An embedded fluorine pump and compressor

Abstract

This utility model discloses an embedded refrigerant pump and compressor. The embedded refrigerant pump includes a first heat exchanger, a refrigerant pump, a second heat exchanger, and a connecting structure. The refrigerant pump is embedded between the first and second heat exchangers, which are connected by the connecting structure. By implementing the embedded refrigerant pump of this utility model, advantages such as noiseless operation, precise control, fast response, and low power consumption can be achieved, adapting to the future development of air conditioning.

Description

Technical Field

[0001] This utility model relates to the field of fluorine pump technology, and in particular to an embedded fluorine pump and compressor. Background Technology

[0002] In recent years, air conditioning technology has undergone significant innovation; however, the compressor's core position in the air conditioning system remains unchanged. As a major energy-consuming component, the compressor consumes a significant amount of electricity during operation. However, in low ambient temperatures, even without starting the compressor, refrigerant can circulate through fan condensation alone. In this case, only a refrigerant pump is needed to ensure proper refrigerant circulation and achieve the desired cooling effect. Currently, most refrigerant pumps on the market are designed as independent units, requiring external connection to the entire refrigeration system. They still occupy considerable space in the overall structure and also contribute to noise and vibration during operation.

[0003] Specifically, traditional compressor-based refrigeration systems have several significant drawbacks: First, since the compressor itself is the main energy-consuming component, the overall system energy consumption is high. Second, these systems are typically bulky, occupying a large amount of installation space. Furthermore, while traditional refrigerant pumps can address these issues to some extent, their inherent design still results in drawbacks such as large space requirements, inconvenient piping layout, and slow response times. Moreover, the complex structure of traditional compressor-based refrigeration systems not only increases the difficulty of installation and maintenance but also negatively impacts the user experience due to the noise and vibration generated by the compressor. In conclusion, whether considering energy saving, size reduction, or improved user experience, existing air conditioning systems have room for improvement.

[0004] Therefore, it is necessary to design a new refrigerant pump that has advantages such as noiseless operation, precise control, fast response, and low power consumption, so as to adapt to the future development of air conditioning. Utility Model Content

[0005] The purpose of this invention is to overcome the shortcomings of the prior art and provide an embedded fluorine pump and compressor.

[0006] To solve the above-mentioned technical problems, the purpose of this utility model is achieved through the following technical solution: providing an embedded fluorine pump, including: a first heat exchanger, a fluorine pump, a second heat exchanger, and a connecting structure, wherein the fluorine pump is embedded between the first heat exchanger and the second heat exchanger, and the first heat exchanger and the second heat exchanger are connected by the connecting structure.

[0007] The further technical solution is as follows: the fluorine pump includes a pumping unit, one end of which is connected to a positive terminal, and the other end of which is grounded.

[0008] The further technical solution is as follows: the fluorine pump includes a high-voltage bus and a grounding bus, one end of the pumping unit is connected to the high-voltage bus, and the other end of the pumping unit is connected to the grounding bus.

[0009] The further technical solution is as follows: the pumping unit includes a thick insulating layer, a thick electrode, a thin insulating layer, and a thin electrode arranged in sequence, the thick electrode being connected to the high-voltage busbar; and the thin electrode being connected to the grounding busbar.

[0010] The further technical solution is as follows: the thick electrode is provided with a high voltage mother electrode connection hole; the high voltage mother electrode is connected to the thick electrode through the high voltage mother electrode connection hole.

[0011] The further technical solution is as follows: the thick electrode is also provided with an electrode through hole, and the grounding mother electrode passes through the electrode through hole.

[0012] A further technical solution is that the diameter of the electrode via is 3 to 5 times the diameter of the grounding bus.

[0013] A further technical solution is that: the thick insulating layer and the thin insulating layer are respectively provided with vias.

[0014] A further technical solution is that the thickness of the thick insulating layer is 3 to 5 times the thickness of the thin insulating layer.

[0015] In addition, to overcome the shortcomings of the prior art, this utility model also provides a compressor, including the aforementioned embedded fluorine pump.

[0016] The advantages of this invention compared to existing technologies are as follows: By cleverly embedding the refrigerant pump between the first and second heat exchangers and utilizing a specific connection structure to achieve tight integration of the three, this invention not only significantly reduces the system's size and noise but also minimizes energy loss due to its optimized layout, achieving high-efficiency operation. This design allows for more precise control of refrigerant flow, thereby improving the accuracy and response speed of temperature regulation. Simultaneously, the system optimization reduces unnecessary power consumption, resulting in a significant reduction in overall power consumption. Furthermore, this compact and efficient design meets the future requirements of air conditioning for environmental protection, energy conservation, and intelligence, providing strong support for the development of smart homes and green buildings.

[0017] The present invention will be further described below with reference to the accompanying drawings and specific embodiments. Attached Figure Description

[0018] To more clearly illustrate the technical solutions of the embodiments of this utility model, the drawings used in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0019] Figure 1 A three-dimensional structural schematic diagram of an embedded fluorine pump provided for an embodiment of this utility model;

[0020] Figure 2 An exploded view of an embedded fluorine pump provided in an embodiment of this utility model;

[0021] Figure 3 A three-dimensional structural schematic diagram of the fluorine pump provided in an embodiment of this utility model;

[0022] Figure 4 This is a schematic diagram of the exploded structure of a fluorine pump provided in an embodiment of the present invention;

[0023] Figure 5 A schematic diagram of the unfolded structure of the fluorine pump provided in an embodiment of this utility model;

[0024] Explanation of the markings in the image:

[0025] 1. First heat exchanger; 2. Fluorine pump; 3. Insulation layer; 4. Second heat exchanger; 5. Connector; 21. Thick insulation layer; 22. Thick electrode; 23. Thin insulation layer; 24. Thin electrode; 25. High voltage busbar; 26. Grounding busbar; 211. Through hole; 212. High voltage busbar connection hole; 213. Electrode through hole; 214. Grounding busbar connection hole; 215. Flow channel hole. Detailed Implementation

[0026] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of the present utility model.

[0027] It should be understood that, when used in this specification and the appended claims, the terms "comprising" and "including" indicate the presence of the described features, integrals, steps, operations, elements and / or components, but do not exclude the presence or addition of one or more other features, integrals, steps, operations, elements, components and / or collections thereof.

[0028] It should also be understood that the terminology used in this specification is for the purpose of describing particular embodiments only and is not intended to limit the scope of the invention. As used in this specification and the appended claims, the singular forms “a,” “an,” and “the” are intended to include the plural forms unless the context clearly indicates otherwise.

[0029] It should also be further understood that the term "and / or" as used in this specification and the appended claims refers to any combination of one or more of the associated listed items and all possible combinations, and includes such combinations.

[0030] In recent years, despite continuous innovation in air conditioning technology, the compressor's role as the core of energy consumption remains unchanged. However, in low-temperature environments, refrigerant circulation and cooling effects can be achieved solely through fan condensation and a refrigerant pump. This indicates that existing compressor-dependent systems suffer from high energy consumption, large size, noise, and vibration. Traditional systems are not only complex to install and maintain, but even with the adoption of traditional refrigerant pumps to partially address energy consumption issues, they still face challenges such as large space requirements, inconvenient piping layout, and slow response times. Therefore, considering energy saving, size reduction, and improved user experience, current air conditioning systems still have significant room for improvement.

[0031] Therefore, this utility model provides an embedded fluorine pump 2 for railways, which has advantages such as no noise, precise control, fast response and low power consumption during operation, and is adapted to the future development of air conditioning.

[0032] Specifically, the embedded fluorine pump 2 achieves noiseless, precise control, rapid response and low energy consumption operation by optimizing the pumping unit structure, including the sequential arrangement of thick insulation layer 21, thick electrode 22, thin insulation layer 23 and thin electrode 24, and by utilizing a specific ratio of insulation layer 3 thickness and through hole 211 diameter design. This meets the future air conditioning system's needs for energy saving, reduced space occupation and improved user experience.

[0033] To better understand the above technical solutions, the following will provide a detailed explanation of the technical solutions in conjunction with the accompanying drawings and specific implementation methods.

[0034] Please see Figures 1 to 2 An embedded fluorine pump 2 includes: a first heat exchanger 1, a fluorine pump 2, a second heat exchanger 4, and a connecting structure. The fluorine pump 2 is embedded between the first heat exchanger 1 and the second heat exchanger 4, and the first heat exchanger 1 and the second heat exchanger 4 are connected by the connecting structure.

[0035] Specifically, the refrigerant pump 2 is cleverly embedded between the first heat exchanger 1 and the second heat exchanger 4. This design not only saves space but also simplifies the overall piping layout of the system. The first heat exchanger 1 and the second heat exchanger 4 are securely connected together through one or more connection structures to form an integrated unit.

[0036] In this design, the refrigerant pump 2 is the core component. Its internal structure is optimized according to the EHD (Electrohydrodynamic) principle, mainly consisting of layers arranged in sequence such as a thick insulating layer 21, a thick electrode 22, a thin insulating layer 23, and a thin electrode 24. These layers together constitute one or more "pumping units," and different numbers of pumping units can be integrated to adjust the pumping intensity according to actual needs. The thickness ratio of the thick insulating layer 21 to the thin insulating layer 23 is 3 to 5 times to ensure electrical performance while maximizing pumping efficiency. The thick electrode 22 and the thin electrode 24 are equipped with specific through holes 211 and female electrode connection holes, ensuring the safety and stability of the electrical connection while allowing refrigerant to flow through, achieving a noiseless, precisely controlled, and rapidly responsive pumping process.

[0037] Furthermore, the high-voltage bus 25 and the grounding bus 26 on the refrigerant pump 2 are connected to the thick electrode 22 and the thin electrode 24, respectively. When an appropriate voltage is applied, based on the EHD principle, the refrigerant will be electrolyzed and flow in a directional manner due to the Coulomb force, thereby achieving efficient refrigerant circulation. This design makes the entire system have the advantages of low power consumption, no noise, and no vibration during operation, making it very suitable for future air conditioning systems with higher requirements for energy saving, consumption reduction, and space reduction. In this way, the structure of this embodiment not only achieves technological innovation but also brings a new direction for the air conditioning industry.

[0038] In addition, the outer layer of the aforementioned fluorine pump 2 is also wrapped with an insulating layer 3. The pipes on the first heat exchanger 1 and the second heat exchanger 4 correspond one-to-one with the through holes 211 of the fluorine pump 2 to form a refrigerant passage. The fluorine pump 2 is cleverly embedded in the first heat exchanger 1 and the second heat exchanger 4.

[0039] The outer layer of the fluorine pump 2 is wrapped with an insulating material, which not only helps prevent external electromagnetic interference (EMI) but also improves the safety of the equipment, avoiding the risk of electric shock due to accidental contact. This design is particularly suitable for environments requiring high reliability and safety.

[0040] Furthermore, the piping on the first heat exchanger 1 and the second heat exchanger 4 corresponds one-to-one with the through-holes 211 on the refrigerant pump 2, forming a highly efficient refrigerant pathway. This design allows the refrigerant to circulate smoothly within the system, from the first heat exchanger 1 to the refrigerant pump 2 and then to the second heat exchanger 4, thereby achieving effective heat transfer. Specifically:

[0041] By optimizing the refrigerant flow path, it is ensured that the refrigerant can fully absorb or release heat when flowing through the first heat exchanger 1. Then, after precise control by the refrigerant pump 2, it enters the second heat exchanger 4 to complete the remaining heat exchange process. This can significantly improve the overall efficiency of the system.

[0042] The fluorine pump 2 is cleverly embedded within the first heat exchanger 1 and the second heat exchanger 4, reducing unnecessary space occupation in traditional designs and achieving a more compact design. This not only saves installation space but also facilitates maintenance and repair.

[0043] Thanks to the precise control capabilities of the refrigerant pump 2, the system can dynamically adjust the refrigerant flow rate according to actual operating conditions, ensuring optimal heat exchange efficiency. This is particularly important for coping with load changes in different seasons and time periods, effectively improving the user experience.

[0044] By integrating the fluorine pump 2 directly into the heat exchanger, the number of connection points is reduced, the risk of leakage is lowered, and the overall system durability is enhanced. Furthermore, the application of insulation layer 3 improves the equipment's adaptability to harsh environments.

[0045] Combined with a modern intelligent control system, the solution in this embodiment can also realize real-time monitoring and automatic adjustment of key parameters such as refrigerant flow and temperature, further improving the intelligence level of the system and providing users with a more comfortable and energy-saving user experience.

[0046] In conclusion, this innovative design not only optimizes the performance of traditional refrigeration systems, but also brings significant improvements in terms of structural compactness, safety, and durability, demonstrating cutting-edge exploration and application in the field of refrigeration technology.

[0047] In one embodiment, please refer to Figures 3 to 4 The aforementioned fluorine pump 2 includes a pumping unit, one end of which is connected to a positive terminal, and the other end is grounded. This means that the pumping unit, through direct connection to the positive terminal of the power supply and connection to the ground wire, forms an electric field. This electric field can be used to manipulate charged particles or polar molecules within the fluid, causing them to move in a specific direction, thereby achieving fluid transport. The advantage of this design is that it provides a relatively simple electrical connection method while ensuring operational safety and stability.

[0048] In one embodiment, please refer to Figures 3 to 4The aforementioned fluorine pump 2 includes a high-voltage bus 25 and a grounding bus 26. One end of the pumping unit is connected to the high-voltage bus 25, and the other end is connected to the grounding bus 26. Specifically, the high-voltage bus 25 is responsible for providing the necessary high voltage to the pumping unit, while the grounding bus 26 ensures the integrity and safety of the circuit. This configuration allows for more precise control of the voltage applied to the pumping unit, thereby optimizing the operating efficiency and performance of the fluorine pump 2.

[0049] In one embodiment, please refer to Figures 3 to 5 The pumping unit described above includes a thick insulating layer 21, a thick electrode 22, a thin insulating layer 23, and a thin electrode 24 arranged in sequence. The thick electrode 22 is connected to the high-voltage bus 25, and the thin electrode 24 is connected to the grounding bus 26.

[0050] The thick insulation layer 21 is located on the outermost layer and is mainly used to isolate the external environment from the internal circuitry, preventing current leakage or external interference from affecting the pump's operating performance. Thick insulation material is chosen to enhance electrical isolation and improve safety.

[0051] The thick electrode 22 is disposed adjacent to the inner side of the thick insulating layer 21 and is directly connected to the high-voltage bus 25. The design of the thick electrode 22 takes into account the high voltage requirements, while providing sufficient surface area to reduce resistance and ensure that the current can be evenly distributed across the entire electrode surface.

[0052] A thin insulating layer 23 is positioned between the thick electrode 22 and the thin electrode 24 to further isolate the direct contact between the two electrodes and prevent short circuits. Although it is called "thin," its material properties must ensure good insulation performance while minimizing its thickness to reduce the overall size of the device.

[0053] The thin electrode 24 is located in the innermost layer and is directly connected to the ground bus 26. The main function of the thin electrode 24 is to serve as part of the current loop, helping to establish a complete circuit path from the thick electrode 22 to ground. Due to its proximity to the pumped medium, it is typically designed to be delicate to minimize its impact on fluid flow.

[0054] This multi-layered design allows for the generation of a strong electric field by applying a high voltage to the thick electrode 22, which in turn affects the medium (such as fluorinated compounds) within the pump. Specifically, when high voltage is applied to the thick electrode 22, due to the isolation provided by the thin insulating layer 23, the electric field is mainly concentrated near the thin electrode 24, causing charged particles or polar molecules to move along the direction of the electric field, thus achieving directional transport of the fluid.

[0055] By precisely controlling the material and thickness of each layer, pump efficiency can be effectively improved and energy loss reduced. The presence of the thick insulation layer 21 greatly enhances system safety and reduces the risk of leakage. Despite containing multiple functional layers, the reasonable selection of materials and thicknesses allows the entire pumping unit to maintain a relatively compact shape, facilitating integration into various application scenarios.

[0056] In one embodiment, please refer to Figure 5 The aforementioned thick electrode 22 is provided with a high-voltage mother electrode connection hole 212; the high-voltage mother electrode 25 is connected to the thick electrode 22 through the high-voltage mother electrode connection hole 212.

[0057] In the design of the thick electrode 22, a high-voltage busbar connection hole 212 is specially provided for connecting the high-voltage busbar 25. The position and size of these holes are precisely calculated to ensure that the high-voltage busbar 25 can be stably and safely connected to the thick electrode 22, thereby ensuring that the current can be evenly distributed across the entire surface of the thick electrode 22 and avoiding problems such as local overheating or increased resistance.

[0058] In one embodiment, please refer to Figure 5 The aforementioned thick electrode 22 is also provided with an electrode through hole 213, through which the grounding mother electrode 26 passes.

[0059] This design allows the grounding bus 26 to safely pass through the thick electrode 22 without direct contact, thus achieving electrical isolation. This not only helps maintain system safety but also ensures that current flows only along a predetermined path: from the high-voltage bus 25 to the thick electrode 22, then to the thin electrode 24, and finally back to the power source via the grounding bus 26, forming a complete circuit loop.

[0060] In one embodiment, please refer to Figure 5 The diameter of the aforementioned electrode via 213 is 3 to 5 times the diameter of the grounding bus 26.

[0061] This ratio is set to ensure that the grounding female electrode 26 can pass smoothly through the electrode via 213, while leaving sufficient space to prevent accidental contact or friction due to manufacturing tolerances or installation errors. In addition, an appropriate gap can also reduce the effects of material expansion or contraction caused by temperature changes.

[0062] In one embodiment, please refer to Figure 5 The aforementioned thick insulating layer 21 and thin insulating layer 23 are respectively provided with through holes 211 and flow channel holes 215.

[0063] The function of these flow channels 215 is to allow the refrigerant (as a dielectric) to flow through the fluorine pump 2, ensuring that it can move in a directional manner under the influence of an electric field. By precisely controlling the position and size of the through holes 211, the refrigerant flow can be made smoother, improving pumping efficiency.

[0064] In one embodiment, please refer to Figure 5 The thickness of the aforementioned thick insulation layer 3 is 3 to 5 times that of the thin insulation layer 23. This difference in thickness is designed to accommodate different functional requirements. The thick insulation layer 21 is primarily used to provide strong electrical isolation protection, preventing high-voltage components from interfering with or endangering other components. The thin insulation layer 23, on the other hand, focuses more on optimizing the electric field distribution and reducing the overall size of the equipment; therefore, its thickness is relatively smaller but still needs to ensure sufficient insulation performance.

[0065] In one embodiment, please refer to Figure 5 The thin electrode 24 is provided with a grounding mother electrode connection hole 214, and the grounding mother electrode 26 is connected to the thin electrode 24 through the grounding mother electrode connection hole 214.

[0066] In one embodiment, please refer to Figure 1 and Figure 2 The aforementioned connection structure is the connector 5, and the aforementioned first heat exchanger 1 includes, but is not limited to, an evaporator; the second heat exchanger 4 includes, but is not limited to, a condenser.

[0067] Specifically, connector 5, as one of the core components, acts as a bridge in this embodiment, organically connecting the first heat exchanger 1 (e.g., evaporator), the second heat exchanger 4 (e.g., condenser), and the embedded refrigerant pump 2. The design of connector 5 takes into account the characteristics of different heat exchangers and their functional requirements in the air conditioning system, ensuring smooth and efficient refrigerant flow. Furthermore, connector 5 offers flexibility, allowing its shape and size to be adjusted according to actual application scenarios to adapt to different installation environments and technical requirements.

[0068] While the first heat exchanger 1 is not limited to a specific type, an evaporator was chosen as an example in this embodiment. The main function of the evaporator is to absorb heat in the refrigeration cycle, causing the refrigerant flowing through it to change from a liquid to a gaseous state. To improve efficiency, evaporators typically employ a finned tube structure, increasing the surface area in contact with air and thus enhancing heat exchange efficiency. Furthermore, since the evaporator directly participates in the refrigerant's state transition process, its design and material selection are crucial to the overall system performance.

[0069] Similarly, the second heat exchanger 4 is not limited to a specific form, but in this embodiment, a condenser is used. The function of the condenser is to cool the high-temperature, high-pressure gaseous refrigerant and convert it into a liquid state, releasing heat to the external environment. The design of the condenser also focuses on heat exchange efficiency, and common types include shell-and-tube, plate, or coaxial types. Depending on the specific application scenario, one or more of the most suitable combinations can be selected to achieve the best heat exchange effect.

[0070] The first heat exchanger 1 (evaporator) and the second heat exchanger 4 (condenser) are precisely positioned and connected to the embedded refrigerant pump 2 via the connector 5. The piping on each heat exchanger corresponds one-to-one with the through-holes 211 of the refrigerant pump 2, forming a complete refrigerant circulation path. Although evaporators and condensers are mentioned here, the design allows the first heat exchanger 1 and the second heat exchanger 4 to contain other types of heat exchange equipment, as long as they meet the corresponding heat exchange requirements and are compatible with the connector 5 and other system components. This flexible connection structure facilitates system maintenance and upgrades, and also allows for adjustments to the system configuration according to different operating conditions to achieve optimal performance.

[0071] By combining different types of heat exchangers with an embedded refrigerant pump 2 through an innovative connection structure, a highly efficient, compact, and easy-to-maintain air conditioning system is formed. This design not only improves energy efficiency but also provides ample room for future improvements and development.

[0072] In one embodiment, the core component of the fluorine pump 2 includes a thick insulating layer 21, a thick electrode 22, a thin insulating layer 23, a thin electrode 24, a high-voltage busbar 25, and a grounding busbar 26. These components are arranged in the following order:

[0073] Thick insulation layer 21: Provides primary electrical isolation protection.

[0074] Thick electrode 22: Used to carry high voltage current.

[0075] Thin insulating layer 23: further enhances the insulation effect and optimizes the electric field distribution.

[0076] Thin electrode 24: As the other pole of the current, it is usually connected to ground.

[0077] Each such assembly is called a pumping unit. Different numbers of pumping units can be integrated to adjust the pumping capacity, depending on actual needs. For example, Figure 3 The arrangement of the two pumping units is shown, demonstrating the flexibility and scalability of the design.

[0078] At a more detailed level, it can be seen that the thick insulating layer 21 and the thin insulating layer 23 have similar structural features, but differ in thickness. The thickness of the thick insulating layer 21 is 3 to 5 times that of the thin insulating layer 23. This design ensures necessary electrical isolation while minimizing the overall size. In addition, both insulating layers 3 are provided with vias 211 and female electrode connection holes, wherein the diameter of the female electrode connection hole is slightly smaller than the corresponding female electrode diameter, ensuring a tight fit while also enhancing mechanical strength.

[0079] The thick electrode 22 has a high-voltage busbar 25 connection hole, a through hole 211, and an electrode through hole 213. In particular, the diameter of the electrode through hole 213 is 3 to 5 times the diameter of the grounding busbar 26. This design is to allow the grounding busbar 26 to pass through smoothly without directly contacting the thick electrode 22, thereby achieving effective electrical isolation.

[0080] The design principles of the thin electrode 24 are similar to those of the thick electrode 22, aiming to ensure thin grounding while maintaining the stability and safety of the entire system.

[0081] The structure in this embodiment operates based on EHD technology. When the voltage applied to the main electrode of the refrigerant pump 2 reaches a certain value (the specific value depends on the properties of the refrigerant used), the refrigerant, acting as a dielectric, is electrolyzed and flows in a directional manner due to Coulomb force. This means:

[0082] Pumping capacity is directly proportional to the magnitude of the electric field strength and the number of pumping units.

[0083] By adjusting the direction of the electric field, the flow direction of the refrigerant can be controlled, achieving precise control.

[0084] This design not only improves energy efficiency, but also solves the noise and vibration problems of traditional pumps, making the whole system quieter and more stable.

[0085] In summary, the structure of this embodiment, through innovative design concepts and technological applications, achieves high efficiency, low energy consumption, and precise control of the refrigerant pump 2 in the air conditioning system, demonstrating a new trend in the future development of air conditioning.

[0086] The aforementioned embedded refrigerant pump 2 cleverly integrates itself between the first heat exchanger 1 and the second heat exchanger 4, achieving tight integration of the three components through a specific connection structure. This not only significantly reduces the system's size and noise but also minimizes energy loss due to the optimized layout, resulting in high-efficiency operation. This design allows for more precise control of refrigerant flow, thereby improving the accuracy and response speed of temperature regulation. Simultaneously, the system optimization reduces unnecessary power consumption, leading to a significant reduction in overall power consumption. Furthermore, this compact and efficient design meets the future requirements of air conditioning for environmental protection, energy conservation, and intelligence, providing strong support for the development of smart homes and green buildings, reflecting a profound understanding and forward-looking approach to future air conditioning technology development trends.

[0087] In one embodiment, a compressor is also provided, including the aforementioned embedded fluorine pump 2.

[0088] This compressor not only inherits the advantages of the embedded fluorine pump 2, such as noiselessness, precise control, fast response and low power consumption, but also further optimizes the performance of the entire refrigeration system.

[0089] First, by integrating the embedded fluorine pump 2 into the compressor, a more compact structural design is achieved, reducing the length and complexity of connecting pipes between system components, thereby lowering potential energy losses and leakage risks. This not only improves overall energy efficiency but also enhances system stability and reliability.

[0090] Secondly, because the embedded refrigerant pump 2 can more precisely control refrigerant flow, the compressor can flexibly adjust its operating state according to actual needs, achieving higher temperature control accuracy and faster response speed. This is crucial for meeting the demands of modern air conditioning systems for fine-tuning indoor ambient temperature, and can significantly improve the user experience.

[0091] In addition, the compressor adopts advanced motor control technology and, combined with the low energy consumption characteristics of the embedded fluorine pump 2, greatly reduces the power consumption during operation, which helps to save energy and reduce emissions, and is in line with the current global pursuit of green technology and sustainable development.

[0092] It should be noted that those skilled in the art can clearly understand that the specific implementation process of the above compressor can be referred to the corresponding description in the aforementioned embedded fluorine pump 2 embodiment. For the sake of convenience and brevity, it will not be repeated here.

[0093] The above description is merely a specific embodiment of this utility model, but the protection scope of this utility model is not limited thereto. Any person skilled in the art can easily conceive of various equivalent modifications or substitutions within the technical scope disclosed in this utility model, and these modifications or substitutions should all be covered within the protection scope of this utility model. Therefore, the protection scope of this utility model should be determined by the scope of the claims.

Claims

1. An embedded fluorine pump, characterized in that, include: A first heat exchanger, a refrigerant pump, a second heat exchanger, and a connecting structure are provided. The refrigerant pump is embedded between the first heat exchanger and the second heat exchanger, and the first heat exchanger and the second heat exchanger are connected by the connecting structure.

2. An embedded fluorine pump according to claim 1, characterized in that, The fluorine pump includes a pumping unit, one end of which is connected to a positive terminal, and the other end of which is grounded.

3. An embedded fluorine pump according to claim 2, characterized in that, The fluorine pump includes a high-voltage bus and a grounding bus. One end of the pumping unit is connected to the high-voltage bus, and the other end of the pumping unit is connected to the grounding bus.

4. An embedded fluorine pump according to claim 3, characterized in that, The pumping unit includes a thick insulating layer, a thick electrode, a thin insulating layer, and a thin electrode arranged in sequence. The thick electrode is connected to the high-voltage busbar, and the thin electrode is connected to the grounding busbar.

5. An embedded fluorine pump according to claim 4, characterized in that, The thick electrode is provided with a high-voltage mother electrode connection hole; the high-voltage mother electrode is connected to the thick electrode through the high-voltage mother electrode connection hole.

6. An embedded fluorine pump according to claim 4, characterized in that, The thick electrode is also provided with an electrode through hole, through which the grounding mother electrode passes.

7. An embedded fluorine pump according to claim 6, characterized in that, The diameter of the electrode via is 3 to 5 times the diameter of the grounding bus.

8. An embedded fluorine pump according to claim 4, characterized in that, The thick insulating layer and the thin insulating layer are respectively provided with through holes.

9. An embedded fluorine pump according to claim 4, characterized in that, The thickness of the thick insulating layer is 3 to 5 times the thickness of the thin insulating layer.

10. A compressor, characterized in that, Including an embedded fluorine pump as described in any one of claims 1 to 9.

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