Intelligent warehouse dehumidification equipment

Abstract

The application discloses a kind of intelligent warehousing dehumidification equipment, including shell, refrigeration system being arranged in shell, air blower and liquid storage container, the refrigeration system includes the condenser, expansion valve, evaporator and compressor connected by pipeline, condenser and air blower are arranged in air inlet, liquid storage container is located below condenser, air blower and condenser are located in gas compression shell, the rear half of gas compression shell includes a plurality of gas compression pipes, gas compression pipe passes through evaporator.Air blower inhales the air outside gas compression shell, the pressure of gas is increased, when the gas in gas compression pipe passes through the low-temperature zone formed by evaporator, it is easy to liquefy, then it is discharged through the outlet of gas compression pipe, and it drips into liquid storage container.The application warms up, compresses and then cools down the external gas based on the refrigeration system, so that the gas is liquefied, and the effect of removing moisture in the gas is good.

Description

TECHNICAL FIELD

[0001] The present application relates to warehouse technology, in particular to a dehumidification device for warehouse. BACKGROUND

[0002] Electronic components are components of electronic elements and small machines, instruments, which are often composed of several parts and can be used in similar products. Electronic components require higher requirements in the warehouse area. The relative humidity of the corresponding warehouse area must be between 20% and 75% RH. Humidity will directly affect the storage life and quality of electronic components, so it is necessary to set a dehumidification device for the warehouse area of electronic components (Patent No. CN 218901369 U, an intelligent warehouse dehumidification device for electronic components, specification 0002). SUMMARY

[0003] The technical problem solved by the present application is to provide a device for dehumidifying the warehouse area of electronic components.

[0004] To solve the above technical problems, the present application provides the following technical scheme: an intelligent warehouse dehumidification device, comprising a shell, a refrigeration system, a blower and a liquid storage container arranged in the shell, the refrigeration system comprising a condenser, an expansion valve, an evaporator and a compressor connected by pipes, one side of the shell is provided with an air inlet, the other side of the shell is provided with an air outlet, the condenser and the blower are arranged at the air inlet, the liquid storage container is located below the evaporator, the blower and the condenser are located in a gas compression shell, and are located at the inlet of the front half of the gas compression shell, the rear half of the gas compression shell comprises a plurality of gas compression pipes, all the gas compression pipes are in communication with the total chamber of the front half of the gas compression shell, all the gas compression pipes pass through the evaporator, the outlets of all the gas compression pipes are directed to the air outlet, and the outlet ends of all the gas compression pipes are located above the liquid storage container.

[0005] According to the above technical scheme, the refrigerant in the refrigeration system is compressed by the compressor to become a high-temperature and high-pressure gas, passes through the condenser to release heat and become a medium-temperature and high-pressure liquid, passes through the expansion valve to become a low-temperature and low-pressure liquid, passes through the evaporator to absorb heat and become a low-temperature and low-pressure gas, and then returns to the compressor for compression. Since the evaporator absorbs heat, the temperature around the evaporator decreases.

[0006] According to the technical scheme, the air blower sucks external air into the gas compression shell, and the gas enters the rear half of the gas compression shell from the front half of the gas compression shell, that is, the gas compression pipes. Since the volume of the gas compression shell gradually decreases from front to rear, the gas is compressed in the gas compression shell and the pressure is increased. Since the condenser releases heat, the temperature of the gas entering the gas compression shell is increased, and the pressure of the gas is increased. The gas in the gas compression pipe is easily liquefied when passing through the low-temperature area formed by the evaporator, and is then discharged through the outlet of the gas compression pipe and dripped into the liquid storage container.

[0007] Compared with the prior art, the application has the advantages that the external gas is warmed, compressed, and then cooled to be liquefied, and the effect of removing water from the gas is better than that of the prior art.

[0008] The inner diameter of the front half of the gas compression shell gradually decreases from front to rear. Under the driving of the air blower, the gas flows from front to rear and is preliminarily compressed in the front half of the gas compression shell. The preliminarily compressed gas enters the gas compression pipes and is further compressed.

[0009] The liquid storage container is provided with a water pump connected to a water supply pipe extending upward to the side of the gas compression pipe. The water supply pipe is provided with a plurality of water supply branches connected to the gas compression pipes in a one-to-one manner. At the beginning of the operation of the equipment, there is water in the liquid storage container, and the water pump is working. The water pump pumps the water in the liquid storage container into the gas compression pipe. The compressed high-pressure gas in the gas compression pipe reaches the low-temperature area formed by the evaporator and is easily liquefied to form water particles. The water particles meet the water from the liquid storage container and can merge with it, like rivers flowing into the sea, and are easily removed from the gas. The water merged in the gas compression pipe is discharged through the outlet end of the gas compression pipe and dripped into the liquid storage container.

[0010] The filter is installed on the exhaust port and includes a filter frame and a plurality of fins arranged in the filter frame. The filter is located above the liquid storage container. Part of the water particles in the gas do not merge with the water from the liquid storage container and are discharged from the gas compression pipe with the gas. The water particles are blocked by the fins of the filter and can be gathered on the fins to drip into the liquid storage container. The gas is discharged through the gaps between the fins. Any fin is inclined downward, and there is a gap between the adjacent two fins.

[0011] The filter is installed on the inner side of the shell through a mounting bracket. The filter has a gap with the inner wall of the shell to prevent the water flow on the filter from flowing down along the inner wall of the shell and failing to enter the liquid storage container.

[0012] Condenser, expansion valve, evaporator and compressor are respectively installed on the inner wall of the shell, the front half of the gas compression shell is fixedly installed at the air inlet of the shell through the connecting piece. The periphery of the gas compression shell can be sleeved with a fixing ring, and the fixing ring is fixed on the side wall of the shell through the threaded connecting piece. The shell of the blower is fitted in the gas compression shell and fixed with screws. BRIEF DESCRIPTION OF DRAWINGS

[0013] The application will be further described below in conjunction with the drawings:

[0014] Figure 1 It is a schematic view of the intelligent warehouse dehumidification equipment;

[0015] Figure 2 It is a top view of the intelligent warehouse dehumidification equipment;

[0016] Figure 3 It is Figure 1 It is a schematic view of the evaporator and the gas compression pipe observed from the right side;

[0017] Figure 4 It is a schematic view of the gas being sucked into the equipment and flowing in the equipment.

[0018] Explanation of symbols in the drawings:

[0019] 10, shell; 11, air inlet; 12, air outlet;

[0020] 20, blower;

[0021] 30, liquid storage container; 31, water pump; 32, water supply pipe; 33, water supply branch pipe; 34, water droplet;

[0022] 41, condenser; 42, expansion valve; 43, evaporator; 44, compressor; 45, bracket; 46, curved connecting rod;

[0023] 51, front half of the gas compression shell; 52, gas compression pipe;

[0024] 60, filter; 61, mounting bracket. DETAILED DESCRIPTION

[0025] In conjunction with Figure 1 , Figure 2The utility model provides an intelligent warehouse dehumidification equipment, including shell 10, the refrigerating system of setting in the shell, air blower 20 and liquid storage container 30, the refrigerating system includes the condenser 41 of pipeline connection, expansion valve 42, evaporator 43 and compressor 44, one side of shell is equipped with air inlet 11, and the other side of shell is equipped with air outlet 12, and the condenser is set up in air inlet, and the liquid storage container is located below evaporator, and the air blower and condenser are located in the import of the first half 51 of gas compression casing, and the second half of gas compression casing includes a plurality of gas compression pipe 52, all gas compression pipes communicate with the total chamber of the first half of gas compression casing, all gas compression pipes pass through evaporator 43, and the outlet of all gas compression pipes points to air outlet 12, and the outlet end of all gas compression pipes is located above liquid storage container 30.

[0026] Reference Figure 4 The refrigerant in the refrigerating system is compressed by compressor 44 into high-temperature and high-pressure gas, and becomes medium-temperature and high-pressure liquid after releasing heat through condenser 41, becomes low-temperature and low-pressure liquid after passing through expansion valve 42, becomes low-temperature and low-pressure gas after absorbing heat through evaporator 43, and is compressed into compressor 44 again. Since evaporator 43 absorbs heat, the temperature around evaporator 43 decreases.

[0027] According to the above technical scheme, the air blower 20 sucks the external air into the gas compression casing, and the gas enters the second half of the gas compression casing, i.e. the plurality of gas compression pipes 52, from the first half 51 of the gas compression casing. Since the volume of the gas compression casing gradually decreases from front to back, the gas is compressed in the gas compression casing and the pressure increases. Since the condenser 41 releases heat, the temperature of the gas entering the gas compression casing increases, and the pressure of the gas increases. The pressure of the gas increases, and the temperature of the liquefied gas increases. When the gas in the gas compression pipe 52 passes through the low-temperature area formed by the evaporator 43, it is easily liquefied, and is discharged through the outlet of the gas compression pipe 52 and dripped into the liquid storage container 30.

[0028] The inner diameter of the first half 51 of the gas compression casing gradually decreases from front to back. Under the drive of the air blower 20, the gas flows from front to back and is preliminarily compressed in the first half 51 of the gas compression casing. The preliminarily compressed gas enters the plurality of gas compression pipes 52 and is further compressed.

[0029] The water pump 31 is connected to a water supply pipe 32 which extends upwardly beside the gas compression pipe 52 and is provided with a plurality of water supply branch pipes 33 which are connected to the gas compression pipes in a one-to-one manner. At the beginning of the operation of the device, water is already present in the liquid storage container 30 and the water pump 31 is in operation. The water pump 31 pumps the water in the liquid storage container 30 into the gas compression pipe 52. The compressed high-pressure gas in the gas compression pipe 52 reaches the low-temperature zone formed by the evaporator 43 and is easily liquefied to form water particles. The water particles meet the water from the liquid storage container 30 and merge with it, like rivers merging into the sea, and are easily removed from the gas. The water which has merged in the gas compression pipe 52 is discharged from the outlet end of the gas compression pipe 52 and drips into the liquid storage container 30.

[0030] The filter 60 is installed on the exhaust port 12 and includes a filter frame and a plurality of fins arranged in the filter frame. The filter is located above the liquid storage container 30. The water particles in the gas which have not merged with the water from the liquid storage container 30 are discharged from the gas compression pipe 52 with the gas. The water particles are blocked by the fins of the filter 60 and merge into a water flow on the fins and drip into the liquid storage container 30. The gas is discharged through the gaps between the fins. Any fin is arranged downwardly and has a gap between two adjacent fins.

[0031] The filter 60 is installed on the inner side of the housing 10 by means of the mounting bracket 61 and has a gap with the inner wall of the housing. This prevents the water flow on the filter 60 from flowing along the inner wall of the housing 10 and entering the liquid storage container 30.

[0032] The condenser 41, the expansion valve 42, the evaporator 43 and the compressor 44 are respectively installed on the inner wall of the housing 10. The front half 51 of the gas compression housing is fixedly installed at the air inlet 11 of the housing by means of the connecting member. The evaporator 43 is installed on a pair of brackets 45 which are installed on the inner wall of the housing 10 by means of the curved connecting rod 46.

[0033] The above description is only the preferred embodiment of the present application. Those skilled in the art can make changes in the specific embodiments and application scope according to the idea of the present application. The content of the specification should not be understood as a limitation of the present application.

Claims

1. An intelligent warehouse dehumidification device, comprising a shell (10), a refrigeration system arranged in the shell, a blower (20) and a liquid storage container (30), the refrigeration system comprising a pipeline-connected condenser (41), an expansion valve (42), an evaporator (43) and a compressor (44), one side of the shell being provided with an air inlet (11), the other side of the shell being provided with an air outlet (12), the condenser and the blower being arranged at the air inlet, and the liquid storage container being arranged below the evaporator, characterized in that: The air blower and the condenser are located in the gas compression shell and at the inlet of the front half (51) of the gas compression shell, the rear half of the gas compression shell comprises a plurality of gas compression pipes (52), all of which are in communication with the total cavity of the front half of the gas compression shell, all of which pass through the evaporator (43), the outlets of all of which point to the exhaust port (12), and the outlet ends of all of which are located above the liquid storage container (30).

2. The intelligent storage dehumidification device of claim 1, wherein: The inner diameter of the front half (51) of the gas compression shell gradually decreases from front to back.

3. The intelligent storage dehumidification device of claim 1, wherein: The water pump (31) is arranged in the liquid storage container (30), and the water pump is connected with the water supply pipe (32) which extends upward to the side of the gas compression pipe (52), and the water supply pipe is provided with a plurality of water supply branch pipes (33) which are connected with the plurality of gas compression pipes in a one-to-one manner.

4. The intelligent storage dehumidification device of claim 1, wherein: The filter (60) is installed on the inner side of the shell (10) through the mounting bracket (61), and the filter has a gap with the inner wall of the shell.

5. The intelligent storage dehumidification device of claim 4, wherein: The condenser (41), the expansion valve (42), the evaporator (43) and the compressor (44) are respectively installed on the inner wall of the shell (10), and the front half (51) of the gas compression shell is fixedly installed at the air inlet (11) of the shell through the connecting piece.

6. The intelligent storage dehumidification device of claim 4, wherein: ​

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