Energy-saving atomization cooling system of air conditioner

Abstract

The utility model provides an air conditioner energy-saving atomization cooling system which comprises a water guide pipe arranged in an inner cavity of an air conditioner cooling device, the water guide pipe is an outer circulation water pipe, a pressurization device is arranged on the water guide pipe for pressurization, and the water guide pipe comprises a U-shaped connecting pipe, an atomization cooling cavity set and a guide pipe. One ends of the atomization cooling cavity sets on the left side and the right side are connected with the guide pipe, the other ends of the atomization cooling cavity sets on the left side and the right side are connected with the U-shaped connecting pipes, the two ends of every two adjacent atomization cooling cavity sets between the atomization cooling cavity sets on the left side and the right side are connected through the U-shaped connecting pipes, and the U-shaped connecting pipes arranged on the two sides of every two adjacent atomization cooling cavity sets in the middle face the opposite directions. A plurality of spray pipes are arranged on the left side and the right side of the atomization cooling cavity set, and water is sprayed out for cooling after being atomized through the spray pipes. In the prior art, an atomization cooling system usually uses a pump or a pressure system to circulate and pressurize water, but in the atomization cooling system, a water guide pipe is adopted as an outer circulation water pipe, and a pressurizing device is arranged to pressurize.

Description

Technical Field

[0001] The utility model belongs to the field of atomization cooling, and particularly relates to an air-conditioning energy-saving atomization cooling system. Background Art

[0002] At present, the air conditioning energy-saving atomizing cooling system is a technical solution that uses atomizing technology and advanced control systems to achieve air conditioning energy saving. In traditional air conditioning systems, the operation of air conditioning equipment requires a lot of electricity, especially in hot seasons, when air conditioning equipment requires a lot of energy to reduce indoor temperature. This not only increases energy consumption, but also poses a challenge to the stability of the power system.

[0003] The mist cooling technology atomizes water into tiny water droplets, then transports these tiny water droplets to the space required by the air conditioning system, and uses the evaporation of water droplets to remove the heat in the air, thereby reducing the indoor temperature. This technology has significant advantages in energy saving and cooling, and can effectively reduce the energy consumption of air conditioning equipment and improve energy efficiency.

[0004] With the development of ultrasonic atomization technology, the atomization effect and energy consumption control of the atomizer have been significantly improved. Ultrasonic atomization technology can atomize water into uniform and fine water droplets, improve atomization efficiency and reduce energy waste. At the same time, advanced control systems also provide technical support for the energy-saving operation of the atomization cooling system. By monitoring and adjusting the operation of the atomizer and ventilation system, the control system can automatically adjust the operation of the atomizer and ventilation system according to the ambient temperature and humidity to achieve energy-saving atomization cooling.

[0005] The technical background of the air conditioning energy-saving mist cooling system also includes the design and layout optimization of the ventilation system. The ventilation system needs to effectively transport the atomized water droplets to the space required by the air conditioning system, while ensuring the uniform distribution and sufficient evaporation of the atomized water droplets to achieve the best cooling effect. In addition, the installation location of the mist cooling system and the coordination of the air conditioning system are also important considerations in the technical background. Reasonable installation location and coordination design can maximize the energy-saving and cooling effect of the mist cooling system.

[0006] In summary, the technical background of air-conditioning energy-saving mist cooling system includes atomization technology, ultrasonic atomization technology, advanced control system, ventilation system design and layout optimization, as well as technical development in installation location and matching design. The progress and application of these technologies provide technical support for the research and development and promotion of air-conditioning energy-saving mist cooling system, and are expected to bring new breakthroughs and developments in the field of energy conservation and environmental protection.

[0007] Therefore, there is an urgent need for an air-conditioning energy-saving atomizing cooling system. Utility Model Content

[0008] The utility model proposes an air-conditioning energy-saving atomizing cooling system, which solves the technical problem of realizing water atomization cooling in the inner cavity of the air-conditioning cooling device in the prior art. Through the design of the water guide pipe and the nozzle, the atomization and spraying of water are realized, thereby reducing the indoor temperature and improving the energy efficiency and cooling effect of the air-conditioning system.

[0009] The technical solution of the utility model is achieved as follows: an air-conditioning energy-saving atomizing cooling system, comprising an air-conditioning cooling device having an inner cavity provided with a water pipe, the water pipe being an external circulation water pipe, the water pipe being provided with a pressurizing device for pressurizing, the water pipe comprising a U-shaped connecting pipe, an atomizing cooling chamber group and a conduit, one end of the atomizing cooling chamber groups on the left and right sides being connected to the conduit, and the other end being connected to the U-shaped connecting pipe, the two ends of the two adjacent atomizing cooling chamber groups in the middle of the atomizing cooling chamber groups on the left and right sides being connected respectively by U-shaped connecting pipes, the U-shaped connecting pipes arranged on both sides of the two adjacent atomizing cooling chamber groups in the middle being in opposite directions, a plurality of nozzles being provided on the left and right sides of the atomizing cooling chamber group, water being atomized by the nozzles and then sprayed out for cooling.

[0010] The atomizing cooling system in the prior art usually uses a pump or a pressure system to circulate and pressurize water, while in this system, a water pipe is used as an external circulation water pipe, and a pressurizing device is provided for pressurization. This setting provides a more efficient and controllable water circulation and pressurization method. The atomizing cooling chamber groups on the left and right sides are connected by a U-shaped connecting pipe, and the U-shaped connecting pipes arranged on both sides of the two adjacent atomizing cooling chamber groups in the middle are in opposite directions. This connection method helps to achieve a more uniform water flow distribution and atomization effect. Several nozzles are provided on the left and right sides of the atomizing cooling chamber group, and the water is atomized and sprayed out through the nozzles for cooling. Compared with the traditional system, this setting provides a more uniform and effective atomization spraying method, thereby improving the cooling effect. Compared with the prior art, this air-conditioning energy-saving atomizing cooling system has innovations and improvements in the water circulation pressurization method, the connection method of the atomizing cooling chamber group, and the setting of the nozzle, which is expected to improve the energy-saving effect and cooling efficiency of the system.

[0011] As a preferred embodiment, the atomizing cooling chamber group is formed by at least three atomizing cooling chambers connected in series, a number of nozzles are arranged on the left and right sides of the atomizing cooling chamber from top to bottom, and the atomizing cooling chamber adopts a rugby-shaped structure.

[0012] As a preferred embodiment, the atomizing cooling chambers connected in series are connected via a connecting tube, and a rubber ring is provided on the inner wall of the connecting tube.

[0013] As a preferred embodiment, the outer side of the inner wall of the turning part of the U-shaped connecting pipe is connected to the cooling drum, and the U-shaped connecting pipe is auxiliary cooled by the cooling drum.

[0014] After adopting the above technical solution, the beneficial effect of the utility model is: through the atomization cooling technology, the system can atomize water into tiny water droplets, and then spray them out through the nozzle, so as to achieve cooling of the inner cavity of the air-conditioning cooling device. Compared with the traditional air-conditioning refrigeration method, this method can reduce energy consumption and improve energy-saving effects. The water pipe adopts an external circulation water pipe and is provided with a pressurizing device for pressurization, which can improve the circulation efficiency of the water, ensure that the atomization cooling system can operate continuously and stably, and improve the working efficiency of the system. The U-shaped connecting pipes arranged on both sides of the two adjacent atomization cooling chamber groups in the middle are in opposite directions, which can achieve a more uniform water flow distribution and atomization effect, ensuring the uniform distribution of water mist in the entire inner cavity of the cooling device. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] In order to more clearly illustrate the embodiments of the utility model or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the utility model. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative labor.

[0016] Figure 1 It is a schematic diagram of the overall structure of the utility model.

[0017] In the figure, 1-water guide pipe; 2-U-shaped connecting pipe; 3-atomizing cooling chamber group; 31-spray pipe; 32-atomizing cooling chamber; 33-connecting cylinder; 4-cooling rotary cylinder. DETAILED DESCRIPTION

[0018] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments of the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0019] Example:

[0020] like Figure 1As shown, an air-conditioning energy-saving atomizing cooling system comprises a water pipe 1 provided in the inner cavity of an air-conditioning cooling device, the water pipe 1 is an external circulation water pipe, a pressurizing device is provided on the water pipe 1 for pressurizing, the water pipe 1 comprises a U-shaped connecting pipe 2, an atomizing cooling chamber group 3 and a conduit, one end of the atomizing cooling chamber groups 3 on the left and right sides is connected to the conduit, and the other end is connected to the U-shaped connecting pipe, the two ends of the middle adjacent atomizing cooling chamber groups 3 on the left and right sides are respectively connected by the U-shaped connecting pipe 2, and the U-shaped connecting pipes 2 arranged on both sides of the middle adjacent atomizing cooling chamber groups 3 are in opposite directions, and a plurality of nozzles 31 are provided on the left and right sides of the atomizing cooling chamber group 3, and water is atomized and sprayed out for cooling through the nozzles 31.

[0021] In this application document, water pipe 1: as an external circulation water pipe, the water pipe is responsible for transporting water to the entire system. Pressurizing device: installed on the water pipe to increase the pressure of the water to facilitate the atomization process. U-shaped connecting pipe 2: used to connect the atomizing cooling chamber group 3 and the conduit 4 to form a circulation path for the water flow. Atomizing cooling chamber group 3: the core part of the system, with several nozzles 31 inside for atomizing water and spraying it out to achieve a cooling effect. Conduit 4: connects the atomizing cooling chamber group and the U-shaped connecting pipe to form a channel for water flow. Nozzle 31: located on both sides of the atomizing cooling chamber group, used to atomize and spray water. The working principle of the system is based on the evaporative cooling effect of water. When water is atomized into fine droplets, it evaporates quickly and absorbs heat from the air, thereby reducing the air temperature. This method can improve the energy efficiency of the air-conditioning system, because the heat consumed in the evaporation process will lead to a reduction in the air-conditioning load.

[0022] The entire workflow is that water is pumped from a water source into the water pipe 1. The pressurizing device increases the pressure of the water to facilitate the atomization process. The pressurized water flows through the conduit 4 into the atomizing cooling chamber group 3. In the atomizing cooling chamber group 3, the water is atomized into fine water droplets and sprayed out through the nozzle 31. The atomized water droplets come into contact with the air, evaporate, and absorb heat from the air, thereby achieving a cooling effect. The U-shaped connecting pipe 2 connects the atomizing cooling chamber groups 3 on the left and right sides to form a closed circulation system, ensuring that the water can be continuously transported and atomized. The U-shaped connecting pipes 2 arranged on both sides of the two adjacent atomizing cooling chamber groups 3 in the middle face opposite directions, in order to ensure uniform distribution of the water flow, so that all atomizing cooling chamber groups can effectively participate in the atomization and cooling process. After evaporative cooling, the air temperature is reduced, achieving the energy-saving effect of the air conditioner.

[0023] The design of this system uses the evaporative cooling effect of water to reduce the air temperature and improve the energy efficiency of air conditioning through a circulating water atomization system. The configuration of the atomization cooling chamber group and the nozzle ensures that the water can be effectively atomized and sprayed, while the design of the U-shaped connecting pipe ensures the uniform distribution and circulation of the water flow. The pressurizing device provides the water pressure required for atomization, further improving the efficiency and energy saving effect of the system.

[0024] The atomizing cooling chamber group 3 is formed by at least three atomizing cooling chambers 31 connected in series, and the nozzles 31 arranged on the left and right sides of the atomizing cooling chamber 32 are arranged from top to bottom, and the atomizing cooling chamber 3 adopts a rugby-shaped structure. The atomizing cooling chamber group 3 is composed of at least three atomizing cooling chambers 31 connected in series, which means that at least three atomizing cooling units are connected in sequence. The series design can ensure that the water flow can be effectively atomized when passing through each cooling chamber, thereby improving the cooling efficiency of the entire system. The series chambers can gradually reduce the water temperature during the water flow process, and each chamber provides an independent environment for water atomization. Several nozzles 31 are arranged on the left and right sides of each atomizing cooling chamber 32, and these nozzles are arranged from top to bottom. This arrangement can ensure that the water mist is evenly distributed in the inner cavity of the air-conditioning cooling device, thereby improving the cooling effect. Water is atomized into fine water droplets under high pressure through these nozzles, and these water droplets evaporate in the air, absorb heat, and achieve a cooling effect. The atomizing cooling chamber 3 adopts a rugby-shaped structure, which helps to improve the dispersion efficiency of water mist and the dynamic characteristics of air flow compared with other shapes. The cavity with a rugby-shaped structure can make the water flow smoother when passing through the nozzle 31, reduce the turbulence and resistance of the water flow, and also help the sprayed water mist to be more evenly distributed in the air. The design of the atomizing cooling chamber group 3 achieves efficient water atomization and uniform cooling effect through multiple series-connected atomizing cooling chambers and nozzles arranged from top to bottom, as well as a rugby-shaped structure, thereby improving the energy-saving performance of the air-conditioning system. Through such a design, the air-conditioning energy-saving atomizing cooling system can more effectively utilize water resources for cooling, reduce energy consumption, and also provide a more comfortable ambient temperature.

[0025] As a preferred embodiment, the atomizing cooling chambers 32 in series are connected by a connecting tube 33, and the inner wall of the connecting tube 33 is provided with a rubber ring. The role of the rubber ring is that when not pressurized, only a small part of the atomizing cooling chamber can perform the operation of spraying atomization, and the opening and closing of the rubber ring can be controlled by controlling the pressure. The atomizing cooling chambers 32 in series are connected by a connecting tube 33. The connecting tube 33 is a tubular component used to connect each atomizing cooling chamber in sequence into a whole. Such a design allows the water flow to move smoothly between the atomizing cooling chambers and ensures the continuity and stability of the entire system. A rubber ring is provided on the inner wall of the connecting tube 33. The rubber ring is an elastic material, and its role is to provide a variable sealing function. In the state of no pressure or low pressure, the rubber ring can remain closed, which helps to prevent the uncontrolled flow of water between the atomizing cooling chambers. The main function of the rubber ring is to control the spraying operation of the atomizing cooling chamber. When no pressure is applied or the pressure is low, the rubber ring remains closed, which means that only part of the atomizing cooling chamber can spray atomized water. By adjusting the pressure, the opening and closing state of the rubber ring can be controlled. As the pressure increases, the force on the rubber ring increases, causing them to gradually open, which allows more atomizing cooling chambers to participate in the spray operation and increase the cooling capacity of the entire system. The advantage of this design is that it can adjust the amount of atomization according to the actual cooling needs of the system. For example, in cooler weather or when the air conditioning load is low, the amount of atomized water sprayed can be reduced by reducing the pressure, thereby achieving energy saving. On the contrary, in hot weather or when the air conditioning load is high, the amount of atomized water sprayed can be increased by increasing the pressure to meet higher cooling needs. This adjustable design makes the air conditioning energy-saving atomizing cooling system more flexible and efficient.

[0026] The outer side of the inner wall of the U-shaped connecting pipe 2 at the turning point is connected to the cooling drum 4, and the U-shaped connecting pipe 2 is auxiliary cooled by the cooling drum 4. At the turning point of the U-shaped connecting pipe 2, a connecting structure is designed on the outer side of its inner wall for connecting to the cooling drum 4. The turning design of the U-shaped connecting pipe helps to change the direction of the water flow, so that the water flow can be smoothly transferred between the atomizing cooling chamber groups 3. The cooling drum 4 is connected to the outer side of the inner wall at the turning point of the U-shaped connecting pipe 2. The cooling drum 4 is an additional cooling device for auxiliary cooling of the water flow in the connecting pipe. The purpose of auxiliary cooling of the U-shaped connecting pipe 2 by the cooling drum 4 is to further reduce the water temperature and improve the cooling efficiency of the system. When water passes through the U-shaped connecting pipe 2, a certain degree of heat will be generated due to the turning of the pipe. The function of the cooling drum 4 is to absorb this part of the heat and reduce the increase in water temperature, so that the water flow maintains a lower temperature before entering the next atomizing cooling chamber.

[0027] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. An air conditioning energy-saving atomizing cooling system, characterized in that: The invention comprises a water pipe (1) arranged in the inner cavity of an air conditioning cooling device, the water pipe (1) being an external circulation water pipe, the water pipe (1) being provided with a pressurizing device for pressurizing, the water pipe (1) comprising a U-shaped connecting pipe (2), an atomizing cooling chamber group (3) and a conduit, one end of the atomizing cooling chamber groups (3) on the left and right sides being connected to the conduit, and the other end being connected to the U-shaped connecting pipe, the two ends of the two adjacent atomizing cooling chamber groups (3) in the middle of the atomizing cooling chamber groups (3) on the left and right sides being connected respectively by the U-shaped connecting pipe (2), the U-shaped connecting pipes (2) arranged on both sides of the two adjacent atomizing cooling chamber groups (3) in the middle facing in opposite directions, the atomizing cooling chamber group (3) being provided with a plurality of spray pipes (31) on the left and right sides, water being sprayed out for cooling after being atomized by the spray pipes (31).

2. An air conditioning energy-saving atomizing cooling system as claimed in claim 1, characterized in that: The atomizing cooling chamber group (3) is formed by at least three atomizing cooling chambers (32) connected in series, a plurality of nozzles (31) are arranged on the left and right sides of the atomizing cooling chamber (32) from top to bottom, and the atomizing cooling chamber (32) adopts a rugby-shaped structure.

3. An air conditioning energy-saving atomizing cooling system as claimed in claim 2, characterized in that: The atomizing cooling chambers (32) connected in series are connected via a connecting tube (33), and a rubber ring is provided on the inner wall of the connecting tube (33).

4. The air conditioning energy-saving atomizing cooling system according to claim 1, characterized in that: The outer side of the inner wall of the U-shaped connecting pipe (2) at the turning point is connected to the cooling drum (4), and the U-shaped connecting pipe (2) is auxiliary cooled by the cooling drum (4).

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