlorination that occurs in each cell, the formation of chloramines and other chlorinated compounds is avoided.

Reactions:

►

NaCI + 2H ₂ 0 direct direct current HCIO + NaOH + H ₂ in titanium electrodes

This reaction is reversible under the action of the sun's UV rays. Several secondary chemical reactions occur in the saline girdle cell, in the anode (+) oxygen and small amounts of ozone are produced, while in the cathode (-) hydrogen is produced; This is why a degassing system must be installed in the cell to avoid the accumulation of these gases. Other factors that affect the generation of chlorine are: The concentration of salinity in the water; the water temperature and finally the pH (hydrogen potential) of the system. In our design, a salinity meter indicates when the salinity drops, due to the replacement of water that is lost due to retro filter washes, making it necessary to add salt to the system. The generation of Ozone through very high voltage (MAT), shows an ozone generator, which is capable of producing ozone-a triatomic molecule (containing three oxygen atoms) artificially, by generating an electric MAT (very high voltage) that It produces ozone, and, collaterally, negative ions, we integrate an oxygen concentrator in order to make this reaction more efficient.

Ozone cannot be stored or transported - it is much less stable than diatomic oxygen - like other industrial gases. The reason is that it quickly converts into oxygen, and therefore must be produced in the place where it will be used. The generator object of the invention generates ozone at frequencies of 1 kHz, and with voltages ranging between 20 kV and 150 kv.

The dominant factor that causes ozone generation is the temperature of the vector gas that is controlled by the cooling air; the colder the air, the better the synthesis of ozone; Most of the energy is dissipated in heat, which must be neutralized by a very efficient air flow, the enriched air system incorporated into the system fulfills this function.

Due to its high reactivity, much of the research to carry out this invention consisted in the selection of materials; The material that we selected for the electrodes was 316L stainless steel, as well as aluminum, and glass between the electrodes, the container body and conduction hoses were PVDF and EPDM, the pipes we selected were made of PVC ID 80.

We develop a typical ozone generation module, capable of producing 100 grams of ozone per day, we can mount modules in parallel, with a single injection to the auxiliary water line through a device, which produces micro bubbles, in order to incorporate efficiently ozone to water; This auxiliary line discharges the ozone on the return to the pool according to the diagram.

Each generation module consists of: 2 ac electrodes. Stainless 316 L, and between each electrode a glass plate, is tightly armed to inject the enriched air through a very small space between the electrodes (2 millimeters), a MAT (very high voltage) is applied through fly back, at 150,000 volts and frequencies close to 1 kHz.

For the design of this invention the electrode is finned, it allows to cool these, with pressurized air, avoiding as far as possible the loss by heating; The air supplied is a dry air enriched with oxygen, which discharges from a compressor / enrichment, the volume of dry air required by each module is 3 Ipm (liters per minute), which is injected into the module through PVDF hoses.

Given the extreme reactivity of the gas in the design of this invention, an ozone destroyer was incorporated, that is, an activated carbon filter, which prevents this gas from escaping into the environment and coming into contact with users; The adverse effects on human health from exposure to this gas are well documented in the medical literature.

PREFERRED EMBODIMENT OF THE INVENTION The system object of this invention has conventional commercial use components, which we will not manufacture due to its low cost and easy accessibility, such as electric hydraulic components, valves, ph and ORP sensors and satellite signal; From three fundamental parts of the system and which are the object of our development and research, we focus on the following descriptions for the subject of the embodiments relating to the invention:

Electrolysis cells. Titanium plates can be placed horizontally or vertically, and be pure Titanium or coated with precious metals, such as Reuterium oxide. The sizing of the plates, can change depending on the commercial measures, The 5 plates of each cell, can be electrically connected in different ways, so that it performs or not the self-cleaning function, in specific cases you can increase or decrease the number of cells.

Ozone generation cells. The plates can be made of 316 L stainless steel, and their shape can be laminar or tubular, in the same way you can use the electric arc method (inductive method) or glass plates (capacitive method), Cabinets can change shape or size. The high voltage module can be made based on an exposed or encapsulated transformer.

Electronic circuits. The electronic circuits can be partially or fully automated, with microcontrollers or with transistors or manual switches, the welding of the circuits can be soldering iron or crucible, and the PCB can be constructed of bakelite or fiberglass.

Claims

CLAIMS Having sufficiently described my invention, I consider as a novelty and therefore claim as my exclusive property, what is contained in the following clauses.

1. Integral disinfection system for pool water, characterized in that it is composed of a chlorine salt generator, an electrolysis cell, which generates chlorine from the saline solution, a pressure valve, a chlorine injection venturi to the return pipe to the pool, a degassing valve, to avoid accumulation of gases in the cell, a cell flow sensor, connected to the control panel of the salt generator, Ph and ORP meters, a chlorine sensor based on ORP, connected to the control panel, a PH Sensor, for measurement and control of the system ph, which is connected to an auxiliary dosing pump, which sucks the ph modifier container tank, this is controlled from the control board, a Saline generator control board, a Satellite Antenna, a Power supply board, an Oxygen Enrichment, ozone generator that includes an air dryer filter, an O Generator zone, a Voltage and amperage meter, an Ozone injection plastic pipe, an Ozone injection Venturi, a main flow valve, through which the water circulates through the venturi making a vacuum for ozone injection, a Auxiliary pump of the ozone system where the water circulates through the venturi, to the contact tank, an Ozone Destroyer, an activated carbon filter placed above the contact tank, a stainless steel contact tank, an injection Venturi of ozone water to the pool return pipe, a PH Modifier metering pump, a PH modifier container tank, a ph modifier "T" injection, a main pool return pipe.

2. Integral disinfection system for swimming pool water, according to claim 1, characterized in that the Saline generator control panel comprises:

• Measurement and control of ORP and PH.

• Power supply of the electrolysis, voltage and amperage cell

regulated.

• Satellite signal output, with ORP and PH values.

3. Integral disinfection system for pool water, characterized in that it turns the pool water into a light brine, this is achieved by adding 5 gr to the body of water. of chlorine per liter, where the chlorine and ozone generated, are injected into the return line of already filtered water, Likewise, an ORP sensor is installed in the return line, this monitoring will feed back the control system, who send system shutdown in case of exceeding the preset value, where the system a ph meter and a controller, is responsible for sending signal to a dosing pump of a ph modifier, in order to keep this parameter within the regulated range , where these measurements are sent by the controller, via satellite to a web page, with real-time values, alarms and graphs that contribute to an easy and efficient operation, with this automatic system, the risks involved in dosing are avoided manual, which requires skilled labor and supervision.

4. Integral disinfection system for swimming pool water, according to claim 1, characterized in that the oxygen enricher has a compressor and a filter which feeds enriched oxygen (0 ₂ ) to the ozone generator, where by a Very high voltage is generated Ozone (0 ₃ ) where this ozone is injected into the drag pipe through a hose and a venturi, where the drag flow is generated with an auxiliary pump through the tank feed valve of contact, where the water reaches the tank through micro bubbles, this solution of water and ozone is injected into the return line through a venturi, where the tank has an ozone destroyer (activated carbon filter) integrated in the upper part, to prevent ozone leakage into the environment.

5. Integral disinfection system for swimming pool water, according to claim 1, characterized in that the generation of chlorine by saline electrolysis is carried out in an electrolysis cell, constituted by titanium plates, coated with precious metals, Gold , Platinum and Ruterio, where the quality of the electrodes, (components and modes of power supply), is decisive in the production of chlorine and in the duration of the system.

6. Integral disinfection system for swimming pool water, according to claim 1 characterized in that we circulate slightly salty water (3 to 5 grams of salt per liter of water), between the Titanium electrodes, applying a weak current electrical at a voltage of 12 to 18 volts rectified, with a constant polarity over a period of time, where the demand for amperage is up to a maximum of 30 amps.

7. Integral disinfection system for swimming pool water, according to claim 1 characterized in that the ozone generator is capable of producing ozone - a triatomic molecule (containing three oxygen atoms) artificially, by generating a MAT (very high voltage) electrical that produces ozone, and, collaterally, negative ions, where we integrate an oxygen concentrator in order to make this reaction more efficient, which generates ozone at frequencies of 1 kHz, and with voltages ranging between 20 kV and 150 kv, which through a typical ozone generation module, is capable of producing 100 grams of ozone per day, where we can mount modules in parallel, with a single injection to the auxiliary water line through a device, which produces micro bubbles, in order to efficiently incorporate ozone into the water, where the auxiliary line discharges the ozone on the return to the pool according to the diagram.

8. Integral disinfection system for swimming pool water, according to claim 7, characterized in that Each generation module consists of: 2 316 L stainless steel electrodes, and between each electrode a glass plate, where it is hermetically assembled to inject the enriched air through a very small space between the electrodes (2 millimeters), where a MAT (very high voltage) is applied through fly back, at 150,000 volts and frequencies close to 1 kHz.

9. Integral disinfection system for swimming pool water, according to claim 1, characterized in that, given the extreme reactivity of the gas, an ozone destroyer was incorporated, that is, an activated carbon filter, which prevents this gas from being Fugue the environment and get in touch with users.

10. Integral disinfection system for swimming pool water, in accordance with claim 1 characterized in that an ORP sensor is installed in the return line, where this monitoring will feed back the control system, who will send the system stop at case of exceeding the preset value.

11. Integral disinfection system for swimming pool water, according to claim 1 characterized in that a ph meter and a controller, which will send a signal to a dosing pump of a ph modifier, in order to keep this parameter inside of the regulated range, where measurements are sent by the controller via satellite to a web page, with real-time values, alarms and graphs that contribute to an easy and efficient operation.