CN215712357U - Air system water supply system - Google Patents
Air system water supply system Download PDFInfo
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- CN215712357U CN215712357U CN202122026991.9U CN202122026991U CN215712357U CN 215712357 U CN215712357 U CN 215712357U CN 202122026991 U CN202122026991 U CN 202122026991U CN 215712357 U CN215712357 U CN 215712357U
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02A—TECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE
- Y02A20/00—Water conservation; Efficient water supply; Efficient water use
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02A—TECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE
- Y02A20/00—Water conservation; Efficient water supply; Efficient water use
- Y02A20/152—Water filtration
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Abstract
The utility model discloses an air water-making water supply system, which comprises an outdoor unit and an indoor unit, wherein the outdoor unit comprises a water inlet pipe and a water outlet pipe; the outdoor unit comprises an air water generator, a lower water tank, a booster pump, a reverse osmosis membrane and a wastewater ratio; the pipeline of the air water generator is connected with the lower water tank; the lower water tank pipeline is connected with the water inlet end of the booster pump; the water outlet end pipeline of the booster pump is connected with a reverse osmosis membrane; the reverse osmosis membrane pipeline is connected with a wastewater ratio; the waste water ratio pipeline is connected with a lower water tank; the indoor unit comprises a cold water tank and a water outlet device; and the pipeline of the cold water tank is respectively connected with a reverse osmosis membrane and a water outlet device. The utility model extracts water condensed from air by an air water generator, collects the water in a lower water tank, then pumps the water in the lower water tank by a booster pump to separate the water into drinking water and waste water by a reverse osmosis membrane, the drinking water enters a cold water tank by a pipeline, the waste water enters the lower water tank again by the pipeline, and the drinking water is filtered by the reverse osmosis membrane again in the follow-up process. Thereby realizing the circular treatment of the wastewater and reducing the waste of resources.
Description
Technical Field
The utility model relates to the technical field of air water production, in particular to an air water production and supply system.
Background
The air water making is a technology for directly extracting water molecules from the air without a water source and processing the water molecules into high-quality drinking water, because the water molecules are extracted from the air to prepare the drinking water, the drinking water is divided into two types of water after being processed, namely drinkable high-quality drinking water and waste water containing impurities such as dissolved salts, colloids, microorganisms, organic matters and the like, and the waste water is collected in a specific bin and is poured out after being collected to a certain amount, so that the waste of resources is caused.
SUMMERY OF THE UTILITY MODEL
The technical problem to be solved by the utility model is as follows: the air water-making water supply system can circularly treat waste water and reduce resource waste.
In order to solve the technical problems, the utility model adopts the technical scheme that: an air water-making water supply system comprises an outdoor unit and an indoor unit;
the outdoor unit comprises an air water generator, a lower water tank, a booster pump, a reverse osmosis membrane and a wastewater ratio; the pipeline of the air water generator is connected with the lower water tank; the lower water tank pipeline is connected with the water inlet end of the booster pump; the water outlet end pipeline of the booster pump is connected with a reverse osmosis membrane; the reverse osmosis membrane pipeline is connected with a wastewater ratio; the waste water ratio pipeline is connected with a lower water tank;
the indoor unit comprises a cold water tank and a water outlet device; and the pipeline of the cold water tank is respectively connected with a reverse osmosis membrane and a water outlet device.
Further, the air water generator comprises an air filter screen, a water generating system and a water receiving tray; the air filter screen pipeline is connected with a water production system; a water receiving disc is arranged at the water outlet end of the water production system; the water receiving tray pipeline is connected with the lower water tank.
Furthermore, a first water level probe is arranged in the lower water tank, and the first water level probe is connected with an air water generator through a line;
and a first activated carbon filter and a first UV sterilizer are arranged in the lower water tank.
Furthermore, a second activated carbon filter is arranged on a connecting pipeline between the booster pump and the reverse osmosis membrane.
Furthermore, a first water outlet valve and a pressure switch are arranged between pipelines connected with the reverse osmosis membrane and the cold water tank;
a water inlet end pipeline of the first water outlet valve is connected with a reverse osmosis membrane;
the pressure switch is positioned at the water outlet end of the first water outlet valve, and the pressure switch circuit is respectively connected with the booster pump and the first water outlet valve.
Furthermore, a first water outlet valve is arranged between pipelines connected with the reverse osmosis membrane and the cold water tank, a second water level probe is arranged in the cold water tank, and lines of the second water level probe are respectively connected with the booster pump and the first water outlet valve.
Furthermore, a third activated carbon filter is arranged between the pipeline connected with the first water outlet valve and the cold water tank, and a fourth activated carbon filter and a second UV sterilizer are arranged in the cold water tank.
Furthermore, a hot tank is arranged in the indoor unit, and a pipeline of the hot tank is respectively connected with the cold water tank and the water outlet device.
Furthermore, the water outlet device comprises a three-way water outlet pump, a second water outlet valve, a water outlet pump and a third water outlet valve;
a water inlet end pipeline of the three-way water outlet pump is connected with the cold water tank, a water outlet end pipeline of the three-way water outlet pump is connected with a third UV sterilizer, a pipeline of the third UV sterilizer is connected with the cold water tank, and the other water outlet end pipeline of the three-way water outlet pump is connected with a second water outlet valve;
and a water inlet end pipeline of the water outlet pump is connected with the hot tank, and a water outlet end pipeline of the water outlet pump is connected with a third water outlet valve.
The utility model has the beneficial effects that: through the condensation of moisture in the air water making device extraction air into water to collect in the lower water tank, then become drinking water and waste water with moisture through reverse osmosis membrane by the water in the booster pump extraction lower water tank, the drinking water passes through the pipeline and gets into the cold water storage cistern in, and waste water gets into lower water tank again through the pipeline, treats follow-up filtration through reverse osmosis membrane again and becomes the drinking water. Thereby realizing the circular treatment of the wastewater and reducing the waste of resources.
Drawings
Fig. 1 is a schematic structural diagram of a first embodiment of an air-to-water supply system according to the present invention;
fig. 2 is a schematic structural diagram of a second embodiment of an air-to-water supply system according to the present invention;
description of reference numerals:
1. an outdoor unit; 11. an air water generator; 111. an air filter screen; 112. a water production system; 113. a water pan;
12. a lower water tank; 121. a first water level probe; 122. a first activated carbon filter; 123. a first UV sterilizer;
13. a booster pump; 14. a reverse osmosis membrane; 15. the ratio of waste water to waste water;
2. an indoor unit; 21. a cold water tank; 211. a second water level probe; 212. a fourth activated carbon filter; 213. A second UV sterilizer;
22. a water outlet device; 221. a water outlet pump is arranged; 222. a second water outlet valve; 223. discharging the water pump; 224. a third water outlet valve;
3. a second activated carbon filter; 4. a first water outlet valve; 5. a pressure switch; 6. a third activated carbon filter; 7. heating the tank; 8. and a third UV sterilizer.
Detailed Description
In order to explain technical contents, achieved objects, and effects of the present invention in detail, the following description is made with reference to the accompanying drawings in combination with the embodiments.
Referring to fig. 1 and 2, an air to water supply system includes an outdoor unit 1 and an indoor unit 2;
the outdoor unit 1 comprises an air water generator 11, a lower water tank 12, a booster pump 13, a reverse osmosis membrane 14 and a wastewater ratio 15; the air water generator 11 is connected with the lower water tank 12 through a pipeline; the lower water tank 12 is connected with the water inlet end of the booster pump 13 through a pipeline; a water outlet end pipeline of the booster pump 13 is connected with a reverse osmosis membrane 14; the reverse osmosis membrane 14 is connected with a wastewater ratio of 15 through a pipeline; the wastewater ratio 15 is connected with the lower water tank 12 through a pipeline;
the indoor unit 2 comprises a cold water tank 21 and a water outlet device 22; the pipeline of the cold water tank 21 is respectively connected with the reverse osmosis membrane 14 and the water outlet device 22.
The working principle is as follows: in the water production process, the air water generator 11 of the outdoor unit 1 condenses the water in the air into water, collects the water into the lower water tank 12, pumps the water in the lower water tank 12 by starting the booster pump 13, and filters the water through the reverse osmosis membrane 14, so that impurities such as dissolved salts, colloids, microorganisms and organic matters in the water can be effectively removed due to the very small membrane aperture of the reverse osmosis membrane 14. Thus separating the water at the reverse osmosis membrane 14 into drinking water that passes through the reverse osmosis membrane 14 and waste water that does not pass through the reverse osmosis membrane 14. The drinking water enters the cold water tank 21 of the indoor unit 2 through the pipeline, and the drinking water in the cold water tank 21 can be taken out for drinking by opening the water outlet device 22. The waste water is re-introduced into the lower tank 12 through a pipe. Meanwhile, the drinking water amount and the waste water amount generated at the reverse osmosis membrane 14 can be adjusted by adjusting the waste water ratio 15.
From the above description, the beneficial effects of the present invention are: through the condensation of water among the air water making device 11 extraction air to collect in lower water tank 12, then become drinking water and waste water with moisture through reverse osmosis membrane 14 by the water in the booster pump 13 extraction lower water tank 12, the drinking water passes through in the pipeline gets into cold water storage cistern 21, and waste water gets into lower water tank 12 again through the pipeline, waits to follow-up to filter into the drinking water through reverse osmosis membrane 14 again. Thereby realizing the circular treatment of the wastewater and reducing the waste of resources.
Further, the air water generator 11 comprises an air filter screen 111, a water generation system 112 and a water receiving tray 113; the air filter 111 is connected with a water production system 112 through a pipeline; a water receiving tray 113 is arranged at the water outlet end of the water production system 112; the water receiving tray 113 is connected with the lower water tank 12 through a pipeline.
As can be seen from the above description, before the water in the extracted air is condensed into water, the water production system 112 filters out larger particle impurities in the air through the air filter 111, and then the water pan 113 receives and collects the water produced by the water production system 112, and finally the water collected by the water pan 113 flows into the lower water tank 12 through a pipeline for storage.
Further, a first water level probe 121 is arranged in the lower water tank 12, and the first water level probe 121 is connected with the air water generator 11 through a line;
a first activated carbon filter 122 and a first UV sterilizer 123 are disposed in the lower water tank 12.
As can be seen from the above description, the first water level probe 121 is disposed in the lower water tank 12, the water storage capacity in the lower water tank 12 is monitored in real time through the first water level probe 121, and when the first water level probe 121 monitors that the water storage capacity in the lower water tank 12 is lower than a set value, the air water generator 11 is controlled to start water generation operation. When the first water level probe 121 monitors that the water storage capacity in the lower water tank 12 reaches a set value, the air water generator 11 is controlled to stop the water generation operation. Meanwhile, the first activated carbon filter 122 and the first UV sterilizer 123 are disposed in the lower water tank 12, and water in the lower water tank 12 is filtered and sterilized by the reverse osmosis membrane 14 before being pumped by the booster pump 13 and filtered by the reverse osmosis membrane 14, so that the operation pressure of the reverse osmosis membrane 14 is reduced.
Further, a second activated carbon filter 3 is arranged on a connecting pipeline between the booster pump 13 and the reverse osmosis membrane 14.
As can be seen from the above description, before the water in the water tank 12 is pumped by the booster pump 13 and filtered by the reverse osmosis membrane 14, the water is further filtered by the second activated carbon filter 3, so as to further reduce the operation pressure of the reverse osmosis membrane 14.
Furthermore, a first water outlet valve 4 and a pressure switch 5 are arranged between the pipelines connected with the reverse osmosis membrane 14 and the cold water tank 21;
a water inlet end pipeline of the first water outlet valve 4 is connected with a reverse osmosis membrane 14;
the pressure switch 5 is positioned at the water outlet end of the first water outlet valve 4, and the lines of the pressure switch 5 are respectively connected with the booster pump 13 and the first water outlet valve 4.
As can be seen from the above description, when the pressure switch 5 monitors that the pressure of the pipeline connected to the cold water tank 21 is less than the set value (i.e. when the amount of drinking water in the cold water tank 21 is insufficient), the pressure switch 5 controls the first water outlet valve 4 to open and controls the booster pump 13 to pump water in the lower water tank 12, so as to prepare drinking water through the reverse osmosis membrane 14. When the pressure switch 5 monitors that the pressure of the pipeline connected with the cold water tank 21 reaches a set value (namely, the drinking water in the cold water tank 21 is sufficient), the pressure switch 5 controls the first water outlet valve 4 to be closed and controls the booster pump 13 to stop working.
Furthermore, a first water outlet valve 4 is arranged between pipelines connected with the reverse osmosis membrane 14 and the cold water tank 21, a second water level probe 211 is arranged in the cold water tank 21, and lines of the second water level probe 211 are respectively connected with the booster pump 13 and the first water outlet valve 4.
As can be seen from the above description, when the second water level probe 211 disposed in the cold water tank 21 monitors that the amount of drinking water in the cold water tank 21 is lower than a set value, the first water outlet valve 4 is controlled to be opened and the booster pump 13 is controlled to pump water in the lower water tank 12, so as to prepare drinking water through the reverse osmosis membrane 14. When the drinking water amount in the monitoring cold water tank 21 reaches a set value, the first water outlet valve 4 is controlled to be closed and the booster pump 13 is controlled to stop working.
Further, a third activated carbon filter 6 is arranged between the cold water tank 21 and the pipeline connected with the first water outlet valve 4, and a fourth activated carbon filter 212 and a second UV sterilizer 213 are arranged in the cold water tank 21.
As can be seen from the above description, the drinking water filtered by the reverse osmosis membrane 14 is further filtered by the third activated carbon filter 6, and finally enters the cold water tank 21 for storage, and meanwhile, the fourth activated carbon filter 212 and the second UV sterilizer 213 are disposed in the cold water tank 21, so that the drinking water in the cold water tank 21 can be further filtered and sterilized. So as to ensure the safety of opening the water outlet device 22 to take out the drinking water in the cold water tank 21.
Furthermore, a hot tank 7 is arranged in the indoor unit 2, and pipelines of the hot tank 7 are respectively connected with a cold water tank 21 and a water outlet device 22.
As can be seen from the above description, the hot tank 7 is disposed in the indoor unit 2, and the pipes of the hot tank 7 are respectively connected to the cold water tank 21 and the water outlet 22, so that hot water can be drunk when drinking the drinking water.
Further, the water outlet device 22 comprises a three-way water outlet pump 221, a second water outlet valve 222, a water outlet pump 223 and a third water outlet valve 224;
a water inlet end pipeline of the three-way water outlet pump 221 is connected with the cold water tank 21, a water outlet end pipeline of the three-way water outlet pump 221 is connected with the third UV sterilizer 8, a pipeline of the third UV sterilizer 8 is connected with the cold water tank 21, and the other water outlet end pipeline of the three-way water outlet pump 221 is connected with the second water outlet valve 222;
the water inlet end pipeline of the water outlet pump 223 is connected with the hot tank 7, and the water outlet end pipeline of the water outlet pump 223 is connected with the third water outlet valve 224.
As can be seen from the above description, when the water is not used, the three-way water pump 221 may periodically pump the drinking water in the cold water tank 21 into the third UV sterilizer 8, and finally, the drinking water flows back into the cold water tank 21, so that the water can be sterilized. The hot tank 7 can heat the drinking water inside at regular time, thus not only ensuring that hot water is provided when the hot water needs to be drunk, but also sterilizing the water.
Example one
Referring to fig. 1, an air to water supply system includes an outdoor unit 1 and an indoor unit 2; the outdoor unit 1 comprises an air water generator 11, a lower water tank 12, a booster pump 13, a reverse osmosis membrane 14 and a wastewater ratio 15; the air water generator 11 is connected with the lower water tank 12 through a pipeline; the lower water tank 12 is connected with the water inlet end of the booster pump 13 through a pipeline; a water outlet end pipeline of the booster pump 13 is connected with a reverse osmosis membrane 14; the reverse osmosis membrane 14 is connected with a wastewater ratio of 15 through a pipeline; the wastewater ratio 15 is connected with the lower water tank 12 through a pipeline; the indoor unit 2 comprises a cold water tank 21 and a water outlet device 22; the pipeline of the cold water tank 21 is respectively connected with the reverse osmosis membrane 14 and the water outlet device 22.
The air water generator 11 comprises an air filter screen 111, a water generating system 112 and a water receiving tray 113; the air filter 111 is connected with a water production system 112 through a pipeline; a water receiving tray 113 is arranged at the water outlet end of the water production system 112; the water receiving tray 113 is connected with the lower water tank 12 through a pipeline. A first water level probe 121 is arranged in the lower water tank 12, and the first water level probe 121 is connected with the air water generator 11 through a line; a first activated carbon filter 122 and a first UV sterilizer 123 are disposed in the lower water tank 12.
And a second activated carbon filter 3 is arranged on a connecting pipeline between the booster pump 13 and the reverse osmosis membrane 14. A first water outlet valve 4 and a pressure switch 5 are arranged between the pipelines connected with the reverse osmosis membrane 14 and the cold water tank 21; a water inlet end pipeline of the first water outlet valve 4 is connected with a reverse osmosis membrane 14; the pressure switch 5 is positioned at the water outlet end of the first water outlet valve 4, and the lines of the pressure switch 5 are respectively connected with the booster pump 13 and the first water outlet valve 4. A third activated carbon filter 6 is arranged between the pipelines connected with the first water outlet valve 4 and the cold water tank 21, and a fourth activated carbon filter 212 and a second UV sterilizer 213 are arranged in the cold water tank 21.
A hot tank 7 is arranged in the indoor unit 2, and pipelines of the hot tank 7 are respectively connected with a cold water tank 21 and a water outlet device 22. The water outlet device 22 comprises a three-way water outlet pump 221, a second water outlet valve 222, a water outlet pump 223 and a third water outlet valve 224; a water inlet end pipeline of the three-way water outlet pump 221 is connected with the cold water tank 21, a water outlet end pipeline of the three-way water outlet pump 221 is connected with the third UV sterilizer 8, a pipeline of the third UV sterilizer 8 is connected with the cold water tank 21, and the other water outlet end pipeline of the three-way water outlet pump 221 is connected with the second water outlet valve 222; the water inlet end pipeline of the water outlet pump 223 is connected with the hot tank 7, and the water outlet end pipeline of the water outlet pump 223 is connected with the third water outlet valve 224.
Example two
Referring to fig. 2, an air to water supply system includes an outdoor unit 1 and an indoor unit 2; the outdoor unit 1 comprises an air water generator 11, a lower water tank 12, a booster pump 13, a reverse osmosis membrane 14 and a wastewater ratio 15; the air water generator 11 is connected with the lower water tank 12 through a pipeline; the lower water tank 12 is connected with the water inlet end of the booster pump 13 through a pipeline; a water outlet end pipeline of the booster pump 13 is connected with a reverse osmosis membrane 14; the reverse osmosis membrane 14 is connected with a wastewater ratio of 15 through a pipeline; the wastewater ratio 15 is connected with the lower water tank 12 through a pipeline; the indoor unit 2 comprises a cold water tank 21 and a water outlet device 22; the pipeline of the cold water tank 21 is respectively connected with the reverse osmosis membrane 14 and the water outlet device 22.
The air water generator 11 comprises an air filter screen 111, a water generating system 112 and a water receiving tray 113; the air filter 111 is connected with a water production system 112 through a pipeline; a water receiving tray 113 is arranged at the water outlet end of the water production system 112; the water receiving tray 113 is connected with the lower water tank 12 through a pipeline. A first water level probe 121 is arranged in the lower water tank 12, and the first water level probe 121 is connected with the air water generator 11 through a line; a first activated carbon filter 122 and a first UV sterilizer 123 are disposed in the lower water tank 12.
And a second activated carbon filter 3 is arranged on a connecting pipeline between the booster pump 13 and the reverse osmosis membrane 14. A first water outlet valve 4 is arranged between pipelines connected with the reverse osmosis membrane 14 and the cold water tank 21, a second water level probe 211 is arranged in the cold water tank 21, and the lines of the second water level probe 211 are respectively connected with the booster pump 13 and the first water outlet valve 4. A third activated carbon filter 6 is arranged between the pipelines connected with the first water outlet valve 4 and the cold water tank 21, and a fourth activated carbon filter 212 and a second UV sterilizer 213 are arranged in the cold water tank 21.
A hot tank 7 is arranged in the indoor unit 2, and pipelines of the hot tank 7 are respectively connected with a cold water tank 21 and a water outlet device 22. The water outlet device 22 comprises a three-way water outlet pump 221, a second water outlet valve 222, a water outlet pump 223 and a third water outlet valve 224; a water inlet end pipeline of the three-way water outlet pump 221 is connected with the cold water tank 21, a water outlet end pipeline of the three-way water outlet pump 221 is connected with the third UV sterilizer 8, a pipeline of the third UV sterilizer 8 is connected with the cold water tank 21, and the other water outlet end pipeline of the three-way water outlet pump 221 is connected with the second water outlet valve 222; the water inlet end pipeline of the water outlet pump 223 is connected with the hot tank 7, and the water outlet end pipeline of the water outlet pump 223 is connected with the third water outlet valve 224.
In summary, the utility model provides an air water making and supplying system, which extracts water condensed from air by an air water making device, collects the water in a lower water tank, extracts water in the lower water tank by a booster pump, and divides the water into drinking water and waste water by a reverse osmosis membrane, the drinking water enters a cold water tank through a pipeline, the waste water enters the lower water tank again through the pipeline, and the drinking water is filtered by the reverse osmosis membrane again after the drinking water is processed. Thereby realizing the circular treatment of the wastewater and reducing the waste of resources.
The above description is only an embodiment of the present invention, and not intended to limit the scope of the present invention, and all equivalent changes made by using the contents of the present specification and the drawings, or applied directly or indirectly to the related technical fields, are included in the scope of the present invention.
Claims (9)
1. An air system water supply system which characterized in that: comprises an outdoor unit and an indoor unit;
the outdoor unit comprises an air water generator, a lower water tank, a booster pump, a reverse osmosis membrane and a wastewater ratio;
the pipeline of the air water generator is connected with the lower water tank; the lower water tank pipeline is connected with the water inlet end of the booster pump; the water outlet end pipeline of the booster pump is connected with a reverse osmosis membrane; the reverse osmosis membrane pipeline is connected with a wastewater ratio; the waste water ratio pipeline is connected with a lower water tank;
the indoor unit comprises a cold water tank and a water outlet device; and the pipeline of the cold water tank is respectively connected with a reverse osmosis membrane and a water outlet device.
2. An air to water supply system according to claim 1, wherein: the air water generator comprises an air filter screen, a water generating system and a water receiving tray; the air filter screen pipeline is connected with a water production system; a water receiving disc is arranged at the water outlet end of the water production system; the water receiving tray pipeline is connected with the lower water tank.
3. An air to water supply system according to claim 1, wherein: a first water level probe is arranged in the lower water tank, and the first water level probe is connected with an air water generator through a line;
and a first activated carbon filter and a first UV sterilizer are arranged in the lower water tank.
4. An air to water supply system according to claim 1, wherein: and a second activated carbon filter is arranged on a connecting pipeline between the booster pump and the reverse osmosis membrane.
5. An air to water supply system according to claim 1, wherein: a first water outlet valve and a pressure switch are arranged between pipelines connected with the reverse osmosis membrane and the cold water tank;
a water inlet end pipeline of the first water outlet valve is connected with a reverse osmosis membrane;
the pressure switch is positioned at the water outlet end of the first water outlet valve, and the pressure switch circuit is respectively connected with the booster pump and the first water outlet valve.
6. An air to water supply system according to claim 1, wherein: a first water outlet valve is arranged between pipelines connected with the reverse osmosis membrane and the cold water tank, a second water level probe is arranged in the cold water tank, and a circuit of the second water level probe is respectively connected with the booster pump and the first water outlet valve.
7. An air to water supply system according to claim 1, wherein: and a third activated carbon filter is arranged between the pipelines connected with the cold water tank and the first water outlet valve, and a fourth activated carbon filter and a second UV sterilizer are arranged in the cold water tank.
8. An air to water supply system according to claim 1, wherein: and a hot tank is arranged in the indoor unit, and a pipeline of the hot tank is respectively connected with the cold water tank and the water outlet device.
9. An air to water supply system according to claim 1, wherein: the water outlet device comprises a three-way water outlet pump, a second water outlet valve, a water outlet pump and a third water outlet valve;
a water inlet end pipeline of the three-way water outlet pump is connected with the cold water tank, a water outlet end pipeline of the three-way water outlet pump is connected with a third UV sterilizer, a pipeline of the third UV sterilizer is connected with the cold water tank, and the other water outlet end pipeline of the three-way water outlet pump is connected with a second water outlet valve;
and a water inlet end pipeline of the water outlet pump is connected with the hot tank, and a water outlet end pipeline of the water outlet pump is connected with a third water outlet valve.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202122026991.9U CN215712357U (en) | 2021-08-26 | 2021-08-26 | Air system water supply system |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202122026991.9U CN215712357U (en) | 2021-08-26 | 2021-08-26 | Air system water supply system |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN215712357U true CN215712357U (en) | 2022-02-01 |
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| Application Number | Title | Priority Date | Filing Date |
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| CN202122026991.9U Active CN215712357U (en) | 2021-08-26 | 2021-08-26 | Air system water supply system |
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| CN (1) | CN215712357U (en) |
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2021
- 2021-08-26 CN CN202122026991.9U patent/CN215712357U/en active Active
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