A mobile air conditioner with ice making function

Abstract

The application discloses a mobile air conditioner with ice making function, which comprises a cold air fan body, at least one air inlet and one air outlet are arranged on the cold air fan body, a water tank placing cavity is arranged on the cold air fan body close to the bottom, a water tank is arranged in the water tank placing cavity, and a water pump is connected to the water tank outside or inside; an ice maker assembly is connected with the water pump through a water pipe, the structure of the application is reasonable, the ice maker assembly and the ice block dispersing device are designed, the cold air fan can have the ice making function at the same time, the water in the water tank of the cold air fan is used to achieve the ice making function, the ice blocks are dispersed and conveyed through the ice block dispersing device, and the ice blocks are evenly arranged at the air outlet position of the cold air fan, so that the cold air function and further refrigeration effect can be realized at the same time, resource waste is avoided, the labor cost is reduced, and the practicability of the cold air fan is improved as a whole.

Description

TECHNICAL FIELD

[0001] The present application relates to the field of mobile air conditioners, and particularly relates to a mobile air conditioner with ice making function. BACKGROUND

[0002] At present, the mobile air conditioner used in industry works in the principle that the gaseous refrigerant is compressed into high-temperature and high-pressure gaseous refrigerant by a scroll compressor, and then is sent to a condenser through a high-pressure pipe to become liquid refrigerant at normal temperature and high pressure after heat dissipation, the heat generated by the condenser is discharged by a fan, and the scroll compressor group sends the refrigerant into an evaporator through a low-pressure pipe, the liquid refrigerant becomes gaseous low-temperature refrigerant after entering the evaporator assembly, so that a large amount of heat is absorbed to make the evaporator produce cold air.

[0003] A water tank structure is arranged at the bottom of the mobile air conditioner, which can collect water generated by the condenser during the operation of the air cooler and store the water in the water tank through a pipeline, and when the water in the water tank reaches a certain amount, the water is poured out, which not only wastes resources but also consumes manpower, causing inconvenience in the use of the industrial air cooler. SUMMARY

[0004] The present application solves the technical problem in the prior art by providing a mobile air conditioner with ice making function, which has ice making function and can use the water in the water tank of the air cooler to achieve ice making function, and the ice blocks are delivered to the air outlet position of the air cooler, so that the cold air function and the refrigeration effect can be achieved at the same time, thereby avoiding resource waste and reducing labor consumption, and improving the practicability of the air cooler.

[0005] The technical scheme adopted by the present application to solve the above technical problem is as follows:

[0006] A mobile air conditioner with ice making function comprises

[0007] An air cooler body, which has at least one air inlet and one air outlet, is provided with a water tank placing cavity at a position close to the bottom, a water tank is placed in the water tank placing cavity, and a water pump is connected to the outside or inside of the water tank;

[0008] An ice maker assembly is connected with a water pump through a water pipe, a water storage tank is arranged in the ice maker assembly, the water pump pumps water in a water tank to the water storage tank, an ice making system connected with the water storage tank is arranged in the ice maker assembly, a storage pool connected with the ice making system is arranged on the ice maker assembly, and the ice making system stores the water in the water storage tank into the storage pool after ice making.

[0009] An ice block dispersing device is arranged at an air outlet or a position close to the air outlet, the ice block dispersing device is integrally or separately connected with the ice maker assembly, and the ice block dispersing device can disperse ice blocks in the storage pool to the position of the air outlet.

[0010] As an improvement, the ice block dispersing device comprises a fixed cover arranged corresponding to the air outlet, a spiral conveying unit and a plurality of groups of ice block distribution plates are arranged in the fixed cover, the ice block distribution plates are connected with the fixed cover, and the spiral conveying unit conveys the ice blocks in the storage pool to the ice block distribution plates when rotating.

[0011] Further improvement, each group of ice block distribution plates is arranged in the form of an "eight" on the inner walls of the two sides of the fixed cover, and ice block cavities for placing ice blocks are left between adjacent ice block distribution plates.

[0012] Further improvement, a plurality of water passing holes are arranged on each ice block distribution plate.

[0013] Further improvement, it further comprises a return pipe, one end of the return pipe is connected with the bottom of the fixed cover, and the other end of the return pipe is connected with the water tank through the body of the air cooler.

[0014] Further improvement, the spiral conveying unit comprises a motor and a spiral auger connected with the motor, the upper end of the spiral auger is connected with the upper end of the fixed cover, the outer wall of the spiral auger has a plurality of spiral grooves, and the motor drives the spiral auger to rotate, so as to convey the ice blocks in the storage pool to the ice block distribution plates at different positions through the spiral grooves.

[0015] Further improvement, the bottom ends of the two sides of the fixed cover are provided with support columns connected with the ice maker assembly.

[0016] Further improvement, the ice making system comprises an ice making cylinder, a compressor, a condenser, an evaporator, a drying filter, an expansion valve and a one-way valve, the compressor is connected with the condenser through a first pipeline, the condenser is connected with the drying filter through a second pipeline, the drying filter is connected with the evaporator through a third pipeline, the inner wall of the ice making cylinder is arranged with the evaporator, the third pipeline is connected with the expansion valve for adjusting the flow of refrigerant and controlling the pressure of refrigerant, the water tank is connected with the ice making chamber through a fourth pipeline, the fourth pipeline is provided with the one-way valve for preventing the backflow of refrigerant and the mixing of air, and the compressor and the evaporator are further provided with a reversing valve.

[0017] Further improvement, the ice making cylinder is externally connected with a speed reducer, the main shaft is connected on the speed reducer, the ice cutter is connected on the main shaft, the upper end of the ice making cylinder is connected with a water distributor corresponding to the evaporator, the lower end of the ice making cylinder is provided with a water inlet pipe connected with the water storage tank, the water inlet pipe is connected with the water distributor, and the side of the ice making cylinder is provided with an ice outlet for facilitating the ice block to enter the ice storage pool.

[0018] Compared with the prior art, the ice making machine assembly and the ice block dispersion device are designed, so that the air cooler simultaneously has the ice making function, the water in the water tank of the air cooler is used to achieve the ice making function, the ice blocks are uniformly arranged at the air outlet position of the air cooler through the dispersion and conveying of the ice block dispersion device, the air cooling function and further cooling effect are achieved at the same time, resource waste is avoided, the labor cost is reduced, and the practicability of the air cooler is improved as a whole. BRIEF DESCRIPTION OF DRAWINGS

[0019] Figure 1 is a structural schematic diagram of the application;

[0020] Figure 2 is a schematic diagram of the ice making machine assembly separation structure of the application;

[0021] Figure 3 is a schematic diagram of the ice block dispersion device structure of the application;

[0022] Figure 4 is an internal structure arrangement drawing of the ice making machine assembly of the application;

[0023] Figure 5 is a schematic diagram of the ice cutter structure of the application;

[0024] Figure 6 is a schematic diagram of one structure of embodiment 3;

[0025] Figure 7 is another schematic diagram of the structure of embodiment 3.

[0026] Reference numerals: 1. Air cooler body; 2. Ice maker assembly; 10. Air inlet; 11. Air outlet; 12. Water tank placement chamber; 13. Water tank; 14. Water pump; 15. Fourth pipeline; 16. One-way valve; 20. Water storage tank; 21. Ice making system; 22. Ice dispersing device; 210. Ice storage tank; 23. Ice maker cylinder; 24. Compressor; 25. Condenser; 26. Evaporator; 27. Dryer filter; 110. Air duct; 220. Fixing cover; 221. Screw conveyor unit; 222. Ice block distributor; 230. Reducer; 231. Main shaft; 232. Ice blade; 233. Water distributor; 234. Water inlet pipe; 235. Ice outlet; 240. First pipeline; 250. Second pipeline; 270. Third pipeline; 271. Expansion valve; 2200, Return pipe; 2201, Support column; 2210, Motor; 2211, Spiral auger; 2212, Spiral groove; 2220, Ice block chamber; 2221, Water passage hole. Detailed Implementation

[0027] The present invention will be further described in detail below with reference to the accompanying drawings and embodiments.

[0028] Example 1

[0029] like Figures 1 to 5 As shown, the present invention provides a portable air conditioner with ice-making function, including...

[0030] A cold air blower body 1 has at least one air inlet 10 and one air outlet 11. The cold air blower body 1 has a water tank 13 placement cavity 12 near the bottom. A water tank 13 is placed in the water tank 13 placement cavity 12. A water pump 14 is connected to the outside or inside of the water tank 13.

[0031] An ice maker assembly 2 is provided, which is connected to a water pump 14 via a water pipe. The ice maker assembly 2 is provided with a water storage tank 20. The water pump 14 pumps water from a water tank 13 into the water storage tank 20. The ice maker assembly 2 is provided with an ice-making system 21 connected to the water storage tank 20. An ice storage pool 210 connected to the ice-making system 21 is provided on the ice maker assembly. The ice-making system 21 makes ice from the water in the water storage tank 20 and stores it in the ice storage pool 210.

[0032] An ice dispersing device 22 is provided at or near the air outlet 11. The ice dispersing device 22 is integrally or separately connected to the ice maker assembly 2. The ice dispersing device 22 can disperse the ice in the ice storage tank 210 to the air outlet 11.

[0033] The upper end of the air cooler body 1 is provided with an air inlet 10 or an air outlet 11 arranged on the side of the ice maker assembly 2, the air inlet 10 is arranged at the same side of the air outlet 11 at the upper end of the air cooler body 1, and a cold air pipe 110 is also arranged at the same side of the air outlet 11, which facilitates the discharge of cold air of the evaporator, and the air outlet 11 is arranged on the side corresponding to the ice maker assembly 2, which facilitates the uniform dispersion of ice blocks generated by the ice maker to the position corresponding to the air outlet 11, so that the evaporation and heat absorption of the ice blocks during air outlet can achieve the refrigeration effect; the water tank 13 placed in the cavity 12 at the bottom of the air cooler body 1 is designed to accommodate the water tank 13, and the volume and shape of the water tank 13 are matched, during the use of the air cooler body 1, the internal condenser 25 will continuously generate water, which is stored in the water tank 13 through the pipeline, when the water in the water tank 13 reaches a certain amount, the water level switch is actuated to connect the water pump 14, and then the water in the water tank 13 is pumped into the ice maker assembly 2 through the filter, and automatically enters the ice making mode; the ice is stored in the ice storage pool 210, and is made by the ice making system 21, and then the ice blocks are uniformly sent to the front of the air outlet cover by the ice block dispersion device 22, and finally the ice blocks are dispersed to the air outlet surface corresponding to the air outlet cover by the ice block distribution plate 222, due to the heat absorption of the ice blocks, the temperature of the air blown out of the air outlet 11 is obviously reduced, thereby achieving better refrigeration and cooling effect.

[0034] The ice block dispersion device 22 is arranged in front of the air outlet 11, which facilitates the dispersion of the ice blocks in the ice storage tank to the area range corresponding to the air outlet 11 through the ice block dispersion device 22, so as to achieve the best refrigeration and cooling effect, and the ice storage pool 210 is arranged in the ice maker assembly 2 and extends to the upper end of the ice maker assembly 2, which facilitates the installation and use of the ice block dispersion device 22;

[0035] In the design, the air cooler is combined with the ice maker, so that the air cooler has the function of making ice, and the water in the water tank 13 of the air cooler is used to make ice, the ice blocks are uniformly arranged in the air outlet position of the air cooler through the dispersion and transportation of the ice block dispersion device 22, so that the air cooling function and further refrigeration effect can be achieved at the same time, resource waste is avoided, labor cost is reduced, and the practicability of the air cooler is improved.

[0036] In the embodiment, the ice block dispersion device 22 comprises a fixed cover 220 corresponding to the air outlet 11, a spiral conveying unit 221 and a plurality of ice block distribution plates 222 are arranged in the fixed cover 220, the ice block distribution plates 222 are connected to the fixed cover 220, and the spiral conveying unit 221 conveys the ice blocks in the ice storage pool 210 to the ice block distribution plates 222 when rotating;

[0037] The fixed cover 220 can be the air outlet cover body structure of the air cooler, or can be a cover body structure connected or corresponding to the air outlet cover, so as to achieve the maximum area of air outlet when the air cooler blows air, and achieve a better refrigeration effect. The spiral conveying unit 221 in the fixed cover 220 can convey the ice blocks upward, so as to be conveyed to the ice block distribution plates 222 at different heights. When the ice blocks on the ice block distribution plate 222 at a layer accumulate to a certain amount, the ice blocks can be automatically transferred to the upper layer along with the spiral rotation of the spiral conveying unit 221, and finally the ice blocks are distributed on the multiple ice block distribution plates 222. The outer ends of the ice block distribution plates 222 are respectively connected to the cover walls on both sides in the fixed cover 220, and are uniformly arranged on the inner wall of the fixed cover 220. The ice block cavities 2220 between the upper and lower ice block distribution plates 222 adapt to the ice block size of the ice making system 21.

[0038] In the embodiment, each group of ice block distribution plates 222 is in the shape of an "eight" and is arranged on the inner walls on both sides of the fixed cover 220. The ice block cavities 2220 are left between adjacent ice block distribution plates 222 for placing ice blocks.

[0039] The ice block distribution plates 222 are arranged with the spiral conveying unit 221 as the central axis, and each group of ice block distribution plates 222 is in the shape of an "eight" and is distributed in a design of equal length, so that the ice block cavities 2220 with equal distances are formed between the adjacent ice block distribution plates 222, which adapt to the ice block size of the spiral conveying unit 221 and improve the ice block conveying efficiency. Moreover, the ice block distribution plates 222 are designed in the shape of an "eight", which is consistent with the position of the spiral conveying unit 221 for conveying ice blocks spirally. When the ice blocks enter the corresponding ice block distribution plates 222 from the spiral groove 2212, the ice block distribution plates 222 have a downward inclination, so that the ice blocks are more easily conveyed into the ice block cavities 2220, further ensuring the rationality and timeliness of conveying.

[0040] In the embodiment, a plurality of water passing holes 2221 are arranged on each ice block distribution plate 222. The water passing holes 2221 arranged on the ice block distribution plates 222 have consistent hole types, so that water can flow through the water passing holes 2221 during the melting process of the ice blocks in the ice block cavities 2220, and finally flows to the bottom of the fixed cover 220, facilitating further drainage.

[0041] In the embodiment, a return pipe 2200 is further included. One end of the return pipe 2200 is connected to the bottom of the fixed cover 220, and the other end of the return pipe 2200 penetrates through the air cooler body 1 and is connected to the water tank 13.

[0042] When the ice cubes placed on the ice cube distribution plate 222 melt, the water flows to the bottom of the fixed cover 220. The bottom of the fixed cover 220 can be designed to be inclined, and the inclined direction is the direction close to the return pipe 2200, so as to facilitate the water flow to gather at the position of the return pipe 2200. When the water in the water tank 13 reaches a certain amount, a new ice making process will be automatically started, so as to realize the continuous ice making process of the ice maker and improve the refrigeration effect of the air cooler.

[0043] In the embodiment, the spiral conveying unit 221 comprises a motor 2210 and a spiral auger 2211 connected to the motor 2210. The upper end of the spiral auger 2211 is connected to the upper end of the fixed cover 220. The outer wall of the spiral auger 2211 has a plurality of spiral grooves 2212. The motor 2210 drives the spiral auger 2211 to rotate, so as to convey the ice cubes in the ice storage pool 210 to the ice cube distribution plates 222 at different positions through the spiral grooves 2212.

[0044] The motor 2210 drives the spiral auger 2211 to rotate. During the rotation of the spiral auger 2211, the ice cubes in the ice storage pool 210 can be sent to the upper part through the spiral grooves 2212 at the bottom, and then dispersed to the ice cube distribution plates 222. The spiral grooves 2212 on the outer wall of the spiral auger 2211 can accommodate a certain amount of ice cubes, so as to facilitate the conveying of the ice cubes. When the ice cube conveying is completed, the ice maker will automatically stop conveying. According to the real-time change of the external temperature, after a period of use, most of the ice cubes melt, the ice making system 21 starts to make ice again, and the ice cube dispersing device 22 starts to convey the ice cubes again.

[0045] In the embodiment, the bottom end of the fixed cover 220 is provided with support columns 2201 connected to the ice maker assembly 2.

[0046] The support columns 2201 at the bottom end of the fixed cover 220 are fixed on the shell of the ice maker assembly 2 respectively, so as to effectively support the two sides of the fixed cover 220. The front side of the fixed cover 220 is designed as a grating structure, which facilitates air outlet.

[0047] In the embodiment, the ice making system 21 comprises an ice making cylinder 23, a compressor 24, a condenser 25, an evaporator 26, a drying filter 27, an expansion valve 271 and a one-way valve 16, the compressor 24 is connected to the condenser 25 through a first pipeline 240, the condenser 25 is connected to the drying filter 27 through a second pipeline 250, the drying filter 27 is connected to the evaporator 26 through a third pipeline 270, the evaporator 26 is arranged on the inner wall of the ice making cylinder 23, the third pipeline 270 is connected with the expansion valve 271 for adjusting the flow of refrigerant and controlling the pressure of refrigerant, the water tank 13 is connected with the ice making chamber through a fourth pipeline 15, the fourth pipeline 15 is provided with the one-way valve 16 for preventing the backflow of refrigerant and air mixing, and a reversing valve is further arranged between the compressor 24 and the evaporator 26.

[0048] The evaporator 26 is arranged on the inner wall of the ice making cylinder 23, which facilitates ice making of water entering the ice making cylinder 23, ice making, ice discharge from the ice discharge port 235, ice storage in the ice storage pool 210, and ice block conveying to the ice block distribution plate 222 through the spiral conveying unit 221.

[0049] When the ice making system 21 makes ice, the water pump 14 pumps the water in the water storage tank 20 to the water distributor 233, the water distributor 233 uniformly flows the water to the evaporator 26 cooled by the low-temperature liquid refrigerant, the evaporator 26 produces ice making effect on the water; when the water is cooled to the freezing point, the water cooled to the freezing point will freeze into ice, and the water not frozen by the evaporator 26 flows into the water storage tank 20 and starts the circulation work again through the water pump 14.

[0050] When the ice block reaches the required thickness, the ice block enters the ice separation state, the high-pressure hot gas discharged by the compressor 24 is introduced to the evaporator 26 through the reversing valve, a layer of water film is formed between the ice block and the evaporator 26, the water film separates the ice block from the evaporator 26, and the ice block freely falls into the lower ice storage tank under the action of gravity, thereby realizing the whole ice making process.

[0051] In the embodiment, the ice making cylinder 23 is connected with a speed reducer 230, the speed reducer 230 is connected with a main shaft 231, the main shaft 231 is connected with an ice cutter 232, the upper end of the ice making cylinder 23 is connected with a water distributor 233 corresponding to the evaporator 26, the lower end of the ice making cylinder 23 is provided with a water inlet pipe 234 connected with the water storage tank 20, the water inlet pipe 234 is connected with the water distributor 233, and the ice making cylinder 23 is provided with an ice discharge port 235 on the side for facilitating ice block entering the ice storage pool 210.

[0052] The water storage tank 20 and the water distributor 233 are further provided with a flow control valve, the flow control valve can accurately control the flow of water flow, thereby realizing uniform ice making effect;

[0053] When the ice cubes in the ice storage pool 210 are cut by the ice cutting cylinder 23, the speed reducer 230 drives the main shaft 231 to rotate, and the ice cutter 232 rotates synchronously. The ice cutter 232 cuts the ice cubes in the ice storage pool 210 during the rotation, so as to realize the ice cubes being crushed. Then, the ice cubes are sent to the ice cube distribution plate 222 by the spiral conveying unit 221. The water inlet pipe 234 on the ice cutting cylinder 23 controls the water flow into the water distributor 233 through the flow control valve. The water flows from the evaporator 26 to the water tank 20 through the water pipe. At the same time, the water in the water distributor 233 continuously flows from the ice maker, and the evaporator 26 on the outer wall of the ice cutting cylinder 23 continuously cools, so that the water in the ice maker gradually decreases to the freezing point to form ice cubes, which are stored in the ice storage pool 210. The ice maker adopts a plastic soft film structure, which facilitates ice cube demolding.

[0054] The working process of the ice maker assembly 2 in the embodiment is as follows:

[0055] 1. The water in the water tank 13 is pumped into the water tank 20 by the water pump 14, and then the water is sent to the water distributor 233 by the water pump 14 through the flow control valve;

[0056] 2. The water in the water distributor 233 is evenly sprayed onto the surface of the ice cutting cylinder 23, and the evaporator 26 is arranged on the surface of the ice cutting cylinder 23. At this time, the spraying effect is similar to a water curtain. The water flows through the inner wall of the ice cutting cylinder 23, and the water is cooled to the freezing point. The water that has not been frozen by evaporation flows into the water tank 20 through the porous groove on the ice cutting cylinder 23, and the cycle starts again;

[0057] 3. When the ice reaches the required thickness, the hot gas discharged by the compressor 24 is introduced back into the ice cutting cylinder 23 to replace the low-temperature liquid refrigerant. A thin film of water is formed between the ice and the evaporator pipe wall, which plays a lubricating role when the ice falls freely into the groove below under the action of gravity;

[0058] 4. The water in the water tank 20 is continuously circulated through the plate-type or divided evaporator 26 to realize ice making;

[0059] 5. After the compressor 24 operates, the suction-compression-exhaustion-condensation (liquefaction)-throttling-then evaporation at a low temperature of-10 to-18 degrees in the evaporator 26 to absorb heat and vaporize;

[0060] 6. The frozen water continuously condenses into an ice layer on the surface of the evaporator 26 at a water temperature of 0 degrees. When the ice layer condenses to a certain thickness, the defrosting electromagnetic valve is connected after the evaporation temperature of the refrigerant reaches the set temperature of the temperature control. The ice is removed by a heat pump, and the next cycle is realized.

[0061] Embodiment 2

[0062] As Figure 1 shown, the fixed cover 220 is provided as an air outlet cover, and the fixed cover 220 is connected with the air outlet 11 of the air cooler body 1, and meanwhile the ice maker assembly 2 is partially embedded in the air cooler body 1, so that the bottom support column 2201 structure of the fixed cover 220 can be cancelled, so that the cooperation between the air cooler body 1 and the ice maker assembly 2 can be improved while reducing the assembly components.

[0063] Embodiment 3

[0064] As Figures 6 to 7 shown, the ice block distribution plate 222 in the fixed cover 220 is provided in a "one" shape, and when the motor 2210 drives the spiral auger 2211 to rotate, the ice blocks will be driven into the corresponding ice block distribution plate 222 by the spiral groove 2212, and each ice block distribution plate 222 is provided in a "one" shape with equal length and equal distance, so that when the ice blocks enter the corresponding ice block cavity 2220, the newly entered ice blocks will be pushed forward by the later entered ice blocks, until each ice block cavity 2220 is filled, and when each ice block cavity 2220 is filled, the ice making system 21 will automatically stop ice making and conveying according to the time setting, and after a period of use, the ice making is automatically started again.

[0065] The ice block distribution plate 222 in the fixed cover 220 is provided in a wave shape, and the wave length of the ice block distribution plate 222 is the same, and when the ice blocks enter the ice block cavity 2220, the ice block storage can be further increased after the ice blocks are filled, so that the ice making time of the air cooler body 1 can be further increased, the ice making frequency can be saved, and the service life of the ice maker assembly 2 can be improved.

[0066] It should be noted that the circuit control principle involved in the present application is a conventional technical means known to those skilled in the art, and therefore is not described in detail.

[0067] The above is only a preferred embodiment of the present application, and for those skilled in the art, according to the idea of the present application, the specific implementation and application range can be changed, and the content of the description should not be understood as limiting the present application.

Claims

1. A portable air conditioner with ice-making function, characterized in that: The application relates to a cold air machine, which comprises a cold air machine body provided with at least one air inlet and one air outlet, a water tank placing cavity arranged on the cold air machine body near the bottom, a water tank arranged in the water tank placing cavity, and a water pump connected to the water tank. An ice maker assembly is connected to the water pump through a water pipe, the ice maker assembly is provided with a water storage tank, the water pump pumps water in the water tank to the water storage tank, the ice maker assembly is provided with an ice making system connected to the water storage tank, the ice maker assembly is provided with an ice storage pool connected to the ice making system, and the ice making system stores ice made by the water in the water storage tank into the ice storage pool. An ice block dispersing device is arranged on the air outlet or near the air outlet, the ice block dispersing device is integrally or separately connected to the ice maker assembly, and the ice block dispersing device disperses the ice blocks in the ice storage pool to the air outlet. The ice block dispersing device comprises a fixed cover arranged correspondingly to the air outlet, a spiral conveying unit and a plurality of ice block shunting plates arranged in the fixed cover, the ice block shunting plates are connected to the fixed cover, and the spiral conveying unit conveys the ice blocks in the ice storage pool to the ice block shunting plates when rotating. The spiral conveying unit comprises a motor and a spiral auger connected to the motor, the upper end of the spiral auger is connected to the upper end of the fixed cover, the outer wall of the spiral auger is provided with a plurality of spiral grooves, and the motor drives the spiral auger to rotate, so that the ice blocks in the ice storage pool are conveyed to the ice block shunting plates at different positions through the spiral grooves. The bottom end of the fixed cover is provided with support columns connected to the ice maker assembly. Each group of ice block shunting plates is arranged in the form of an "eight" on the inner walls of the two sides of the fixed cover, and ice block cavities for placing ice blocks are arranged between adjacent ice block shunting plates.

2. The mobile air conditioner having an ice making function according to claim 1, wherein: Each ice block shunting plate is provided with a plurality of water passing holes.

3. The mobile air conditioner with ice making function according to claim 1 or 2, characterized in that: The ice block dispersing device further comprises a return pipe, one end of the return pipe is connected to the bottom of the fixed cover, the other end of the return pipe passes through the cold air machine body and is connected to the water tank.

4. The mobile air conditioner having an ice making function according to claim 1, wherein: The ice making system comprises an ice making cylinder, a compressor, a condenser, an evaporator, a drying filter, an expansion valve and a one-way valve, the compressor is connected to the condenser through a first pipeline, the condenser is connected to the drying filter through a second pipeline, the drying filter is connected to the evaporator through a third pipeline, the inner wall of the ice making cylinder is arranged with the evaporator, the third pipeline is connected with the expansion valve for adjusting the flow of refrigerant and controlling the pressure of the refrigerant, the water tank is connected to the ice making room through a fourth pipeline, the fourth pipeline is provided with the one-way valve for preventing the backflow of the refrigerant, and the compressor and the evaporator are further provided with a reversing valve.

5. The mobile air conditioner with ice making function according to claim 1, characterized in that: The ice making cylinder is connected with a speed reducer, the speed reducer is connected with a main shaft, the main shaft is connected with an ice cutter, the upper end of the ice making cylinder is connected with a water distributor corresponding to the evaporator, the lower end of the ice making cylinder is provided with a water inlet pipe connected to the water storage tank, the water inlet pipe is connected to the water distributor, and the side of the ice making cylinder is provided with an ice outlet for facilitating the ice blocks to enter the ice storage pool.

6. The mobile air conditioner with ice making function according to claim 5, characterized in that: ​

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