System for solving air energy high-rise defrosting water discharge

Abstract

A system for solving air energy high-rise defrosting water discharge is characterized in that an air energy main machine is provided with a water receiving bottom shell, an air energy evaporator is additionally provided with a branch copper pipe, the branch copper pipe is arranged in the water receiving bottom shell, and the branch copper pipe and an air energy evaporator body are connected in parallel through a controllable valve. By optimizing the defrosting water discharge structure of the air energy system, the problem of water turbulence in the defrosting process of the air energy main machine of the high-rise residence is solved. According to the principle, heat generated by the evaporator during defrosting is used for heating liquid defrosting water in the air energy bottom shell, and meanwhile, L-shaped water guide grooves are formed in the two sides of the evaporator so as to collect and guide condensate water which cannot enter the bottom shell. Through the arrangement of the inclination angle and the design of the sleeve drainage pipeline, orderly drainage of defrosting water is achieved, so that the phenomena of ground moisture and mildewing are avoided, the safety of the system is improved, and the service life of the system is prolonged.

Description

Technical Field

[0001] The utility model relates to the technical field of air energy, in particular to a system for solving the defrosting water discharge of air energy in high-rise buildings. Background Art

[0002] At present, air energy has gradually become the core component of the energy system in high-rise residential buildings due to its advantages such as small volume, safety, comfort, environmental protection and energy saving. More and more people aspire to and pursue a high-quality energy life mode that is intelligent, comfortable and green. When air energy is used in high-rise residential buildings, the random flow of defrosting water from the main unit often causes the ground to be wet and moldy, which is easy to slip and affects the service life of the air energy main unit. To solve the problem of the directional flow of defrosting water from the air energy main unit, a system for solving the defrosting water discharge of air energy in high-rise buildings is urgently needed. Summary of the Invention

[0003] The technical problem to be solved by the utility model is to propose a system for solving the defrosting water discharge of air energy in high-rise buildings to ensure the dryness and safety of the environment in high-rise residential buildings in view of the deficiencies of the prior art.

[0004] The technical problem to be solved by the utility model is realized through the following technical solutions. A system for solving the defrosting water discharge of air energy in high-rise buildings is characterized in that:

[0005] The air energy main unit is provided with a water receiving bottom shell. A branch copper pipe is added to the air energy evaporator and the branch copper pipe is arranged in the above-mentioned water receiving bottom shell. A parallel connection is formed between the branch copper pipe and the air energy evaporator body through a controllable valve.

[0006] The technical problem to be solved by the utility model can also be further realized through the following technical solutions. The controllable valve is an electromagnetic valve.

[0007] The technical problem to be solved by the utility model can also be further realized through the following technical solutions. A confluence port is provided at the bottom of the water receiving bottom shell, and the bottom of the water receiving bottom shell is set as a funnel shape inclined towards the confluence port.

[0008] The technical problem to be solved by the utility model can also be further realized through the following technical solutions. A drainage pipe is provided between the confluence port and the indoor sewer pipe. A protective outer pipe is provided outside the drainage pipe, and a circulating hot air channel is formed between the drainage pipe and the outer pipe. The circulating hot air channel is connected to the hot air in the room.

[0009] The technical problem to be solved by the utility model can also be further realized through the following technical solutions. An electric heating trace is installed in the circulating hot air channel.

[0010] The technical problem to be solved by the present utility model can also be further realized by the following technical solution. L-shaped water guide grooves are installed on both sides of the air energy evaporator to collect and guide the water generated by defrosting on the fins of the air energy host into the bottom water receiving shell.

[0011] Compared with the prior art, the present utility model solves the problem of water turbulent flow during the defrosting process of the air energy host in high-rise residential buildings by optimizing the defrosting water discharge structure of the air energy system. The principle lies in using the heat generated by the evaporator during defrosting to heat the liquid defrosting water in the air energy bottom shell, and at the same time, installing L-shaped water guide grooves on both sides of the evaporator to collect and guide the condensed water that fails to enter the bottom shell. Through the design of setting the inclination angle and the sleeve drainage pipe, the orderly discharge of defrosting water is realized, thereby avoiding the phenomenon of ground dampness and mildew, and improving the safety and service life of the system. Brief Description of the Drawings

[0012] Figure 1 It is a connection system diagram of the air energy host and the floor drain in the wall;

[0013] Figure 2 It is a structural diagram of the bottom water receiving shell;

[0014] Figure 3 It is a side view of the bottom water receiving shell;

[0015] Figure 4 It is a side view of the air energy host. Detailed Embodiment

[0016] The following further describes the specific technical solutions of the present invention. To make the objectives, technical solutions, and advantages of the embodiments of the present invention clearer, so as to facilitate those skilled in the art to further understand the present invention, the technical solutions in the embodiments of the present invention will be clearly and completely described below. Obviously, the described embodiments are some, but not all, of the embodiments of the present invention, and do not constitute a limitation on its rights. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0017] A system for solving the defrosting water discharge of high-rise air energy. The air energy host 1 is provided with a bottom water receiving shell 2. A branch copper pipe 5 is added to the air energy evaporator and the branch copper pipe is arranged in the above-mentioned bottom water receiving shell. A parallel connection is formed between the branch copper pipe and the air energy evaporator body through a controllable valve. The controllable valve is an electromagnetic valve.

[0018] An additional branch of copper pipe is arranged in the water receiving bottom shell of the air energy evaporator to utilize the heat generated by the air energy evaporator during defrosting to heat the water receiving tray of the air energy bottom shell at the same time. During air energy defrosting, the evaporator copper pipe is controlled to open by a solenoid valve. The evaporator copper pipe operates with high-temperature and high-pressure gaseous refrigerant, passes through the air energy bottom shell, and heats and discharges the defrosting water in the bottom shell. When the air energy is not defrosting, the evaporator copper pipe is controlled to close by a solenoid valve, and the low-temperature and low-pressure liquid refrigerant will not flow through the air energy bottom shell, which is more energy-efficient and efficient compared with the electric heating form.

[0019] A confluence port 4 is provided at the bottom of the water receiving bottom shell, and the bottom of the water receiving bottom shell is set as a funnel shape inclined towards the confluence port. The bottom of the bottom shell has a certain angle of inclination. When the air energy defrosting water is generated, the defrosting water can be quickly collected and discharged from the bottom shell.

[0020] A drainage pipe 3 is provided between the confluence port and the indoor drain pipe. A protective outer pipe is provided outside the drainage pipe, and a circulating hot air channel is formed between the drainage pipe and the outer pipe. The circulating hot air channel is connected to the hot air in the room. An electric heating tracing band can be installed in the circulating hot air channel. The structure of a hollow sleeve is used. During air energy defrosting, the inner pipe of the drainage pipe flows the defrosting water, and the hollow part flows the indoor hot air, and the drain pipe is prevented from freezing through heat transfer. When the air energy is defrosting, the tracing band can also be started for electric heating to heat the pipeline to discharge the defrosting water smoothly.

[0021] L-shaped water guide grooves 6 are installed on both sides of the air energy evaporator to collect the water generated by defrosting on the fins of the air energy main unit into the water receiving bottom shell.

[0022] The L-shaped water guide groove is fixed to the outer shell of the air energy main unit and set at a certain angle of inclination, such as 3°, which is beneficial to the flow of defrosting water into the water receiving tray of the main unit.

[0023] System operation and inspection

[0024] Start the air energy system to ensure normal operation. Check the evaporation effect of the liquid defrosting water in the bottom shell and the drainage conditions of the L-shaped water guide groove and the drainage pipe. Regularly maintain and inspect the entire system to ensure its long-term stable operation and avoid poor drainage caused by blockage or damage.

Claims

1. A system for solving the problem of defrosting water discharge at high altitudes of air energy, characterized in that: The air energy host is provided with a water receiving bottom shell. A branch copper pipe is added to the air energy evaporator and the branch copper pipe is arranged in the above-mentioned water receiving bottom shell. A parallel connection is formed between the branch copper pipe and the air energy evaporator body through a controllable valve.

2. The system for solving the defrosting water discharge of air energy at high altitudes according to claim 1, characterized in that: The controllable valve is a solenoid valve.

3. The system for solving the defrosting water discharge of air energy at high altitudes according to claim 1, wherein: A confluence port is provided at the bottom of the water receiving bottom shell, and the bottom of the water receiving bottom shell is set to be funnel-shaped and inclined towards the confluence port.

4. The system for solving the defrosting water discharge of air energy at high altitude according to claim 1, wherein: A drainage pipe is provided between the confluence port and the indoor sewer pipe. A protective outer pipe is provided outside the drainage pipe, and a circulating hot air channel is formed between the drainage pipe and the outer pipe. The circulating hot air channel is connected to the hot air in the room.

5. The system for solving the defrosting water discharge of air energy at high altitude according to claim 4, characterized in that: An electric heating trace is installed in the circulating hot air channel.

6. The system for solving the defrost water discharge of air energy at high altitude according to claim 1, characterized in that: L-shaped water guide grooves are installed on both sides of the air energy evaporator to collect the water generated by defrosting on the fins of the air energy host and introduce it into the water receiving bottom shell.

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