Refrigerant homogenizing pipe of condenser

Abstract

The utility model relates to a condenser refrigerant liquid homogenizing pipe which comprises a liquid homogenizing pipeline and a liquid homogenizing butt joint pipeline. A liquid conveying end head of the liquid homogenizing pipeline is mounted at a pipeline butt joint end head and is in liquid supply butt joint with the liquid homogenizing butt joint pipeline through an adjusting pipeline, a liquid conveying end head is arranged on the main view end face of the liquid homogenizing butt joint pipeline, and the liquid conveying end head is in liquid supply butt joint with a liquid conveying plug; the infusion tube sleeve integrally connected with the rear end face of the infusion plug is in liquid supply butt joint with a liquid supply tank through a pipeline. According to the condenser refrigerant liquid homogenizing pipe, the telescopic combined pipes on the left side and the right side are matched to complete two-end uniform mixing and distribution of refrigerants, and the structure can complete distribution work in the follow-up process through cooperation of a refrigerant metering sensor of a condenser and a driving air cylinder. In the distribution process, the air cylinder can be driven to perform a pneumatic pushing process according to the required dosage, and the quantity of supplied refrigerants can be calculated according to the pushing duration in the pneumatic pushing process. Therefore, the liquid homogenizing pipeline completes the supply process.

Description

Technical Field

[0001] The utility model belongs to the technical field of condenser refrigerant auxiliary equipment, and particularly relates to a condenser refrigerant liquid equalizing pipe. Background Art

[0002] The condenser is a key component in a refrigeration system. Its primary function is to cool the high-temperature, high-pressure refrigerant vapor discharged from the compressor into a liquid. The cooling process of the refrigerant in the condenser typically involves heat exchange, where the refrigerant vapor releases heat to a cooling medium (such as water or air), condensing it into a liquid. The operating principle of a condenser is similar to that of a heat exchanger, utilizing heat conduction, convection, and radiation to transfer heat.

[0003] Uneven distribution of refrigerant across the condenser can lead to a number of adverse consequences, including reduced cooling capacity and incomplete evaporation. When excessive refrigerant is present in some branches, the evaporator may be too cold, resulting in incomplete evaporation and overflow of liquid from the heat exchanger. This not only reduces the effective evaporation area but can also significantly reduce cooling capacity. Conversely, if too little refrigerant is present in some branches, the evaporator's heat transfer area in those branches will not be fully utilized, also reducing cooling capacity.

[0004] Therefore, this application provides a condenser refrigerant equalizing pipe. This application uses a telescopic combination pipe on the left and right sides to achieve a two-way mixing and distribution structure for the refrigerant. This structure can then be used to complete the distribution work through the condenser's refrigerant metering sensor and the drive cylinder. During the distribution process, the cylinder can be driven to perform a pneumatic pushing process according to the required dosage. During the pneumatic pushing process, the refrigerant supply meter can be calculated based on the pushing time. This allows the equalizing pipe to complete the supply process. Summary of the Invention

[0005] In order to achieve the above-mentioned purpose, the technical solution of the present utility model is as follows:

[0006] A condenser refrigerant liquid equalizing pipe comprises a liquid equalizing pipeline and a liquid equalizing docking pipe; the infusion end of the liquid equalizing pipeline is installed on the pipeline docking end and is connected to the liquid equalizing docking pipeline liquid supply through an adjusting pipe; the main viewing end face of the liquid equalizing docking pipeline is provided with an infusion end, the infusion end is connected to the liquid supply of an infusion plug, and the infusion tube sleeve integrally connected to the rear end face of the infusion plug is connected to the liquid supply of a liquid supply tank through a pipeline.

[0007] Furthermore, the regulating pipeline includes a cylinder, a mounting platform and a telescopic combined pipe;

[0008] The front and rear end heads of the telescopic combination pipe are respectively connected to the central through hole of the mounting platform and the liquid uniformity docking pipe for liquid supply. The mounting platform is installed with a cylinder along the side of the central through hole. The cylinder drive port is connected to a pneumatic shaft. The pneumatic shaft is synchronously connected to the inner position synchronization retaining frame, and the inner position synchronization retaining frame is synchronously connected to the liquid uniformity docking pipe.

[0009] Furthermore, the inner position synchronization retaining frame is connected to the outer position synchronization retaining frame through a synchronization coupling, and the outer position synchronization retaining frame is synchronously connected to the outer ring of the mounting platform.

[0010] Furthermore, a guide plug is installed in the central groove of the infusion plug, and two groups of diversion infusion ports are distributed in a mirror-like manner on both sides of the guide plug. The two groups of diversion infusion ports are respectively connected to the infusion ports on the left and right sides for liquid supply.

[0011] Furthermore, the guide plug is docked with the guide socket at the center of the infusion terminal.

[0012] The beneficial effects of the utility model are:

[0013] Compared to existing technologies, this application provides a condenser refrigerant equalizing pipe. This application utilizes telescopic combined pipes on both sides to achieve a two-way mixing and distribution structure for the refrigerant. This structure can then be used to drive a cylinder to complete the distribution process through the condenser's refrigerant metering sensor. During the distribution process, the cylinder can be driven to perform a pneumatic push-up process based on the required dosage. During this pneumatic push-up process, the amount of refrigerant supplied can be calculated based on the push-up duration. This allows the equalizing pipe to complete the supply process. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 This is a structural schematic diagram of a condenser refrigerant liquid equalizing pipe according to the present utility model.

[0015] Figure 2 This is a structural schematic diagram of a condenser refrigerant equalizing pipe infusion plug according to the present utility model.

[0016] List of Figure Symbols:

[0017] 1 is the liquid uniformity pipeline, 2 is the pipeline docking end, 3 is the mounting platform, 4 is the guide socket, 5 is the liquid uniformity docking pipeline, 6 is the pneumatic shaft, 7 is the synchronous retaining frame, 8 is the cylinder, 9 is the synchronous coupling, 10 is the infusion end, 12 is the infusion port, 13 is the telescopic combination pipe, 14 is the infusion tube sleeve, 15 is the liquid supply tank, 16 is the guide plug, 17 is the infusion plug, and 18 is the shunt infusion port. DETAILED DESCRIPTION

[0018] The present invention will be further described below in conjunction with the accompanying drawings and specific embodiments. It should be understood that the following specific embodiments are only used to illustrate the present invention and are not used to limit the scope of the present invention.

[0019] like Figure 1 and Figure 2 As shown, a condenser refrigerant liquid equalizing pipe includes a liquid equalizing pipeline and a liquid equalizing docking pipeline; the infusion end of the liquid equalizing pipeline 1 is installed on the pipeline docking end 2 and is connected to the liquid equalizing docking pipeline 5 through an adjusting pipeline. The main viewing end face of the liquid equalizing docking pipeline 5 is provided with an infusion end 10, and the infusion end 10 is connected to the liquid supply of the infusion plug 17. The infusion tube sleeve 14 integrally connected to the rear end face of the infusion plug 17 is connected to the liquid supply tank 15 through a pipeline. Among them. The telescopic combination pipe cooperates to complete the refrigerant mixing and distribution structure at both ends. This structure can subsequently complete the distribution work through the refrigerant metering sensor of the condenser and the driving cylinder. During the distribution process, the cylinder can be driven to perform a pneumatic pushing process according to the required dosage. During the pneumatic pushing process, the amount of refrigerant supplied can be calculated according to the pushing time. Thus, the liquid equalizing pipeline completes the supply process.

[0020] like Figure 1 and Figure 2 As shown, the regulating pipeline includes a cylinder 8, a mounting platform 3 and a telescopic combined pipe 13;

[0021] The front and rear ends of the telescopic combination pipe 13 are respectively connected to the central through hole of the mounting platform 3 and the liquid uniformity docking pipe 5. The mounting platform 3 is equipped with a cylinder 8 along the side of the central through hole. The drive port of the cylinder 8 is connected to a pneumatic shaft 6. The pneumatic shaft 6 is synchronously connected to the inner position synchronization retaining frame 7, and the inner position synchronization retaining frame 7 is synchronously connected to the liquid uniformity docking pipe 5. The mounting platform 3 is an extended table surface, which can accommodate the cylinder 8 along the side. The pneumatic shaft 6 can serve as a telescopic transmission structure, adapted to the telescopic combination pipe 13 to complete the drive supply process. The telescopic combination pipe 13 can only open the built-in valve of the refrigerant when it is in the retracted state.

[0022] like Figure 1 and Figure 2 As shown, the inner position synchronization holder 7 is connected to the outer position synchronization holder 7 through the synchronization coupling 9, and the outer position synchronization holder 7 is synchronously connected to the outer ring of the mounting platform 3. Among them, the synchronization holder 7 serves as a guiding movement structure.

[0023] like Figure 1 and Figure 2 As shown, the central groove of the infusion plug 17 is equipped with a guide plug 16. Two sets of diverter infusion ports 18 are mirror-imaged on both sides of the guide plug 16. The two diverter infusion ports 18 are connected to the left and right infusion ports 12 for liquid supply. The diverter infusion ports 18 serve as a diverter for the infusion ports on both sides.

[0024] like Figure 1 and Figure 2 As shown, the guide plug 16 is guided and docked with the guide socket 4 at the center of the infusion terminal 10. The guide socket 4 serves as a guide installation structure for adaptive installation.

[0025] It should be noted that the above content only illustrates the technical idea of ​​the utility model and cannot be used to limit the protection scope of the utility model. For ordinary technicians in this technical field, they can make several improvements and modifications without departing from the principles of the utility model. These improvements and modifications all fall within the protection scope of the claims of the utility model.

Claims

1. A condenser refrigerant liquid balancing pipe, comprising a liquid balancing pipeline and a liquid balancing docking pipe; characterized by: The infusion end of the liquid-uniform pipeline (1) is mounted on the pipeline docking end (2) and docked with the liquid-uniform docking pipeline (5) through an adjusting pipeline. The main viewing end face of the liquid-uniform docking pipeline (5) is provided with an infusion end (10). The infusion end (10) docks with the liquid-uniform plug (17). The infusion tube sleeve (14) integrally connected to the rear end face of the infusion plug (17) docks with the liquid supply tank (15) through the pipeline.

2. The condenser refrigerant liquid balancing tube according to claim 1, characterized in that: The regulating pipeline comprises a cylinder (8), a mounting platform (3) and a telescopic combined pipe (13); The front and rear ends of the telescopic combined pipe (13) are respectively connected to the central through hole of the mounting platform (3) and the liquid supply of the uniform liquid docking pipe (5); the mounting platform (3) is provided with a cylinder (8) along the side of the central through hole; the drive port of the cylinder (8) is connected to a pneumatic shaft (6); the pneumatic shaft (6) is synchronously connected to the inner position synchronization retaining frame (7); and the inner position synchronization retaining frame (7) is synchronously connected to the liquid uniform liquid docking pipe (5).

3. The condenser refrigerant liquid balancing tube according to claim 1, characterized in that: The inner position synchronization retaining frame (7) is connected to the outer position synchronization retaining frame (7) through a synchronization connecting shaft (9), and the outer position synchronization retaining frame (7) is synchronously connected to the outer ring of the mounting platform (3).

4. The condenser refrigerant liquid balancing tube according to claim 1, characterized in that: A guide plug (16) is installed in the central groove portion of the infusion plug (17), and two groups of diversion infusion ports (18) are distributed in a mirror-image manner along both sides of the guide plug (16). The two groups of diversion infusion ports (18) are respectively connected to the infusion ports (12) on the left and right sides for liquid supply.

5. The condenser refrigerant liquid balancing pipe according to claim 4, characterized in that: The guide plug (16) is guided and docked with the guide socket (4) at the center of the infusion terminal (10).

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