BRPI1001202A2 - equipment and process autonomous producer of sterile, mains-powered, distilled drinking water, solar energy, hydrogen generator motor or reactor - Google Patents

Abstract

EQUIPMENT AND PROCESS PRODUCING AUTONOMOUS DRINKING AND DISTILLATED DISTILLED WATER, SUPPLYED BY ELECTRIC NETWORK, SOLAR ENERGY, GENERATOR ENGINE OR HYDROGEN REACTOR. The present invention relates to an autonomous equipment and process for the production of sterile drinking and distilled water from water vapor, featuring a microprocessed electronic module for obtaining and treating water, managing and monitoring the entire flow system, sensors and pumps, being presented in the portable wall version for obtaining drinking water, drinking water fountain, large productions of drinking water and sterile distilled water; all versions are equipped with pollen filter (1), condenser (2), evaporator (3), tank (4), quantification sensor (5), quality sensor (6), water pump (7), pre-carbon filters (8, 8a and 8b), reverse osmosis filter (9), post-carbon filter (10), ultraviolet lamps (11), register / tap (12), microprocessed electronic module for water analysis and control flow sensors (13), solar panels (14), battery module (15), electrical control module (16) and mains module (17), generator engine or hydrogen reactor (19), the water being accumulated in the storage tank (4) located just below the evaporator (3), whose tank has sensors for monitoring and managing the quality (5) and quantity (6) of water and is connected through tubes to a water pump (7), and this, in turn, to the set of filters (8, 9 and 10), which are interconnected in the following sequence: pre-carbon filter (8), reverse osmosis (9), pre-carbon ( 8a), pre-carbon (8b) and powder s-carbon (10), and the post-carbon filter (10) forwards the obtained water to the ultraviolet lamp (11).

Description

EQUIPMENT AND PROCESS Autonomous sterile drinking and distilled autonomous water producer, powered by mains electricity, solar energy, engine generator or hydrogen reactor.

Technical field

The present invention relates to a stand-alone sterile drinking water distilled water-producing equipment, the invention of which is managed and monitored by a microprocessor switchgear and sensors, with the aim of ensuring and monitoring constant purity and sterility. resulting from the process of obtaining to consumption through a specially developed filtration system, and the water obtained can be used for direct human and animal consumption in homes, health, small and large communities, farms and food industries.

State of the art

As is well known, water is a scarce or even non-existent asset in many regions of our planet. Numerous attempts and methods have already been adopted and demonstrated by scientists and researchers in trying to get drinking water to drink.

In this regard, some patent documents are known that disclose machines and methods for obtaining drinking water for drinking, among which we highlight:

US 3,498,077 discloses an apparatus and method for extracting moisture from the atmosphere employed for obtaining water at sea or in the island area, where sea water is pumped to shore condensers, which intercept the high humidity of sea air masses. . The appliance is powered by conducted water or wind turbines. US 3,675,442 features an atmospheric water collector where moisture is condensed from the winds at room temperature, over the condensation board and draining into a collector. When the condensed water obtained has an inadequate predetermined temperature, it is mixed with the fresh water. This mixing method revealed by the document in question exposes the obtained water to contamination, making the water consumption questionable.

US 4,182,132 discloses a device having two fans and two air chambers for operation, suggesting mounting the device in high places such as above buildings. This patent discloses that air flow is drawn through the evaporator, exhausting the reduced temperature resident air through the condenser, thereby increasing efficiency and condensation. However, air causes the ambient temperature to be drawn into the condenser, resulting in loss of efficiency and condensation. This way, as air is pushed through the evaporator, partial drying of the newly formed condensation will occur, resulting in loss of condensation and reduced production.

The present invention differs from the aforementioned patents in that it has been developed with an efficient purification and monitoring system which enables the production of drinking drinking water and sterile fully distilled water for use in healthcare. The invention is provided with a pollen-type air filter for the retention of bacteria and solid particles, which receive air sent to the condenser and subsequently to the evaporator. The obtained water is housed in a tank and later, with the aid of a pump, is sent to the 05 filters, namely: pre-carbon filter, reverse osmosis, pre-carbon, pre-carbon and post-carbon. These filters are connected to a first Ultra-Violet - UV lamp. After contacting the water with said lamp, it is sent to the tank, which is equipped with water quality and quantity monitoring sensors. This tank forwards the water to two other tanks that store the water, which, in turn, are equipped with UV lamps, whose tanks have a tap to remove the water. However these two tanks are interconnected to another pump, which is responsible for the circulation of water, redirecting it back to the filters and thus preventing the proliferation of any type of bacteria in the water. The invention presents a management system electronically controlled by a microprocessor module, which through the sensors indicates the need to change the existing filters in the machine, providing the obtaining of really potable or distilled sterile water. Purpose of the invention

The purpose of the proposed patent is to disclose an autonomous sterile potable and distilled water producing equipment and process from water vapor, powered by solar or electric power, whose equipment is equipped with a management and monitoring system controlled by a microprocessed electronic module for obtaining and treating water.

Description of the figures

Figure 1 illustrates a schematic of portable drinking water equipment, and all its parts and components can be observed, as well as their interconnections and operation. Figure 2 illustrates a schematic of the equipment to obtain 30 liters / day of drinking water, being able to observe the interconnections of its parts and components, as well as their interconnections and operation.

Figure 3 illustrates a schematic of the equipment to obtain up to 20,000 liters / day of drinking water, being able to observe the interconnections of its parts and components, as well as their interconnections and operation.

Figure 4 illustrates a schematic of the equipment for obtaining up to 100 liters / day of sterile distilled water, with the interconnections of its parts and components, as well as their interconnections and operation.

Description of the invention

The proposed patent discloses an autonomous sterile drinking and distilled water-producing equipment and process from water-powered, solar-powered, hydrogen-powered generator or reactor-powered water-powered equipment. and monitoring controlled by a microprocessed electronic module for obtaining and treating water. The microprocessed module through the sensors indicates the need to change the existing filters in the machine, providing to obtain really potable or sterile distilled water.

The equipment is presented in the portable wall version for drinking water, drinking water trough, large productions of drinking water and sterile distilled water.

a) portable wall version for drinking water

The portable drinking water wall version, as shown in figure 1, consists of pollen filter (1), condenser (2), evaporator (3), tank (4), quantization sensor (5), sensor (6), water pump (7), pre-carbon filters (8, 8a and 8b), reverse osmosis filter (9), post-carbon filter (10), ultraviolet lamps (11), registration / tap (12), microprocessor electronic water analysis and flow control module (13), solar plates (14), battery module (15), electrical control module (16) and mains module (17).

The tank (4) has quantity sensor (5) and water quality monitoring sensor (6).

The entire flow system, sensors and pumps are electronically managed by a microprocessor electronics module (13).

The machine system is electrically powered by a block of solar panels (14), electronically managed by a control module (16) and with accumulated electrical charge in a battery pack (15) for unattended operation during the non-incident period. sunlight on the electric generation set or the equipment can be connected to the conventional 110/220 Volts or 12 Volts direct current (17).

The filtering process of portable wall-mounted drinking water equipment comprises the following steps:

1st stage - Air passes through the pollen filter (1) for retention of solid bacteria and particles;

2nd stage - Passes later through the condenser (2);

3rd stage - Passes through the evaporator (3) and becomes liquid;

4th stage - After liquefaction impurities are accumulated in the tank (4) by gravity; 5th step - Afterwards the water is pumped by the pump (7) towards the filter set;

6th step - Water goes through the pre-carbon filter (8) 7th step - Later water goes through the reverse osmosis filter (9)

8th step - Afterwards the water passes through the pre-carbon filter (8a)

9th step - Afterwards the water passes through the pre-carbon filter (8b);

Step 10 - Afterwards the water passes through the post carbon filter (10) and is sent to the Ultra Violet lamp (11) which eliminates viruses and bacteria that may still come from the filtering process.

11th step - After this step the water is monitored by the sensor (6) which makes the last final quality assessment.

Step 12 - After this step impurity-free and 100% potable water is released directly for consumption through the tap / tap (12)

b) drinking water fountain

The equipment in the drinking water version consists of pollen filter (1), condenser (2), evaporator (3), tank (4), quantification sensor (5), quality sensor (6), pump d ' water (7), pre-carbon filters (8), reverse osmosis filter (9), post-carbon filter (10), ultraviolet lamps (11), registration / tap (12), microprocessor electronic water analysis module and flow control (13), solar panels (14), battery module (15), electrical control module (16), mains module (17) and cooling system.

The schematic of the interconnection of the component parts for the equipment in the drinking water version can be seen through figure 2. This equipment consists of a microprocessed electronic module (16) powered by solar panels (14) electronically managed by the control module. and with accumulated electric charge in a battery pack (15) for autonomous operation during the period when no sunlight falls on the electric generation set or the equipment can be connected to the conventional 110 / 220v or 12v mains (17).

All water flow, sensors (5 and 6) and pumps (7) are electrically managed by a microprocessor electronics module (16).

The equipment receives air from the atmosphere, first passing through the pollen filter (1) for the retention of solid bacteria and particles, and then forwards it to the condenser (2) and then to the evaporator (3), for liquefaction. .

Water is accumulated in a storage tank (4) which has sensors for monitoring and managing the quality (5) and quantity (6) of water. Said tank (4) is arranged just below the evaporator (3) and is interconnected through pipes to a water pump (7) which, in turn, is also interconnected through pipes to the filter assembly (8, 9 and 10). The filters used are interconnected by tube, in the following sequence: pre-carbon filter (8), reverse osmosis (9), pre-carbon (8a), pre-carbon (8b) and post-carbon (10).

The last filter (10) directs the obtained water to the first ultraviolet lamp (11), which eliminates viruses and bacteria that may still come from the filtering process.

After the water has passed through the UV lamp (11) it is 100% potable, being routed through tubes to a tank (4a). This tank (4a) is equipped with sensors for quality management and monitoring (5) and water quantification (6).

To ensure water quality and prevent it from standing still, below the tank (4a) are two other tanks (4b and 4c) fitted with UV lamps (Ha) and sensors to manage and monitor quality (5) and quantity. (6) of water.

The tanks 4b and 4c also have a tap / tap 12 for water consumption. The tank (4b) stores water at room temperature and the tank (4c) stores the chilled water that comes from a cooling system (18) that is interconnected to the tank (4c).

In the excess exits of the tanks (4b and 4c) there is a water pump (7) which allows the circulation of water in the filtration system, and said pump (7) is connected by tube after the osmosis filter. reverse (9).

The filtration process for drinking water comprises the following steps:

- 1st step - Air passes through the pollen filter (1) to retain solid bacteria and particle 1;

- 2nd stage - Passes later through the condenser (2);

- 3rd stage - Passes through the evaporator (3) and

liquidate;

- 4th step - After liquefaction impurities are accumulated in the tank (4) by gravity;

- 5th step - Water is pumped by the pump (7) towards the filters;

- 6th step - Water passes through the pre-carbon filter (8);

- 7th step - Afterwards the water passes through the reverse osmosis filter (9); - 8th step - Water passes through the pre-carbon filter (8a);

- 9th step - Water passes through the pre-carbon filter (8b);

- 10th step - Water passes through the post carbon filter (10);

- 11th step - Later the water is sent to the first Ultra Violet lamp (11) that eliminates viruses and bacteria that may still come from the filtering process;

- Step 12 - After this step impurity free and 100% potable water is accumulated in tank 4a.

- 13th step - Afterwards the room temperature water is sent to the tank (4b) and to the cooling system (18) and from this to the tank (4c) to obtain chilled water.

14th step - At the over-level exits of the tanks (4b and 4c) there is a second pump (19) which allows water to recirculate in the filtration system which is switched on after the reverse osmosis filter (8).

c) big productions

The version for large productions up to 20,000 liters / day of drinking water is used for industrial purposes or even for public mains supply. It consists of pollen filter (1), condenser (2), evaporator (3), tank (4), quantification sensor (5), quality sensor (6), water pump (7), pre-filter (8, 8a and 8b), reverse osmosis filter (9), post-carbon filter (10), ultraviolet lamps (11 and 11a), registration / tap (12), microprocessed electronic water analysis module flow (13), solar plates (14), battery module (15), electrical control module (16), mains module (17) and power generator motor or hydrogen chain reaction system (19).

The diagram of the interconnection of the component parts for the equipment for large productions up to 20,000 liters / day of drinking water can be seen through figure 3. This equipment consists of a microprocessor electronics module (16) powered by solar panels (14) managed. electronically by the control module and with electric charge accumulated in a battery pack (15) for autonomous operation during the period when no sunlight falls on the electric generation set or the equipment can be connected to the conventional 110 / 220V mains or 12V direct current (17), with a power generation system through a generator motor or hydrogen reactor (chain reaction) (19) to ensure the operation of the equipment in the event of a collapse in the common power grid or solar.

All water flow, sensors (5 and 6) and pumps (7) are electrically managed by a microprocessor electronics module (16).

The equipment receives air from the atmosphere, first passing through the pollen filter (1) for the retention of solid bacteria and particles, and then forwards it to the condenser (2) and then to the evaporator (3), for liquefaction. .

Water is accumulated in a storage tank (4) which has sensors for monitoring and managing the quality (5) and quantity (6) of water. Said tank (4) is arranged just below the evaporator (3) and is interconnected through pipes to a water pump (7) which, in turn, is also interconnected through pipes to the filter assembly (8,8a). , 8b, 9 and 10). The filters used are interconnected by tube, in the following sequence: pre-carbon filter (8), reverse osmosis (9), pre-carbon (8a), pre-carbon (8b) and post-carbon (10). The last filter (10) directs the obtained water to the first ultraviolet lamp (11), which eliminates viruses and bacteria that may still come from the filtering process.

After the water passes through the UV lamp (11) it is 100% potable, being routed through tubes to a large capacity tank (4d), whose tank is equipped with sensors for quality management and monitoring (5) and quantification. (6) of water. This tank has UV lamps (11a) to ensure the process of filtration and elimination of bacteria and viruses from water, and registration / tap (12) for water consumption.

The filtration process for drinking water comprises the following steps:

- 1st stage - Air passes through the pollen filter (1) to retain solid bacteria and particle 1;

- 2nd stage - Passes later through the condenser (2);

- 3rd stage - Passes later through the evaporator (3) and is liquid;

- 4th step - After liquefaction impurity water is accumulated in the tank (4) by gravity;

- 5th step - Water is pumped by the pump (7) towards the filters;

- 6th step - Water passes through the pre-carbon filter (8);

- 7th step - Afterwards the water passes through the reverse osmosis filter (9);

- 8th step - Water passes through the pre-carbon filter (8a);

- 9th step - Water passes through the pre-carbon filter (8b);

- 10th step - Water passes through the post carbon filter (10);

- Step 11 - Afterwards the water is sent to the first Ultra Violet lamp (11) which eliminates viruses and bacteria that may still come from the filtering process; - 12th stage - After this stage impurity free and 100% potable water is accumulated in the tank (4a);

- 13th step - Afterwards the water is sent to the large capacity tank (4d) and released for consumption through the tap / registration (12).

d) distilled water

The wall version for distilled water, as shown in figure 4, consists of pollen filter (1), condenser (2), evaporator (3), tank (4), quantification sensor (5), quality sensor (6), water pump (7), pre-carbon filters (8), reverse osmosis filter (9), post-carbon filter (10), ultraviolet lamps (11), water distillation system (19) , tap / tap (12), microprocessed electronic water analysis and flow control module (13), solar panels (14), battery module (15), electrical control module (16), and mains module (17 ).

The equipment receives air from the atmosphere, first passing through the pollen filter (1) for the retention of solid bacteria and particles, and then forwards it to the condenser (2) and then to the evaporator (3), for liquefaction. .

Water is accumulated in a storage tank (4) which has sensors for monitoring and managing the quality (5) and quantity (6) of water. Said tank (4) is arranged just below the evaporator (3) and is interconnected through pipes to a water pump (7) which, in turn, is also interconnected through pipes to the filter assembly (8,8a). , 8b, 9 and 10). The filters used are interconnected by tube, in the following sequence: pre-carbon filter (8), reverse osmosis (9), pre-carbon (8a), pre-carbon (8b) and post-carbon (10). The last filter (10) directs the obtained water to the first ultraviolet lamp (11), which eliminates viruses and bacteria that may still come from the filtering process.

After the water passes through the UV lamp (11) it goes through the quality sensor (6) and is sent to the water distillation system.

When passing through the distillation system, water passes through the quantization sensor (5) and is sent to the tap / register (12), being ready for its use or application.

The entire flow system, sensors and pumps are electronically managed by a microprocessor electronics module (13).

The equipment system is electrically powered by a block of solar panels (14), electronically managed by a control module (16) and with accumulated electrical charge in a battery pack (15) for unattended operation during the non-incident period. sunlight on the electric generation set or the equipment can be connected to the conventional 110/220 Volts or 12 Volts direct current (17).

The filtration process of distilled water equipment comprises the following steps:

1st stage - Air passes through the pollen filter (1) for retention of solid bacteria and particles;

Step 2 - Afterwards pass through the condenser (2)

3rd stage - Passes through the evaporator (3) and becomes liquid;

4th stage - After liquefaction impurities are accumulated in the tank (4) by gravity;

5th step - Afterwards the water is pumped by the pump 7 towards the filters; 6th step - Water passes through the pre-carbon filter (8);

7th step - Later the water passes through the reverse osmosis filter (9);

8th step - Afterwards the water passes through the pre-carbon filter (8a);

9th step - Afterwards the water passes through the pre-carbon filter (8b);

Step 10 - Afterwards the water passes through the post carbon filter (10) and is sent to the Ultra Violet lamp (13) which eliminates viruses and bacteria that may still come from the filtering process;

11th step - After this step the water is monitored by the sensor (6) which makes the last final quality assessment.

12th stage - After this stage the water goes to the distillation system (19); and,

13th step - The water passes through the quantization sensor and is sent to the tap / register (12), being ready for its use or application.

Constructive variants

In case of large quantities of water, simply increase the dimensions of the equipment's component parts.

Claims (22)

1. EQUIPMENT AND PROCESS Autonomous Sterile Potable and Distilled Water Producer, characterized by producing sterile drinking and distilled water from water vapor, powered by solar or electric energy, generator motor or hydrogen reactor, featuring an electronic module microprocessor for obtaining and treating water managing and monitoring the entire flow system, sensors and pumps, being presented in the portable wall version for obtaining drinking water, drinking water trough, large productions of drinking water and sterile distilled water; All versions have a pollen filter (1), condenser (2), evaporator (3), tank (4), quantification sensor (5), quality sensor (6), water pump (7), pre-carbon filters (8, 8a and 8b), reverse osmosis filter (9), post-carbon filter (10), ultraviolet lamps (11), registration / tap (12), microprocessor electronics module for water analysis and control (13), solar panels (14), battery module (15), electrical control module (16) and mains module (17), with water accumulated in the storage tank (4) disposed immediately below the evaporator (3), whose tank has sensors for monitoring and managing the quality (5) and quantity (6) of water and is connected through pipes to a water pump (7), which in turn , to the set of filters (8, 9 and 10), which are interconnected in the following sequence: pre-carbon filter (8), reverse osmosis (9), pre-carbon (8a), pre-carbon (8b) and post carbon (1 0), the post carbon filter (10) directs the obtained water to the first ultraviolet lamp (11). 2. PORTABLE WATER WATER-EQUIPMENT EQUIPMENT, characterized in that it consists of pollen filter (1), condenser (2), evaporator (3), tank (4), quantification sensor (5), quality sensor ( 6), water pump (7), pre-carbon filters (8, 8a and 8b), reverse osmosis filter (9), post-carbon filter (10), ultraviolet lamps (11), registration / tap (12) ), microprocessor electronic water analysis and flow control module (13), solar panels (14), battery module (15), electrical control module (16) and mains module (17), with the tank (4) has quantity sensor (5) and water quality monitoring sensor (6). 3. PORTABLE WATER WATER EQUIPMENT FILTERING PROCESS, characterized by the following steps: -1a step - Air passes through the pollen filter (1) to retain solid bacteria and particles; 2nd stage - Passes later through the condenser (2); 3rd stage - Passes later through the evaporator (3) and is liquid; 4th step - After liquefaction impurity water is accumulated in tank (4) by gravity; -5th step - Later the water is pumped by the pump (7) towards the filter set; -6th step - Water passes through the pre-carbon filter (8); -7th stage - Subsequently water passes through the reverse osmosis filter (9); -8th step - Afterwards the water passes through the pre-carbon filter (8a); -9th step - Afterwards the water passes through the pre-carbon filter (8b); -10th step - Afterwards the water passes through the post carbon filter (10) and is sent to the Ultra Violet lamp (11) which eliminates viruses and bacteria that may still come from the filtering process; -11st step - After this step the water is monitored by the sensor (6) which makes the last final quality assessment; and -12th step - After this step impurity-free and -100% potable water is released directly for consumption through the tap / tap (12). 4. DRINKING WATER EQUIPMENT, characterized in that it consists of pollen filter (1), condenser (2), evaporator (3), tank (4), quantification sensor (5), quality sensor (6), pump (7), pre-carbon filters (8), reverse osmosis filter (9), post-carbon filter (10), ultraviolet lamps (11), registration / tap (12), microprocessor electronics water and flow control (13), solar panels (14), battery module (15), electrical control module (16), mains module (17) and cooling system (19). DRINKING WATER EQUIPMENT according to claim 4, characterized in that the post-carbon filter (10) directs the obtained water to the first ultraviolet lamp (11). Drinking Water Drinking Equipment according to Claim 4, characterized in that the water is stored in a tank (4a) provided with sensors for the management and monitoring of water quality (5) and quantification (6). Drinking water drinking equipment according to Claim 4, characterized by two tanks (4b and 4c) equipped with UV lamps (11a) and sensors to manage and monitor the quality (5) and quantity (6) of the water; which are arranged below the tank (4a), receiving a tap / tap (12) for water consumption, the tank (4b) storing water at room temperature and the tank (4c) storing the chilled water from a cooling system (18) which is interconnected to the tank (4c). DRINKING WATER EQUIPMENT according to claim 4, characterized in that it has excess outlets in the tanks (4b and 4c) which are connected by pipes to a water pump (7) for recirculation of water. in the filtration system, whose pump (7) is pump (7) is interconnected by pipe after the reverse osmosis filter (9). 9. DRINKING WATER FILTERING PROCESS, characterized by the following steps: - 1st step - Air passes through the pollen filter (1) to retain bacteria and solid particles; - 2nd stage - Passes later through the condenser (2); - 3rd stage - Passes later through the evaporator (3) and is liquid; - 4th step - After liquefaction impurities are accumulated in the tank (4) by gravity; - 5th step - Water is pumped by the pump (7) towards the filters; - 6th step - Water passes through the pre-carbon filter (8); - 7th step - After the water passes through the reverse osmosis filter (9); - 8th step - Water passes through the pre-carbon filter (8a); - 9th step - Water passes through the pre-carbon filter (8b); - 10th step - Water passes through the post carbon filter (10); - 11th step - Later the water is sent to the first Ultra Violet lamp (11) that eliminates viruses and bacteria that may still come from the filtering process; - 12th stage - After this stage impurity free and 100% potable water is accumulated in the tank (4a); - 13th step - Subsequently the water at room temperature is sent to the tank (4b) and to the cooling system (18) and from this to the tank (4c) to obtain cold water; and, 14th step - At the over-level exits of the tanks (4b and 4c) there is a second pump (19) for water recirculation in the filtration system which is switched on after the reverse osmosis filter (8). 10. EQUIPMENT FOR LARGE DRINKING WATER PRODUCTS, characterized in that it consists of pollen filter (1), condenser (2), evaporator (3), tank (4), quantification sensor (5), quality sensor (6) , water pump (7), pre-carbon filters (8, 8a and 8b), reverse osmosis filter (9), post-carbon filter (10), ultraviolet lamps (11 and 11a), tap / tap (12 ), microprocessor electronic water analysis and flow control module (13), solar panels (14), battery module (15), electrical control module (16), mains module (17), including with a power generation system through a hydrogen generator motor or reactor (chain reaction) (19). Equipment for large drinking water production according to Claim 10, characterized in that the water is accumulated in a storage tank (4) which has water quality (5) and quantity (6) monitoring and management sensors. , whose tank (4) is disposed just below the evaporator (3) and is connected through pipes to a water pump (7) which, in turn, is also connected through pipes to the filter assembly (8, 8a , 8b, 9 and 10). Equipment for large drinking water products according to Claim 10, characterized in that the filters are pipe-connected in the following sequence: pre-carbon filter (8), reverse osmosis (9), pre-carbon (8a) , pre-carbon (8b) and post-carbon (10). Equipment for large drinking water products according to Claim 10, characterized in that the post-carbon filter (8) directs the obtained water to the first ultraviolet lamp (11). Equipment for large drinking water production according to Claim 10, characterized by a large capacity tank (4d), provided with sensors for the management and monitoring of water quality (5) and quantification (6). , UV lamps (11a) and registration / tap (12) for water consumption. 15. PROCESS FOR LARGE DRINKING WATER PRODUCTS, characterized in that it comprises the following steps: - 1st step - Air passes through the pollen filter (1) to retain solid bacteria and particle 1; - 2nd stage - Passes later through the condenser (2); - 3rd stage - Passes later through the evaporator (3) and is liquid; - 4th step - After liquefaction impurities are accumulated in the tank (4) by gravity; - 5th step - Water is pumped by the pump (7) towards the filters; -6th step - Water passes through the pre-carbon filter (8); -7th stage - Subsequently water passes through the reverse osmosis filter (9); -8th step - Water passes through the pre-carbon filter (8a); -9th step - Water passes through the pre-carbon filter (8b); -10th step - Water passes through the post carbon filter (10); -11st step - Later the water is sent to the first Ultra Violet lamp (11) that eliminates viruses and bacteria that may still come from the filtering process; - 12th stage - After this stage impurity-free and -100% potable water is accumulated in the tank (4a); and, - step 13 - Afterwards the water is sent to the large capacity tank (4d) and released for consumption through the tap / registration (12). 16. DISTILLED WATER EQUIPMENT, characterized in that it consists of pollen filter (1), condenser (2), evaporator (3), tank (4), quantification sensor (5), quality sensor (6), water pump (7), pre-carbon filters (8), reverse osmosis filter (9), post carbon filter (10), ultraviolet lamps (11), water distillation system (19), tap / tap (12), microprocessed electronic water analysis and flow control module (13), solar panels (14), battery module (15), electrical control module (16) and mains module (17), whose equipment is electrically powered by a block of solar panels (14), electronically managed by a control module (16) and with accumulated electric charge in a battery pack (15) or the equipment can be connected to the conventional grid 110/220 Volts or 12 Volts in direct current (17). Disinfected water supply according to claim 16, characterized in that the storage tank (4) has sensors for monitoring and managing the quality (5) and quantity (6) of water, which is provided below. evaporator (3) and is connected through pipes to a water pump (7) which, in turn, is also connected through pipes to the filter assembly (8, 8a, 8b, 9 and 10). DETAILED WATER EQUIPMENT according to Claim 16, characterized in that the filters used are pipe-connected in the following sequence: pre-carbon filter (8), reverse osmosis (9), pre-carbon (8a) , pre-carbon (8b) and post-carbon (10). DETAILED WATER EQUIPMENT according to Claim 16, characterized in that the post-carbon filter (8) directs the obtained water to the first ultraviolet lamp (11). DETAILED WATER EQUIPMENT according to Claim 16, characterized in that the water passes the quality sensor (6) and is sent to the water distillation system. DETAILED WATER EQUIPMENT according to Claim 16, characterized in that the water passes through the quantization sensor (5) and is routed to the tap / registration (12). 22. DISTILLED WATER FILTERING AND PROCESSING process, characterized in that it comprises the following steps: 1st stage - Air passes through the pollen filter (1) to retain solid bacteria and particles; 2nd stage - Passes later through the condenser (2); 3rd stage - Passes later through the evaporator (3) and is liquid; 4th step - After liquefaction impurity water is accumulated in tank (4) by gravity; -5th step - Later water is pumped by pump 7 towards the filters; -6th step - Water passes through the pre-carbon filter (8); -7th stage - Subsequently water passes through the reverse osmosis filter (9); -8th step - Afterwards the water passes through the pre-carbon filter (8a); -9th step - Afterwards the water passes through the pre-carbon filter (8b); -10th step - Afterwards the water passes through the post carbon filter (10) and is sent to the Ultra Violet lamp (13) which eliminates viruses and bacteria that may still come from the filtering process; -11st step - After this step the water is monitored by the sensor (6) which makes the last final quality assessment. -12th stage - After this stage the water goes to the distillation system (19); and -13th step - The water passes through the quantization sensor and is directed to the tap / register (12), being ready for its use or application.