CN218583485U - Variable frequency air conditioning system - Google Patents
Variable frequency air conditioning system Download PDFInfo
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- CN218583485U CN218583485U CN202222413788.1U CN202222413788U CN218583485U CN 218583485 U CN218583485 U CN 218583485U CN 202222413788 U CN202222413788 U CN 202222413788U CN 218583485 U CN218583485 U CN 218583485U
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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
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- Y02B—CLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
- Y02B30/00—Energy efficient heating, ventilation or air conditioning [HVAC]
- Y02B30/70—Efficient control or regulation technologies, e.g. for control of refrigerant flow, motor or heating
Abstract
The application relates to the technical field of air conditioning systems, in particular to a variable frequency air conditioning system. The variable frequency air conditioning system comprises a heat exchange circulating path, a refrigerant flow path and a main water path. The heat exchange circulation path comprises a first heat exchanger, a throttle valve, a first valve and a second heat exchanger, wherein the first heat exchanger, the throttle valve and the first valve are sequentially connected in series, and the second heat exchanger is provided with a first circulation port. The refrigerant flow path is communicated with the heat exchange circulation path and comprises an inlet and an outlet, the inlet is located between the first circulation port and the first valve, the outlet is located between the first valve and the second circulation port, and the refrigerant flow path further comprises a liquid cooling radiator which is connected with the first valve in parallel. The main water path is respectively connected with the first heat exchanger and communicated with the inlet of the liquid cooling radiator. The application has the advantages that: through setting up main water route and refrigerant flow path, eliminated under the refrigeration state refrigerant radiator to the influence of variable frequency air conditioning system, can reduce the refrigerant temperature, indirectly improved variable frequency air conditioning system's whole refrigerating output.
Description
Technical Field
The application relates to the technical field of air conditioning systems, in particular to a variable frequency air conditioning system.
Background
The inverter air conditioner is an air conditioner with an inverter, wherein the inverter is used for controlling and adjusting the rotating speed of the compressor, so that the compressor is always in the optimal rotating speed state, the energy efficiency ratio is improved, and the energy-saving effect is achieved.
The air conditioner frequency converter mainly dissipates heat through the liquid cooling radiator, the existing liquid cooling radiator is connected to a heat exchange circulating path of an air conditioning system, and the cooling temperature control of the air conditioner frequency converter is realized through a refrigerant in the heat exchange circulating path. However, the use of the refrigerant at the liquid cooling radiator causes the temperature of the refrigerant in the air conditioning system to rise, so that the refrigerating capacity of the air conditioner is reduced, and the refrigerating performance of the air conditioning system is affected.
SUMMERY OF THE UTILITY MODEL
In view of the above, it is desirable to provide an inverter air conditioning system capable of reducing the temperature of the refrigerant.
An inverter air conditioning system comprising: the heat exchange circulation path comprises a first heat exchanger, a throttle valve, a first valve and a second heat exchanger, wherein the first heat exchanger, the throttle valve and the first valve are sequentially connected in series; the refrigerant flow path is communicated with the heat exchange circulating path; the refrigerant flow path comprises an inlet and an outlet, the inlet is positioned between the first circulation port and the first valve, the outlet is positioned between the first valve and the second circulation port, and the refrigerant flow path further comprises a liquid cooling radiator which is connected with the first valve in parallel; the main water path is respectively connected with the first heat exchanger and is communicated with an inlet of the liquid cooling radiator; when the variable frequency air conditioning system is in a first state, the heat exchange circulation path and the main water path operate, the refrigerant flow path is closed, and condensed water of the first heat exchanger can enter the liquid cooling radiator through the main water path; when the variable frequency air conditioning system is in a second state, the heat exchange circulation path and the main water path run, the refrigerant flow path is closed, and cooling water in the main water path can enter the liquid cooling radiator; when the variable frequency air conditioning system is in a third state, the heat exchange circulation path and the refrigerant flow path operate, the first valve and the main water path are closed, and refrigerant of the heat exchange circulation path can enter the refrigerant flow path and enters the heat exchange circulation path from the refrigerant flow path after being acted by the liquid cooling radiator; when the variable frequency air conditioning system is in a fourth state, the heat exchange circulation path operates, and the refrigerant flow path and the main water path are closed.
It can be understood that the inverter air conditioning system that this application provided forms an independent water-cooling route through setting up main water route and refrigerant flow path to make the liquid cooling radiator not go into the refrigerant under can the refrigeration state, can not cause the rising of refrigerant temperature, eliminated the influence of refrigerant radiator to inverter air conditioning system in traditional inverter air conditioning system under the refrigeration state, equivalent to the indirect whole refrigerating capacity that has improved inverter air conditioning system.
In one embodiment, the main waterway comprises: a liquid storage tank; the two ends of the first branch are respectively communicated with the first heat exchanger and the liquid storage tank; the two ends of the second branch are respectively communicated with the liquid storage tank and the inlet of the liquid cooling radiator; the third branch is communicated with the liquid storage tank and used for supplying cooling water to the liquid storage tank; when the variable frequency air conditioning system is in the first state, condensed water of the first heat exchanger flows into the liquid storage tank through the first branch, cooling water of the third branch flows into the liquid storage tank, and the cooling water in the liquid storage tank flows into the liquid cooling radiator through the second branch; when the variable frequency air conditioning system is in the second state, the cooling water of the third branch flows into the liquid storage tank, and the cooling water in the liquid storage tank flows into the liquid cooling radiator through the second branch.
So set up, main water route can play the effect of providing the cooling water for liquid cooling radiator.
In one embodiment, the second branch comprises: a second valve positioned between the liquid storage tank and the liquid-cooled heat sink; when the variable frequency air conditioning system is in the first state or the second state, the first valve and the second valve are both opened; when the variable frequency air conditioning system is in the third state, the first valve and the second valve are both closed; when the variable-frequency air conditioning system is in the fourth state, the first valve is opened, and the second valve is closed.
So configured, the second valve can control the opening or closing of the second branch.
In one embodiment, the third branch comprises: a reservoir; the first water pump is located between the water storage tank and the water storage tank, and the first water pump can pump cooling water in the water storage tank to the interior of the water storage tank.
So set up, can supply the cooling water in the liquid storage tank.
In one embodiment, the refrigerant flow path further includes: a third valve positioned between the first fluid port and an inlet of the liquid-cooled heat sink; a fourth valve positioned between the second flow port and an inlet of the liquid-cooled heat sink; when the variable frequency air conditioning system is in the first state or the second state, the third valve and the fourth valve are both closed; when the variable frequency air conditioning system is in the third state, the third valve and the fourth valve are both opened; and when the variable-frequency air conditioning system is in the fourth state, the third valve and the fourth valve are both closed.
By such arrangement, the refrigerant flow path can be opened or closed.
In one embodiment, the refrigerant flow path further includes: and the drying filter is positioned between the fourth valve and the outlet of the liquid cooling radiator.
So set up, can absorb remaining moisture in the liquid cooling radiator.
In one embodiment, the inverter air conditioning system further includes: and the collecting water path is communicated with an outlet of the liquid cooling radiator.
So set up, can collect cooling water or the refrigerant that the export of liquid cooling radiator flows out.
In one embodiment, the collection waterway comprises: and the fourth branch comprises a waste liquid tank, and the waste liquid tank is communicated with the outlet of the liquid cooling radiator.
So set up, can collect remaining refrigerant or impurity in the liquid cooling radiator.
In one embodiment, the collection waterway further comprises: the fifth branch is communicated with an outlet of the liquid cooling radiator and comprises a filtering device, a disinfection tank and a water storage tank, and cooling water flowing out of the liquid cooling radiator can sequentially enter the filtering device, the disinfection tank and the water storage tank.
By the arrangement, the utilization rate of resources and the environmental protection performance of the variable frequency air conditioning system can be improved.
In one embodiment, the collection waterway further comprises: a fifth valve located in the fourth branch and between the waste tank and the outlet of the liquid-cooled heat sink; and the sixth valve is positioned on the fifth branch and between the filtering device and the outlet of the liquid cooling radiator.
So set up, can open or close fourth branch road, fifth branch road.
Compared with the prior art, the variable frequency air conditioning system provided by the application eliminates the influence of a refrigerant radiator on the variable frequency air conditioning system in a refrigerating state by arranging the main water path and the refrigerant flow path, can reduce the temperature of the refrigerant, and indirectly improves the overall refrigerating capacity of the variable frequency air conditioning system.
Drawings
In order to more clearly illustrate the technical solutions in the embodiments or the conventional technologies of the present application, the drawings used in the descriptions of the embodiments or the conventional technologies will be briefly introduced below, it is obvious that the drawings in the following descriptions are only some embodiments of the present application, and for those skilled in the art, other drawings can be obtained according to the drawings without creative efforts.
Fig. 1 is a schematic diagram of an inverter air conditioning system provided in the present application.
The symbols in the drawings represent the following meanings:
100. a variable frequency air conditioning system; 10. a heat exchange circulation path; 11. a first heat exchanger; 12. a throttle valve; 121. a first circulation port; 13. a first valve; 14. a second heat exchanger; 141. a second flow port; 15. a compressor; 20. a refrigerant flow path; 21. an inlet; 22. an outlet; 23. a liquid-cooled radiator; 24. a third valve; 25. a fourth valve; 26. drying the filter; 30. a main waterway; 31. a liquid storage tank; 32. a first branch; 33. a second branch circuit; 331. a second valve; 34. a third branch; 341. a reservoir; 342. a first water pump; 40. a collection waterway; 41. a fourth branch; 411. a waste liquid tank; 412. a fifth valve; 42. a fifth branch; 421. a filtration device; 422. a disinfection tank; 423. a water storage tank; 424. a sixth valve; 425. and a second water pump.
Detailed Description
In order to make the aforementioned objects, features and advantages of the present application more comprehensible, embodiments accompanying the present application are described in detail below with reference to the accompanying drawings. In the following description, numerous specific details are set forth in order to provide a thorough understanding of the present application. This application is capable of embodiments in many different forms than those described herein and that modifications may be made by one skilled in the art without departing from the spirit and scope of the application and it is therefore not intended to be limited to the specific embodiments disclosed below.
It will be understood that when an element is referred to as being "secured to" or "disposed" on another element, it can be directly on the other element or intervening elements may also be present. When a component is referred to as being "connected" to another component, it can be directly connected to the other component or intervening components may also be present. The terms "vertical," "horizontal," "upper," "lower," "left," "right," and the like as used in the description of the present application are for illustrative purposes only and do not represent the only embodiments.
Furthermore, the terms "first", "second" and "first" are used for descriptive purposes only and are not to be construed as indicating or implying relative importance or to implicitly indicate the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include at least one such feature. In the description of the present application, "plurality" means at least two, e.g., two, three, etc., unless explicitly specified otherwise.
In this application, unless expressly stated or limited otherwise, the first feature "on" or "under" the second feature may mean that the first feature is in direct contact with the second feature, or that the first feature and the second feature are in indirect contact via an intermediate. Also, a first feature "on," "above," and "over" a second feature may be directly on or obliquely above the second feature, or may simply mean that the first feature is at a higher level than the second feature. A first feature being "under," "below," and "beneath" a second feature may be directly under or obliquely under the first feature, or may simply mean that the first feature is at a lesser elevation than the second feature.
Unless defined otherwise, all technical and scientific terms used in the specification of the present application have the same meaning as commonly understood by one of ordinary skill in the art to which the present application belongs. The terminology used in the description of the present application is for the purpose of describing particular embodiments only and is not intended to be limiting of the application. As used in the description of this application, the term "and/or" includes any and all combinations of one or more of the associated listed items.
Referring to fig. 1, the present application provides an inverter air conditioning system 100, wherein the inverter air conditioning system 100 controls a frequency during operation through an inverter (not shown).
The air conditioner frequency converter mainly dissipates heat through the liquid cooling radiator, the existing liquid cooling radiator is connected to a heat exchange circulating path of an air conditioning system, and the cooling temperature control of the air conditioner frequency converter is realized through a refrigerant in the heat exchange circulating path. However, the use of the refrigerant at the liquid cooling radiator causes the temperature of the refrigerant in the air conditioning system to rise, so that the refrigerating capacity of the air conditioner is reduced, and the refrigerating performance of the air conditioning system is affected.
Referring to fig. 1, the present application provides an inverter air conditioning system 100, where the inverter air conditioning system 100 includes a heat exchange circulation path 10, a refrigerant flow path 20, and a main water path 30.
The heat exchange circulation path 10 includes a first heat exchanger 11, a throttle valve 12 having a first circulation port 121, a first valve 13, and a second heat exchanger 14 having a second circulation port 141, which are sequentially provided in series. The heat exchange circulation path 10 further includes a compressor 15 and a switching valve (not shown), and the compressor 15 is connected to the first heat exchanger 11 and the second heat exchanger 14 through the switching valve. The heat exchange circulation path 10 is filled with a refrigerant and exchanges heat with the outside.
The refrigerant flow path 20 is communicated with the heat exchange circulation path 10; the cooling medium flow path 20 includes an inlet 21 and an outlet 22, the inlet 21 is located between the first circulation port 121 and the first valve 13, the outlet 22 is located between the first valve 13 and the second circulation port 141, and the cooling medium flow path 20 further includes a liquid cooling radiator 23 connected in parallel with the first valve 13. When the refrigerant flow path 20 is in operation, the refrigerant in the heat exchange circulation path 10 can flow into the refrigerant flow path 20, and is used for cooling the inverter through the liquid cooling radiator 23.
The main water passage 30 is connected to the first heat exchanger 11 and communicates with an inlet of the liquid-cooled radiator 23. The main water path 30 is internally circulated with cooling water, and when the main water path 30 operates, the cooling water in the main water path 30 can flow into the liquid cooling radiator 23 for cooling the frequency converter.
When the variable frequency air conditioning system 100 is in the first state, the heat exchange circulation path 10 and the main water path 30 operate, the refrigerant flow path 20 is closed, and the condensed water of the first heat exchanger 11 can enter the liquid cooling radiator 23 through the main water path 30. That is, in the first state, the liquid-cooled radiator 23 is cooled by water cooling.
When the inverter air conditioning system 100 is in the second state, the heat exchange circulation path 10 and the main water path 30 operate, the refrigerant flow path 20 is closed, and the cooling water in the main water path 30 can enter the liquid cooling radiator 23. That is, in the second state, the liquid-cooled radiator 23 is cooled by water cooling.
When the inverter air conditioning system 100 is in the third state, the heat exchange circulation path 10 and the refrigerant flow path 20 operate, the first valve 13 and the main water path 30 are closed, and the refrigerant in the heat exchange circulation path 10 can enter the refrigerant flow path 20, and enters the heat exchange circulation path 10 from the refrigerant flow path 20 after being acted by the liquid cooling radiator 23. In the third state, the liquid-cooled heat sink 23 is cooled by the refrigerant.
When the inverter air conditioning system 100 is in the fourth state, the heat exchange circulation path 10 is operated, and the refrigerant flow path 20 and the main water path 30 are closed. That is, in the fourth state, the liquid-cooled radiator 23 relies on natural cooling.
The first state is a cooling state of the inverter air conditioning system 100, and when the inverter air conditioning system 100 cools, the first heat exchanger 11 functions as an evaporator and is capable of generating condensed water. The second state is a high-frequency heating state of the inverter air-conditioning system 100, the third state is a medium-frequency heating state of the inverter air-conditioning system 100, and the fourth state is a low-frequency heating state of the inverter air-conditioning system 100, and when the inverter air-conditioning system 100 heats, the first heat exchanger 11 is used as a condenser, and no condensed water is generated.
It should be noted that, in this embodiment, the high frequency state of the inverter air conditioning system 100 is greater than 80HZ, the intermediate frequency state of the inverter air conditioning system 100 is 40HZ to 80HZ, and the low frequency state of the inverter air conditioning system 100 is less than 40HZ. Of course, in other embodiments, the high frequency, the intermediate frequency, and the low frequency of the inverter air conditioning system 100 may be further divided according to the actual operation condition of the air conditioner, for example, the high frequency of the inverter air conditioning system 100 may be greater than 90HZ, the intermediate frequency of the inverter air conditioning system 100 may be 50HZ to 90HZ, and the low frequency of the inverter air conditioning system 100 may be less than 50 HZ.
The application provides an inverter air conditioning system 100 forms an independent water-cooling route through setting up main water route 30 and refrigerant flow path 20 to can make liquid cooling radiator 23 not inject the refrigerant under the refrigeration state, can not cause the rising of refrigerant temperature, eliminate under the refrigeration mode among traditional inverter air conditioning system liquid cooling radiator to inverter air conditioning system's influence, thereby the whole refrigerating output that has improved inverter air conditioning system 100 in other words. Meanwhile, the condensate water formed in the refrigeration state has rich cold energy, and when the condensate water is used for the liquid cooling radiator 23, a better cooling effect can be achieved.
Under the high-frequency heating state, the frequency converter runs fully, more heat can be generated, the performance of cooling water is superior to that of a refrigerant, the cooling effect of the liquid cooling radiator 23 can be enhanced by adopting the cooling water as a cooling medium, the temperature controllability of the frequency converter is enhanced, and the reliability of the frequency converter is enhanced.
In the intermediate-frequency heating state, the heat generated by the frequency converter is reduced, and at the moment, the liquid cooling radiator 23 is communicated into the heat exchange circulation path 10, so that the good heat exchange effect can be realized by the refrigerant in the heat exchange circulation path 10. At this time, the water cooling path can be closed, thereby reducing the power consumption of the inverter air conditioning system 100.
In the low-frequency heating state, if the heat dissipation requirement of the inverter is not high, the liquid-cooled radiator 23 is naturally cooled without cooling by cooling water or a refrigerant, thereby further reducing the energy consumption of the inverter air conditioning system 100.
Because the cooling water circulation path and the refrigerant circulation path are relatively independent, the risk resistance of the frequency converter during cooling can be improved. When the cooling water is cooled, the cooling medium can be switched to cool; when the cooling of the refrigerant has a problem, the cooling water can be switched to cool. Therefore, the accuracy and the reliability of the frequency converter during cooling are enhanced, and reasonable configuration and use of energy sources can be realized.
Meanwhile, the inverter air conditioning system 100 provided by the present application can utilize condensed water generated during refrigeration. Because the condensed water is recycled, the problem that the condensed water in the traditional variable frequency air conditioning system is randomly discharged is solved, the condensed water is changed into valuables, and the energy utilization rate and the environmental protection performance of the variable frequency air conditioning system 100 are improved.
Referring to fig. 1, the main waterway 30 includes a reservoir 31, a first branch 32, a second branch 33 and a third branch 34. Two ends of the first branch 32 are respectively communicated with the first heat exchanger 11 and the liquid storage tank 31. The two ends of the second branch 33 are respectively communicated with the liquid storage tank 31 and the inlet of the liquid cooling radiator 23. The third branch 34 is communicated with the reservoir 31, and the third branch 34 is used for supplying the reservoir 31 with cooling water. When the variable frequency air conditioning system 100 is in the first state, the condensed water of the first heat exchanger 11 flows into the reservoir 31 through the first branch 32, the cooling water of the third branch 34 flows into the reservoir 31, and the cooling water in the reservoir 31 flows into the liquid-cooled radiator 23 through the second branch 33. When the variable frequency air conditioning system 100 is in the second state, the cooling water in the third branch 34 flows into the liquid storage tank 31, and the cooling water in the liquid storage tank 31 flows into the liquid cooling radiator 23 through the second branch 33.
Specifically, the main water passage 30 functions to supply the liquid-cooled radiator 23 with cooling water. The first branch line 32 mainly collects, transfers, and stores the condensate water generated in the first heat exchanger 11 in the cooling state in the reservoir tank 31. The third branch 34 supplements the cooling water in the liquid storage tank 31 to ensure that the liquid in the liquid storage tank 31 is sufficient to satisfy the consumption of the liquid cooling radiator 23. The second branch line 33 communicates with the liquid-cooled radiator 23 and supplies the liquid-cooled radiator 23 with the cooling water in the reservoir tank 31.
Further, since the first heat exchanger 11 only generates condensed water in the cooling state, the condensed water and the cooling water supplemented by the third branch 34 are mainly in the reservoir 31. In the heating state, the cooling water in the reservoir 31 is mainly supplemented to the third branch 34. For convenience of description, the liquid obtained by mixing the condensed water with the cooling water supplemented by the third branch 34 is collectively referred to as cooling water in the present application.
Referring to fig. 1, the second branch 33 includes a second valve 331, and the second valve 331 is located between the liquid storage tank 31 and the liquid-cooled heat sink 23. When the variable frequency air conditioning system 100 is in the first state or the second state, both the first valve 13 and the second valve 331 are opened. When the variable frequency air conditioning system 100 is in the third state, both the first valve 13 and the second valve 331 are closed. When the variable frequency air conditioning system 100 is in the fourth state, the first valve 13 is opened, and the second valve 331 is closed.
Specifically, the second valve 331 can control the opening or closing of the second branch 33. When the inverter air-conditioning system 100 is in a cooling state or a high-frequency heating state, the second valve 331 controls the second branch 33 to open, and the liquid-cooling radiator 23 exchanges heat with the inverter through the cooling water conveyed by the second branch 33. When the inverter air conditioning system 100 is in the intermediate-frequency heating state, the second valve 331 controls the second branch 33 to close, so as to prevent the cooling water in the liquid storage tank 31 from entering the liquid cooling radiator 23 and mixing with the refrigerant. When the variable frequency air conditioning system 100 is in the low frequency heating state, the second valve 331 controls the second branch 33 to close, and the liquid cooling radiator 23 cools naturally, thereby reducing energy consumption.
The third branch 34 includes a water reservoir 341 and a first water pump 342. The first water pump 342 is disposed between the reservoir 341 and the reservoir 31, and the first water pump 342 is capable of pumping the cooling water in the reservoir 341 into the reservoir 31.
The third branch 34 is used for replenishing the cooling water in the reservoir 31. Specifically, the cooling water in the reservoir 341 is mainly supplemented by the ground water, and the cooling water in the reservoir 341 is pumped into the reservoir 31 by the first water pump 342 to supplement the cooling water in the reservoir 31.
Referring to fig. 1, the refrigerant flow path 20 further includes: a third valve 24 and a fourth valve 25. The third valve 24 is located between the first circulation port 121 and the inlet of the liquid cooling radiator 23; the fourth valve 25 is located between the second flow port 141 and the inlet of the liquid-cooled heat sink 23. When the variable frequency air conditioning system 100 is in the first state or the second state, both the third valve 24 and the fourth valve 25 are closed. When the variable frequency air conditioning system 100 is in the third state, both the third valve 24 and the fourth valve 25 are opened. When the variable frequency air conditioning system 100 is in the fourth state, both the third valve 24 and the fourth valve 25 are closed.
Specifically, the third valve 24 and the fourth valve 25 cooperate to open or close the refrigerant flow path 20. When the inverter air conditioning system 100 is in a cooling state or a high-frequency heating state, the third valve 24 and the fourth valve 25 control the refrigerant flow path 20 to be closed, so as to prevent the refrigerant of the heat exchange circulation path 10 from flowing into the refrigerant flow path 20, which causes waste of the refrigerant. When the inverter air conditioning system 100 is in the intermediate-frequency heating state, the third valve 24 and the fourth valve 25 control the opening of the refrigerant flow path 20, and the liquid cooling radiator 23 exchanges heat with the inverter through the refrigerant flowing into the refrigerant flow path 20 from the heat exchange circulation path 10. When the inverter air conditioning system 100 is in the low-frequency heating state, the third valve 24 and the fourth valve 25 control the refrigerant flow path 20 to be closed, and the liquid cooling radiator 23 naturally cools down, so that the loss of the refrigerant is reduced.
Further, the cooling medium flow path 20 includes a dry filter 26. The drier filter 26 is located between the fourth valve 25 and the outlet of the liquid-cooled radiator 23. By providing the dry filter 26, the residual moisture in the liquid cooling radiator 23 can be absorbed, and the moisture is prevented from being mixed into the refrigerant, thereby affecting the refrigeration performance of the variable frequency air conditioning system 100.
Referring to fig. 1, the inverter air conditioning system 100 further includes a collecting water path 40, and the collecting water path 40 is communicated with an outlet of the liquid cooling radiator 23. The collection water path 40 can collect the cooling water or the refrigerant flowing out through the outlet of the liquid-cooled radiator 23.
Specifically, the collecting water path 40 includes a fourth branch 41, the fourth branch 41 includes a waste liquid tank 411, and the waste liquid tank 411 is communicated with the outlet of the liquid-cooled radiator 23. When cooling water enters the liquid cooling radiator 23 for cooling, the cooling water introduced at the initial stage needs to flush and discharge the residual refrigerant or impurities in the liquid cooling radiator 23 into the waste liquid tank 411, so that the probability that the impurities enter the cooling water after heat exchange is reduced, and subsequent recycling is influenced.
Further, the collecting water path 40 further includes a fifth branch 42, the fifth branch 42 is communicated with the outlet of the liquid cooling radiator 23, the fifth branch 42 includes a filtering device 421, a sterilizing tank 422 and a water storage tank 423, and the cooling water flowing out of the liquid cooling radiator 23 can sequentially enter the filtering device 421, the sterilizing tank 422 and the water storage tank 423.
The cooling water flowing out of the liquid cooling radiator 23 can meet the daily use requirement through the treatment of the filtering device 421 and the disinfection tank 422. The fifth branch 42 further includes a second water pump 425, and the second water pump 425 can deliver the cooling water treated by the disinfection tank 422 to the water storage tank 423 for daily use. Thus, the resource utilization rate and the environmental protection performance of the variable frequency air conditioning system 100 are improved.
Further, the collecting water circuit 40 further includes a fifth valve 412 and a sixth valve 424. The fifth valve 412 is located on the fourth branch 41 and between the waste tank 411 and the outlet of the liquid-cooled radiator 23. A sixth valve 424 is located on the fifth branch 42 and between the filter 421 and the outlet of the liquid-cooled heat sink 23.
Specifically, the fifth valve 412 is used for opening or closing the fourth branch 41, and the sixth valve 424 is used for opening or closing the fifth branch 42. When the collecting water path 40 operates, the fifth valve 412 is first opened and the sixth valve 424 is closed, at this time, the fourth branch 41 is opened and the fifth branch 42 is closed, and the cooling water flushes the refrigerant or impurities remaining in the liquid-cooled radiator 23 and discharges the refrigerant or impurities to the waste liquid tank 411. Then, the sixth valve 424 is opened and the fifth valve 412 is closed, at this time, the fourth branch 41 is closed, the fifth branch 42 is opened, and the cooling water radiated by the liquid-cooled radiator 23 is processed and recycled in the fifth branch 42.
All possible combinations of the technical features of the above embodiments may not be described for the sake of brevity, but should be considered as within the scope of the present disclosure as long as there is no contradiction between the combinations of the technical features.
The above-mentioned embodiments only express several embodiments of the present application, and the description thereof is more specific and detailed, but not construed as limiting the claims. It should be noted that, for a person skilled in the art, several variations and modifications can be made without departing from the concept of the present application, which falls within the scope of protection of the present application. Therefore, the protection scope of the present application shall be subject to the appended claims.
Claims (10)
1. An inverter air conditioning system, comprising:
a heat exchange circulation path (10), the heat exchange circulation path (10) including a first heat exchanger (11), a throttle valve (12) having a first circulation port (121), a first valve (13), and a second heat exchanger (14) having a second circulation port (141) which are sequentially arranged in series;
a refrigerant flow path (20), wherein the refrigerant flow path (20) is communicated with the heat exchange circulation path (10); the refrigerant flow path (20) comprises an inlet (21) and an outlet (22), the inlet (21) is located between the first circulation port (121) and the first valve (13), the outlet (22) is located between the first valve (13) and the second circulation port (141), and the refrigerant flow path (20) further comprises a liquid cooling radiator (23) which is connected with the first valve (13) in parallel;
the main water path (30), the main water path (30) is respectively connected with the first heat exchanger (11) and is communicated with the inlet of the liquid cooling radiator (23);
when the variable frequency air conditioning system is in a first state, the heat exchange circulation path (10) and the main water path (30) operate, the refrigerant flow path (20) is closed, and condensed water of the first heat exchanger (11) can enter the liquid cooling radiator (23) through the main water path (30);
when the variable frequency air conditioning system is in a second state, the heat exchange circulation path (10) and the main water path (30) operate, the refrigerant flow path (20) is closed, and cooling water in the main water path (30) can enter the liquid cooling radiator (23);
when the variable frequency air conditioning system is in a third state, the heat exchange circulation path (10) and the refrigerant flow path (20) operate, the first valve (13) and the main water path (30) are closed, and the refrigerant of the heat exchange circulation path (10) can enter the refrigerant flow path (20) and enter the heat exchange circulation path (10) from the refrigerant flow path (20) after being acted by the liquid cooling radiator (23);
when the variable frequency air conditioning system is in a fourth state, the heat exchange circulation path (10) operates, and the refrigerant flow path (20) and the main water path (30) are closed.
2. The inverter air conditioning system of claim 1, wherein the main water circuit (30) comprises:
a liquid storage tank (31);
the two ends of the first branch (32) are respectively communicated with the first heat exchanger (11) and the liquid storage tank (31);
the two ends of the second branch (33) are respectively communicated with the liquid storage tank (31) and the inlet of the liquid cooling radiator (23);
a third branch (34), wherein the third branch (34) is communicated with the liquid storage tank (31), and the third branch (34) is used for supplying cooling water to the liquid storage tank (31);
when the variable frequency air conditioning system is in the first state, condensed water of the first heat exchanger (11) flows into the liquid storage tank (31) through the first branch (32), cooling water of the third branch (34) flows into the liquid storage tank (31), and cooling water in the liquid storage tank (31) flows into the liquid cooling radiator (23) through the second branch (33);
when the variable frequency air conditioning system is in the second state, the cooling water of the third branch (34) flows into the liquid storage tank (31), and the cooling water in the liquid storage tank (31) flows into the liquid cooling radiator (23) through the second branch (33).
3. The inverter air conditioning system according to claim 2, wherein the second branch (33) comprises:
a second valve (331), said second valve (331) being positioned between said reservoir (31) and said liquid-cooled heat sink (23);
when the variable frequency air conditioning system is in the first state or the second state, the first valve (13) and the second valve (331) are both opened; when the variable frequency air conditioning system is in the third state, the first valve (13) and the second valve (331) are both closed; when the variable frequency air conditioning system is in the fourth state, the first valve (13) is opened, and the second valve (331) is closed.
4. The inverter air conditioning system according to claim 3, wherein the third branch (34) comprises:
a reservoir (341);
a first water pump (342), wherein the first water pump (342) is positioned between the water storage tank (341) and the liquid storage tank (31), and the first water pump (342) can pump the cooling water in the water storage tank (341) into the liquid storage tank (31).
5. The inverter air conditioning system according to claim 1, wherein the refrigerant flow path (20) further comprises:
a third valve (24), said third valve (24) being located between said first flow port (121) and an inlet of said liquid-cooled heat sink (23);
a fourth valve (25), said fourth valve (25) being positioned between said second flow port (141) and an inlet of said liquid-cooled heat sink (23);
wherein when the variable frequency air conditioning system is in the first state or the second state, the third valve (24) and the fourth valve (25) are both closed; when the variable frequency air conditioning system is in the third state, the third valve (24) and the fourth valve (25) are both opened; when the variable frequency air conditioning system is in the fourth state, the third valve (24) and the fourth valve (25) are both closed.
6. The inverter air conditioning system according to claim 5, wherein the refrigerant flow path (20) further comprises:
a dry filter (26), said dry filter (26) being located between said fourth valve (25) and an outlet of said liquid-cooled radiator (23).
7. The inverter air conditioning system according to claim 1, further comprising:
a collection water path (40), the collection water path (40) being in communication with an outlet of the liquid-cooled heat sink (23).
8. The inverter air conditioning system according to claim 7, wherein the collection water circuit (40) comprises:
a fourth branch (41), the fourth branch (41) including a waste liquid tank (411), the waste liquid tank (411) being in communication with an outlet of the liquid cooling radiator (23).
9. The inverter air conditioning system according to claim 8, wherein the collection water circuit (40) further comprises:
fifth branch road (42), fifth branch road (42) with the export intercommunication of liquid cooling radiator (23), fifth branch road (42) are including filter equipment (421), disinfection pond (422) and water storage tank (423), the cooling water that liquid cooling radiator (23) flow can get into in proper order filter equipment (421), disinfection pond (422) water storage tank (423).
10. The inverter air conditioning system of claim 9, wherein the collection water circuit (40) further comprises:
a fifth valve (412), said fifth valve (412) located on said fourth branch (41) and between said waste tank (411) and an outlet of said liquid-cooled heat sink (23);
a sixth valve (424), said sixth valve (424) being located on said fifth branch (42) and being located between said filter means (421) and an outlet of said liquid-cooled heat sink (23).
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202222413788.1U CN218583485U (en) | 2022-09-09 | 2022-09-09 | Variable frequency air conditioning system |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202222413788.1U CN218583485U (en) | 2022-09-09 | 2022-09-09 | Variable frequency air conditioning system |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN218583485U true CN218583485U (en) | 2023-03-07 |
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Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN202222413788.1U Active CN218583485U (en) | 2022-09-09 | 2022-09-09 | Variable frequency air conditioning system |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN218583485U (en) |
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- 2022-09-09 CN CN202222413788.1U patent/CN218583485U/en active Active
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