Energy-saving condensing equipment for condensate water pipeline installation engineering

Abstract

The utility model relates to the technical field of condensation equipment, in particular to energy-saving condensation equipment for condensate water pipeline installation engineering, which comprises a condensation mechanism, a condensation mechanism, a condensation mechanism and a condensation mechanism. The evaporator is fixed in the inner case; the wind wheel rotates at the position, close to the evaporator, in the inner case; and the auxiliary cooling mechanism is fixed in the inner case and located between the evaporator and the wind wheel and can assist in cooling. According to the air conditioner, the auxiliary cooling effect can be achieved through the auxiliary cooling mechanism, due to the fact that the temperature of condensed water drops is lower than the temperature of air, heat can be transmitted to water in the heat exchange pipe from the air, the temperature of the air is reduced, and the air can be cooled to the lower temperature before entering a room in cooperation with the evaporator; the cooling capacity of the whole refrigerating system is enhanced, the indoor temperature quickly reaches the preset value, consumption of energy consumption parts is reduced, the working time is shortened, and energy consumption is effectively reduced.

Description

Technical Field

[0001] This utility model relates to the field of condensing equipment technology, specifically to an energy-saving condensing equipment for condensate pipe installation projects. Background Technology

[0002] In modern HVAC systems and many industrial applications involving heat exchange, the condensation process is a crucial step. Taking air conditioning systems as an example, the evaporator plays a vital role in operation. When air flows through the evaporator, due to its lower temperature, water vapor in the air condenses into small water droplets on its surface. These droplets gradually accumulate and are usually discharged outdoors through drain pipes.

[0003] However, traditional condensing units have some limitations. Throughout the heat exchange and refrigeration cycle, the low-temperature water droplets generated on the evaporator surface carry a certain amount of cooling energy, but traditional condensing units do not effectively utilize this cooling energy. In indoor cooling scenarios, because this low-temperature water's cooling capacity is not utilized, the indoor temperature may decrease relatively slowly. To maintain the set temperature environment, the indoor unit of the air conditioner has to work continuously, operating at high load for extended periods. This causes energy-consuming components (such as the compressor) to run at high speed, increasing energy consumption and failing to meet energy-saving requirements. Utility Model Content

[0004] To overcome the aforementioned technical problems, the purpose of this invention is to provide an energy-saving condensing device for condensate pipe installation projects. Through an auxiliary cooling mechanism, it achieves an auxiliary cooling effect. Since the temperature of the condensed water droplets is lower than the air temperature, heat is transferred from the air to the water in the heat exchange tubes, thereby lowering the air temperature. Combined with the evaporator, this allows the air to be cooled to an even lower temperature before entering the room, enhancing the cooling capacity of the entire refrigeration system and enabling the indoor temperature to quickly reach the predetermined value. This reduces the consumption of energy-consuming components and their operating time, effectively lowering energy consumption. Furthermore, the sealed outer shell effectively prevents air from bypassing the heat exchange tubes and evaporator and flowing directly through the gaps, which would hinder heat exchange and reduce the cooling effect.

[0005] An energy-saving condensing equipment for condensate pipe installation projects includes:

[0006] A condensing mechanism, including an inner casing, wherein the refrigerant pipes of the inner casing are connected to an outer cabinet;

[0007] The evaporator is fixed inside the inner casing;

[0008] The impeller rotates inside the inner casing near the evaporator.

[0009] Also includes:

[0010] The auxiliary cooling mechanism is fixed inside the inner casing, located between the evaporator and the fan, and can assist in cooling.

[0011] The heat dissipation mechanism is fixed to the outer wall of the external cabinet near the condenser and is capable of dissipating heat from the condenser.

[0012] Furthermore, the internal chassis includes:

[0013] Sloping groove one is formed on the bottom wall of the inner casing;

[0014] The second inclined groove is located on one side of the bottom wall of the inner chassis, and a round hole is provided on one side of the inner wall of the second inclined groove.

[0015] Preferably, the auxiliary cooling mechanism includes:

[0016] The outer casing has two parts, which are fixed to the two ends between the inner casing and the evaporator, respectively, and can seal the two sides to prevent air leakage.

[0017] Preferably, the auxiliary cooling mechanism includes:

[0018] The heat exchange tube is fixed between the two outer shells and located between the evaporator and the impeller.

[0019] Preferably, the auxiliary cooling mechanism includes:

[0020] A water pump is fixed to the inner wall of one side of the inner casing. A water pipe is fixedly connected between the water pump inlet and the round hole, and a water pipe is fixedly connected between the water pump outlet and one end of the heat exchange tube.

[0021] Water pipe three, one end is fixed to the other end of the heat exchange tube.

[0022] Preferably, the heat dissipation mechanism includes:

[0023] The water storage bottle is fixed to the outer wall of the external cabinet, and its top is inserted into the water pipe at one end.

[0024] A motor is fixed to the top of the water storage bottle. The motor's shaft is fixedly connected to a threaded rod, and one end of the threaded rod is rotatably connected to the bottom wall of the water storage bottle.

[0025] The disc is screwed onto the threaded rod and slidably inserted into the inside of the water storage bottle;

[0026] U-shaped tube one is fixed to the outer wall of the water storage bottle, and the inside of U-shaped tube one is connected to the inside of the water storage bottle;

[0027] A cross valve is fixed to the bottom of the water storage bottle;

[0028] A round tube is fixed to the bottom of a water storage bottle. Two square holes are opened at equal angles near one end of the outer wall of the round tube. A sealing element is slidably inserted inside the round tube. A round frame is fixedly connected to one end of the round tube.

[0029] The spring is fixed between the seal and the outer wall of the round frame.

[0030] Preferably, the heat dissipation mechanism includes:

[0031] Water pipe four is fixed at the cross valve, and the other end of water pipe four is fixedly connected to U-shaped pipe two, which is fixed to the outer wall of the external cabinet;

[0032] The nozzles are provided in two sets, which are fixed at both ends of the U-shaped tube.

[0033] The beneficial effects of this utility model are:

[0034] 1. The auxiliary cooling mechanism can achieve an auxiliary cooling effect. Since the temperature of the condensed water droplets is lower than that of the air, heat will be transferred from the air to the water in the heat exchange tube, thereby lowering the air temperature. In conjunction with the evaporator, the air can be cooled to a lower temperature before entering the room, which enhances the cooling capacity of the entire refrigeration system, allows the indoor temperature to reach the preset value quickly, reduces the consumption of energy-consuming components and the working time, and effectively reduces energy consumption.

[0035] 2. By storing the heat-exchanged water in a storage bottle, it can be reused. When the water pressure reaches a certain value, it drives the disc to move and discharge the water, which can increase the pressure of the nozzle spray and effectively improve the recyclability.

[0036] 3. By spraying water over the exposed condenser on one side of the external cabinet, the water will evaporate on the condenser surface. This process is endothermic, and the evaporation of water carries away a large amount of heat, allowing the condenser temperature to drop rapidly. This improves the condenser's heat dissipation efficiency. When the condenser dissipates heat well, the refrigerant pressure and temperature can recover to a suitable state more quickly, reducing the compressor's workload and effectively improving energy saving. Attached Figure Description

[0037] The following description, in conjunction with the accompanying drawings, further illustrates this utility model.

[0038] Figure 1 This is a schematic diagram of the overall structure of this utility model;

[0039] Figure 2 This is a schematic diagram of the auxiliary cooling mechanism in this utility model;

[0040] Figure 3 This is a schematic diagram of the internal chassis structure in this utility model;

[0041] Figure 4This is a schematic diagram of the heat dissipation mechanism in this utility model;

[0042] Figure 5 This is a schematic diagram of the cross-sectional structure of the water storage bottle in this utility model;

[0043] Figure 6 This is a partial cross-sectional structural diagram of the water storage bottle in this utility model.

[0044] In the diagram: 100, condensing mechanism; 110, inner casing; 111, inclined groove one; 112, inclined groove two; 113, round hole; 120, outer cabinet; 130, evaporator; 140, impeller; 200, auxiliary cooling mechanism; 210, outer casing; 211, heat exchange tube; 220, water pump; 221, water pipe one; 222, water pipe two; 223, water pipe three; 300, heat dissipation mechanism; 310, water storage bottle; 311, motor; 312, threaded rod; 313, disc; 314, U-shaped tube one; 315, cross valve; 320, round tube; 321, square hole; 322, round frame; 323, spring; 324, seal; 330, water pipe four; 331, U-shaped tube two; 332, nozzle. Detailed Implementation

[0045] The technical solutions of this utility model will be clearly and completely described below with reference to the embodiments of this utility model. Obviously, the described embodiments are only some embodiments of this utility model, and not all embodiments. Based on the embodiments of this utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of this utility model.

[0046] Please see Figure 1-6As shown, an energy-saving condensing device for condensate pipe installation includes a condensing mechanism 100. The condensing mechanism 100 includes an inner casing 110 and the following components: an outer cabinet 120 is connected to the refrigerant pipes of the inner casing 110; an evaporator 130 is fixed inside the inner casing 110; and a fan 140 rotates inside the inner casing 110 near the evaporator 130. An auxiliary cooling mechanism 200 is fixed inside the inner casing 110, located between the evaporator 130 and the fan 140, and assists in cooling. A heat dissipation mechanism 300 is fixed to the outer cabinet. The outer wall of unit 120, near the condenser, provides heat dissipation for the condenser. The inner casing 110 includes the following components: a first inclined groove 111 is formed on the inner bottom wall of the inner casing 110, and a second inclined groove 112 is formed on the inner bottom wall of the inner casing 110 on one side of the first inclined groove 111. A circular hole 113 is formed on the inner wall of one side of the second inclined groove 112. The auxiliary cooling mechanism 200 includes the following components: two outer casings 210 are provided, respectively fixed to both ends between the inner casing 110 and the evaporator 130, providing a seal on both sides to prevent air leakage; and heat exchange tubes 21... 1. Fixed between two outer casings 210, and located between the evaporator 130 and the impeller 140. A water pump 220 is fixed to the inner wall of one side of the inner casing 110. A water pipe 221 is fixedly connected between the water inlet of the water pump 220 and the round hole 113, and a water pipe 222 is fixedly connected between the water outlet of the water pump 220 and one end of the heat exchange tube 211. One end of a water pipe 223 is fixed to the other end of the heat exchange tube 211. The impeller 140 is driven to rotate, drawing air from the inner casing 110 towards the evaporator 130. When the air passes over the evaporator 130, heat is released. The air temperature drops as the refrigerant inside the evaporator 130 is absorbed, achieving a cooling effect. At this time, low-temperature water droplets will be generated on the surface of the evaporator 130 and drip down the outer wall of the evaporator 130 into the inclined groove 111 or inclined groove 112. The water will then be concentrated at the round hole 113 along the slope. The water pump 220 drives the water to be sent into the heat exchange tube 211 through the water pipe 222. The heat exchange tube 211 is located between the evaporator 130 and the fan 140. When air passes through this point, the air will exchange heat with the heat exchange tube 211. This heat exchange with the evaporator 130 can increase the efficiency of indoor cooling.

[0047] The heat dissipation mechanism 300 includes the following parts: its water storage bottle 310 is fixed to the outer wall of the external cabinet 120, and its top is inserted into one end of the water pipe 223; the motor 311 is fixed to the top of the water storage bottle 310, and a threaded rod 312 is fixedly connected to the rotating shaft of the motor 311, with one end of the threaded rod 312 rotatably connected to the inner bottom wall of the water storage bottle 310; its disc 313 is screwed onto the threaded rod 312 and slidably inserted into the interior of the water storage bottle 310; and a U-shaped tube 314 is fixed to the outer wall of the water storage bottle 310, with the interior of the U-shaped tube 314 communicating with the interior of the water storage bottle 310. The valve 315 is fixed to the bottom of the water storage bottle 310, and the round tube 320 is fixed to the bottom of the water storage bottle 310. Two square holes 321 are opened at equal angles near one end of the outer wall of the round tube 320, and a sealing element 324 is slidably inserted inside the round tube 320. A round frame 322 is fixedly connected to one end of the round tube 320, and its spring 323 is fixed between the sealing element 324 and the outer wall of the round frame 322. By storing the heat exchanged water in the water storage bottle 310, it can be reused. When the water pressure reaches a certain value, the disc 313 is driven to move and discharge the water, which can increase the spray pressure of the nozzle 332.

[0048] The heat dissipation mechanism 300 includes the following parts: its water pipe 330 is fixed to the cross valve 315, and a U-shaped pipe 331 is fixedly connected to the other end of the water pipe 330. The U-shaped pipe 331 is fixed to the outer wall of the external cabinet 120. Two sets of nozzles 332 are provided and fixed at both ends of the U-shaped pipe 331 respectively. The water delivered from the water storage bottle 310 will flow into the U-shaped pipe 331 along the water pipe 330 and spray out simultaneously through the four nozzles 332 to cover the condenser exposed on one side of the external cabinet 120.

[0049] Specifically, during operation, the fan 140 is driven to rotate, drawing air from the inner casing 110 towards the evaporator 130. As the air passes over the evaporator 130, heat is absorbed by the refrigerant, causing the air temperature to drop and achieving a cooling effect. At this time, low-temperature water droplets are generated on the surface of the evaporator 130 and drip down the outer wall of the evaporator 130 into inclined groove 111 or inclined groove 112, converging along the slope to the circular hole 113. The water pump 220 drives the water to flow into the heat exchange tube 211 through water pipe 222. The heat exchange tube 211 is located between the evaporator 130 and the fan 140. When air passes through this point, it exchanges heat with the heat exchange tube 211. This heat exchange, combined with the heat exchange of the evaporator 130, increases the efficiency of indoor cooling. After heat exchange, the water in the heat exchange tube 211 flows into the inner casing 130 through water pipe 223. Inside the water storage bottle 310 fixed to the external cabinet 120, when the water in the water storage bottle 310 reaches a certain amount, the motor 311 drives the threaded rod 312 to rotate and engage with the disc 313. The disc 313 moves downward, squeezing out the water inside. When all the water inside the water storage bottle 310 is expelled, the disc 313 returns to its original position. During this process, the seal 324 is pulled and slides into the water storage bottle 310, releasing the seal inside the water storage bottle 310 and preventing the water from being drawn back when the disc 313 moves. After the disc 313 stops moving, the spring 323 rebounds, causing the seal 324 to stick to the inside of the round tube 320, sealing the water storage bottle 310. The water that is expelled will flow into the U-shaped tube 331 through the water pipe 4 330 and be sprayed out simultaneously through the four nozzles 332, covering the condenser exposed on one side of the external cabinet 120.

[0050] Example 1

[0051] like Figure 1-3 As shown, in this embodiment, the inner casing 110 includes the following parts: a first inclined groove 111 is formed in the inner bottom wall of the inner casing 110, and a second inclined groove 112 is formed in the inner bottom wall of the inner casing 110 on one side of the first inclined groove 111. A circular hole 113 is formed in the inner wall on one side of the second inclined groove 112. The auxiliary cooling mechanism 200 includes the following parts: two outer shells 210 are provided, which are respectively fixed to the two ends between the inner casing 110 and the evaporator 130, and can cool the two... The side acts as a seal to prevent air leakage. Its heat exchange tube 211 is fixed between the two outer shells 210 and is located between the evaporator 130 and the impeller 140. The water pump 220 is fixed to the inner wall of one side of the inner casing 110. A water pipe 221 is fixedly connected between the water inlet of the water pump 220 and the round hole 113, and a water pipe 222 is fixedly connected between the water outlet of the water pump 220 and one end of the heat exchange tube 211. One end of the water pipe 223 is fixed to the other end of the heat exchange tube 211.

[0052] In this embodiment, the impeller 140 is driven to rotate, drawing air from the inner casing 110 towards the evaporator 130. When the air passes over the evaporator 130, heat is absorbed by the refrigerant inside the evaporator 130, causing the air temperature to drop and achieving a cooling effect. At this time, low-temperature water droplets are generated on the surface of the evaporator 130 and drip down the outer wall of the evaporator 130 into the inclined groove 111 or inclined groove 112, converging at the circular hole 113 along the slope. The water pump 220 drives the water to be sent into the heat exchange tube 211 through the water pipe 222. The heat exchange tube 211 is located between the evaporator 130 and the impeller 140. When air passes through this point, the air exchanges heat with the heat exchange tube 211, which works in conjunction with the evaporator 130. Heat exchange can increase the efficiency of indoor cooling. The auxiliary cooling mechanism 200 can play an auxiliary cooling role. Since the temperature of the condensed water droplets is lower than the air temperature, heat will be transferred from the air to the water in the heat exchange tube 211, thereby lowering the air temperature. In conjunction with the evaporator 130, the air can be cooled to a lower temperature before entering the room, which enhances the cooling capacity of the entire refrigeration system, allows the indoor temperature to reach the predetermined value quickly, reduces the consumption of energy-consuming components and the working time, and effectively reduces energy consumption. In addition, the sealing by the outer shell 210 can effectively prevent air from bypassing the heat exchange tube 211 and the evaporator 130 and flowing directly through the gaps. This would prevent sufficient heat exchange and reduce the cooling effect.

[0053] like Figure 4-5 As shown, in this embodiment, the heat dissipation mechanism 300 includes the following parts: its water storage bottle 310 is fixed to the outer wall of the external cabinet 120, and its top is inserted into one end of the water pipe 223; the motor 311 is fixed to the top of the water storage bottle 310; a threaded rod 312 is fixedly connected to the rotating shaft of the motor 311, and one end of the threaded rod 312 is rotatably connected to the inner bottom wall of the water storage bottle 310; its disc 313 is screwed onto the threaded rod 312 and is slidably inserted into the inside of the water storage bottle 310; and the U-shaped tube 314... The U-shaped tube 314 is fixed to the outer wall of the water storage bottle 310 and communicates with the inside of the water storage bottle 310. The cross valve 315 is fixed to the bottom of the water storage bottle 310, and the round tube 320 is fixed to the bottom of the water storage bottle 310. Two square holes 321 are opened at equal angles near one end of the outer wall of the round tube 320, and a sealing element 324 is slidably inserted into the inside of the round tube 320. A round frame 322 is fixedly connected to one end of the round tube 320, and its spring 323 is fixed between the sealing element 324 and the outer wall of the round frame 322.

[0054] In practice, the water in the heat exchange tube 211, after heat exchange, flows along the water pipe 223 into the water storage bottle 310 fixed to the external cabinet 120. When the water in the water storage bottle 310 reaches a certain amount, the motor 311 drives the threaded rod 312 to rotate and engage with the disc 313. The disc 313 moves downward, squeezing out the water inside. When all the water in the water storage bottle 310 has been expelled, the disc 313 returns to its original position. During this process, the seal 324 is pulled into the water storage bottle 310. The sliding mechanism releases the seal inside the water storage bottle 310, preventing the water from being drawn back when the disc 313 moves. After the disc 313 stops moving, the spring 323 rebounds, causing the seal 324 to adhere to the inside of the round tube 320, thus sealing the water storage bottle 310. By storing the water in the water storage bottle 310 after heat exchange, it can be reused. When the water pressure reaches a certain value, the disc 313 is driven to move, discharging the water and increasing the spray pressure of the nozzle 332, effectively improving the recyclability.

[0055] Example 2

[0056] like Figure 6 As shown, in this embodiment, the heat dissipation mechanism 300 includes the following parts: its water pipe 330 is fixed at the cross valve 315, a U-shaped pipe 331 is fixedly connected to the other end of the water pipe 330, and the U-shaped pipe 331 is fixed to the outer wall of the external cabinet 120. Its nozzles 332 are provided in two sets, which are respectively fixed at both ends of the U-shaped pipe 331.

[0057] In practice, the water supplied from the water storage bottle 310 flows through the water pipe 330 into the U-shaped pipe 331, and is simultaneously sprayed out through four nozzles 332, covering the condenser exposed on one side of the external cabinet 120. As the water covers the condenser exposed on one side of the external cabinet 120, it evaporates on the surface of the condenser. This process is endothermic, and the evaporation of water carries away a large amount of heat, allowing the temperature of the condenser to drop rapidly, thereby improving the heat dissipation efficiency of the condenser. When the condenser dissipates heat well, the pressure and temperature of the refrigerant can recover to a suitable state more quickly, reducing the workload of the compressor and effectively improving energy saving.

[0058] In the description of this specification, references to terms such as "an embodiment," "example," and "specific example" indicate that a specific feature, structural material, or characteristic described in connection with that embodiment or example is included in at least one embodiment or example of the present invention. In this specification, the illustrative expressions of the above terms do not necessarily refer to the same embodiment or example. Furthermore, the specific features, structural materials, or characteristics described may be combined in any suitable manner in one or more embodiments or examples.

[0059] The above description is merely an example and illustration of the present utility model. Those skilled in the art can make various modifications or additions to the specific embodiments described or use similar methods to replace them, as long as they do not deviate from the utility model or exceed the scope defined in the claims, they should all fall within the protection scope of the present utility model.

Claims

1. An energy-saving condensing unit for condensate pipe installation projects, comprising: The condensing unit (100) includes an inner casing (110) with refrigerant pipes connected to an outer cabinet (120). Evaporator (130) is fixed inside the inner casing (110); The impeller (140) rotates inside the inner casing (110) near the evaporator (130); Its characteristic is that it further includes: An auxiliary cooling mechanism (200) is fixed inside the inner casing (110) between the evaporator (130) and the impeller (140) and can assist in cooling. The heat dissipation mechanism (300) is fixed to the outer wall of the external cabinet (120) near the condenser and can dissipate heat from the condenser.

2. The energy-saving condensing equipment for condensate pipe installation engineering according to claim 1, characterized in that, The internal chassis (110) includes: Inclined groove 1 (111) is formed on the bottom wall of the inner casing (110); The second inclined slot (112) is located on the inner bottom wall of the inner casing (110) on one side of the first inclined slot (111), and a round hole (113) is provided on the inner wall of the second inclined slot (112).

3. The energy-saving condensing equipment for condensate pipe installation engineering according to claim 2, characterized in that, The auxiliary cooling mechanism (200) includes: There are two outer casings (210), which are fixed at both ends between the inner casing (110) and the evaporator (130) respectively, so as to seal the two sides and prevent air leakage.

4. The energy-saving condensing equipment for condensate pipe installation engineering according to claim 3, characterized in that, The auxiliary cooling mechanism (200) includes: The heat exchange tube (211) is fixed between the two outer shells (210) and located between the evaporator (130) and the impeller (140).

5. The energy-saving condensing equipment for condensate pipe installation engineering according to claim 4, characterized in that, The auxiliary cooling mechanism (200) includes: A water pump (220) is fixed to the inner wall of one side of the inner casing (110). A water pipe (221) is fixedly connected between the water inlet of the water pump (220) and the round hole (113). A water pipe (222) is fixedly connected between the water outlet of the water pump (220) and one end of the heat exchange tube (211). Water pipe 3 (223) is fixed at one end to the other end of heat exchange pipe (211).

6. The energy-saving condensing equipment for condensate pipe installation engineering according to claim 5, characterized in that, The heat dissipation mechanism (300) includes: The water storage bottle (310) is fixed to the outer wall of the external cabinet (120), and its top is inserted into one end of the water pipe (223); The motor (311) is fixed to the top of the water storage bottle (310). The shaft of the motor (311) is fixedly connected to a threaded rod (312). One end of the threaded rod (312) is rotatably connected to the bottom wall of the water storage bottle (310). The disc (313) is screwed onto the threaded rod (312) and slidably inserted into the water storage bottle (310); U-shaped tube 1 (314) is fixed to the outer wall of the water storage bottle (310), and the inside of U-shaped tube 1 (314) is connected to the inside of the water storage bottle (310); A cross valve (315) is fixed to the bottom of the water storage bottle (310); A round tube (320) is fixed to the bottom of a water storage bottle (310). Two square holes (321) are opened at equal angles near one end of the outer wall of the round tube (320). A sealing element (324) is slidably inserted inside the round tube (320). A round frame (322) is fixedly connected to one end of the round tube (320). Spring (323) is fixed between seal (324) and outer wall of round frame (322).

7. The energy-saving condensing equipment for condensate pipe installation engineering according to claim 6, characterized in that, The heat dissipation mechanism (300) includes: Water pipe four (330) is fixed at the cross valve (315), and the other end of water pipe four (330) is fixedly connected to U-shaped pipe two (331), and U-shaped pipe two (331) is fixed to the outer wall of the external cabinet (120); The nozzle (332) is provided in two sets, which are fixed at both ends of the U-shaped tube (331).

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