Condenser cooling assembly and smoothie machine

Abstract

The utility model relates to a condenser cooling assembly and a smoothie machine, and belongs to the field of beverage manufacturing machines. Comprising a base assembly; the upper shell assembly is arranged on the bottom shell assembly; the side plate assembly is connected with the bottom shell assembly and the upper shell assembly and arranged around the bottom shell assembly and the upper shell assembly, an installation space is defined by the side plate assembly, the upper shell assembly and the bottom shell assembly, and the side plate assembly is provided with a first air passing opening and a second air passing opening. The first air passing opening and the second air passing opening are located in the two adjacent sides of the side plate assembly. The condensation assembly is arranged on the bottom shell assembly and / or the upper shell assembly and located in the installation space; the compressor is arranged on the bottom shell assembly; and the fan assembly is arranged on the bottom shell assembly and / or the upper shell assembly, and the fan assembly is located between the condensation assembly and the compressor. The air circulation path formed in the scheme improves the contact area and time of air and the condensation assembly, and the heat dissipation efficiency is greatly improved.

Description

Technical Field

[0001] This utility model relates to the field of beverage manufacturing machines, and in particular to condenser cooling components and smoothie machines. Background Technology

[0002] When existing smoothie machines are working continuously, the refrigeration system generates a lot of heat that accumulates inside the equipment. If the heat cannot be dissipated in time, it will cause the equipment to malfunction and affect its service life. Therefore, smoothie machines need a good ventilation and heat dissipation structure in conjunction with cooling components so that the heat generated by the smoothie machine during operation can be dissipated with the airflow. Utility Model Content

[0003] Therefore, it is necessary to provide a condenser cooling component and a smoothie maker to address the problem of poor heat dissipation.

[0004] A condenser cooling assembly includes: a base assembly; an upper housing assembly disposed on the base assembly; a side plate assembly connected to and surrounding the base assembly and the upper housing assembly, the side plate assembly, the upper housing assembly, and the base assembly forming an installation space, the side plate assembly having a first air inlet and a second air inlet located on adjacent sides of the side plate assembly; a condenser assembly disposed on the base assembly and / or the upper housing assembly and located within the installation space; a compressor disposed on the base assembly; and a fan assembly disposed on the base assembly and / or the upper housing assembly, located between the condenser assembly and the compressor, the first air inlet, the condenser assembly, the fan assembly, and the second air inlet being sequentially connected. The condenser cooling assembly disclosed in this application has a first air inlet and a second air inlet located on adjacent sides of the side plate assembly, and is sequentially connected to the condenser assembly and the fan assembly. When the fan assembly starts, cool outside air enters the installation space through the first air vent, flows through the condenser assembly, absorbs the heat generated by the condenser assembly, and is then exhausted through the second air vent. This design creates a clear and efficient airflow path, significantly increasing the contact area and time between the air and the condenser assembly compared to unplanned airflow, greatly improving heat dissipation efficiency. For example, in hot summers, during long-term operation, efficient airflow ensures that the condenser assembly remains at a suitable operating temperature, guaranteeing stable operation of the refrigeration system. The fan assembly, located between the condenser assembly and the compressor, not only effectively cools the condenser assembly but also provides auxiliary cooling for the compressor. The compressor generates a large amount of heat during operation; if this heat is not dissipated in time, it will affect its performance and lifespan. The airflow driven by the fan assembly can specifically cool these two critical components that generate a lot of heat, maintaining the overall thermal balance of the equipment, ensuring efficient and stable operation of the condenser cooling assembly, and reducing equipment failures caused by overheating. The base assembly, upper housing assembly, and side plate assembly are interconnected to form the installation space, providing robust structural support for the internal condenser assembly, compressor, and fan assembly. This enclosed and stable structural design effectively reduces the impact of vibration, collisions, and other factors on internal components during equipment operation. For example, when the equipment is placed on an uneven workbench or during transportation, the stable structure prevents component displacement and damage, ensuring normal equipment operation and extending its service life. The installation space isolates internal components such as condenser units and compressors from the external environment, preventing dust, moisture, and other impurities from entering and reducing the risk of corrosion and damage to components.The condenser assembly can be mounted on the base assembly and / or the upper housing assembly, and the fan assembly can also be mounted on the base assembly and / or the upper housing assembly. This variety of mounting options provides equipment manufacturers with greater design flexibility.

[0005] In one embodiment, the condensing assembly divides the installation space into an air passage and an installation cavity. The first air outlet, the air passage, the condensing assembly, the fan assembly, the installation cavity, and the second air outlet are sequentially connected. The compressor is located within the installation cavity and is positioned opposite the fan assembly. The condensing assembly divides the installation space into an air passage and an installation cavity, with the first air outlet, air passage, condensing assembly, fan assembly, installation cavity, and second air outlet sequentially connected. Outside cold air enters through the first air outlet and is precisely guided to the air passage. Passing through the condensing assembly, it fully absorbs the heat emitted by the condensing assembly, achieving efficient cooling of the condensing assembly. Subsequently, the heated air continues to flow through the installation cavity under the action of the fan assembly, dissipating heat from the compressor located within, and finally exits through the second air outlet. This precise air guidance path allows cold air to target and cool heat-generating components, greatly improving heat dissipation efficiency. For example, in high-load refrigeration equipment, it ensures that the condensing assembly and compressor are always at a suitable operating temperature, guaranteeing stable operation of the refrigeration system. The inclusion of an air duct increases the contact area and time between air and the condenser components. As cold air flows through the narrow duct, its velocity remains relatively stable, and the increased heat exchange area with the condenser components enhances the heat exchange process. Compared to designs without an air duct, this design more effectively removes heat generated by the condenser components, improving their heat dissipation performance and ultimately boosting the overall energy efficiency of the refrigeration system. For example, during hot summer months when the equipment requires significant cooling, efficient heat exchange enables the condenser components to quickly condense the gaseous refrigerant into a liquid state, ensuring the smooth operation of the refrigeration cycle.

[0006] In one embodiment, the condensation assembly includes heat sinks and condenser tubes. Multiple heat sinks are arranged at intervals, their extension directions intersecting the base assembly and the upper housing assembly, respectively. Multiple condenser tubes pass through the heat sinks and are arranged at intervals along their extension directions, and are interconnected. This arrangement of multiple heat sinks at intervals, with their extension directions intersecting the base assembly and upper housing assembly, significantly increases the heat dissipation area. The heat sinks provide a larger surface area for contact with the cold air flowing through the air duct, enabling more efficient transfer of heat from the condenser tubes to the cold air. For example, compared to a single large-area heat dissipation structure, multiple spaced heat sinks allow cold air to pass through the gaps between the heat sinks, increasing the contact area between the air and the heat sinks, thereby significantly improving heat dissipation efficiency. When the refrigeration equipment operates under high load for extended periods, generating a large amount of heat, the large-area heat sinks ensure timely heat dissipation, maintaining the normal operating temperature of the equipment. The condenser tubes pass through the multiple heat sinks and are arranged at intervals along their extension directions, and are interconnected. Gaseous refrigerant flows through the condenser tubes, and heat is transferred through the tube walls to the heat exchange fins, which then transfer it to the cool air. Because the heat exchange fins and condenser tubes are tightly connected and spaced apart, the heat conduction path is short and efficient. Simultaneously, the flow of cool air between the fins creates convection, further accelerating heat dissipation. The spaced arrangement of multiple heat exchange fins and the sequentially connected condenser tubes facilitate disassembly and replacement by maintenance personnel. If a heat exchange fin or condenser tube malfunctions, maintenance personnel can relatively easily separate it from the condenser assembly for repair or replacement without significantly affecting other components. For example, during routine maintenance, if a minor leak is found in a condenser tube, maintenance personnel can quickly disassemble it for repair or replacement, reducing equipment downtime and lowering maintenance costs.

[0007] In one embodiment, the condenser tube extends horizontally along the portion of the plurality of heat sinks. This horizontal extension of the condenser tube helps prevent localized overheating or undercooling of the heat sinks. When the condenser tube is horizontally positioned, heat transfer is relatively stable as the refrigerant flows within it, preventing any particular area of ​​the heat sink from receiving too much or too little heat due to the condenser tube's orientation. Within the airflow channel, the horizontally extending condenser tube and the heat sinks together form a relatively regular airflow path. Cold air entering through the first air vent can flow more smoothly horizontally between the heat sinks, exchanging heat as it passes through the condenser tube. Compared to the turbulent airflow caused by a non-horizontal condenser tube, the horizontal structure reduces airflow resistance and results in a more uniform flow velocity. The horizontal extension also facilitates refrigerant flow.

[0008] In one embodiment, the base assembly includes a base plate assembly and multiple support members. These support members are disposed on the base plate assembly, and the upper housing assembly is disposed on the multiple support members. The condenser assembly and the fan assembly are disposed on one of the multiple support members, and the condenser assembly and the fan assembly are arranged adjacent to each other. By having multiple support members disposed on the base plate assembly and the upper housing assembly mounted on these support members, a stable frame structure is formed. The even distribution of the support members on the base plate assembly can evenly distribute the weight of the upper housing assembly and its internal components onto the base plate assembly, effectively preventing deformation or damage caused by excessive local stress. The condenser assembly and the fan assembly are disposed on one of the support members and arranged adjacent to each other, providing a stable mounting foundation for these two components. The adjacent arrangement makes the connection between them tighter, reducing the risk of relative displacement due to vibration during operation. For example, the vibration generated when the fan assembly is running can be effectively absorbed and dispersed by the support component, which is mounted together with the condenser assembly. This prevents the components of the condenser assembly from becoming loose or damaged due to vibration, ensuring the stable operation of the condenser assembly and the fan assembly, and thus ensuring the normal operation of the entire condenser cooling assembly.

[0009] In one embodiment, one of the plurality of supporting members is a first supporting member, which is adjacent to the first air vent. The condensing assembly and the fan assembly are disposed on the first supporting member. The first supporting member includes a supporting body, a first extension plate, and a second extension plate. The supporting body is connected to the base plate assembly and the upper housing assembly, respectively. The first extension plate and the second extension plate are disposed on the supporting body and located on the side of the supporting body facing the first air vent. The condensing assembly is sandwiched between the first extension plate and the second extension plate. The fan assembly is disposed on the supporting body, and the fan assembly and the condensing assembly are located on both sides of the supporting body. A through hole is provided on the supporting body, and the fan assembly, the through hole, and the condensing assembly are sequentially connected. Because the first supporting member is adjacent to the first air vent, and the condensing assembly is sandwiched between the first and second extension plates, and the fan assembly is disposed on the supporting body and located on both sides of the condensing assembly, connected by a through hole, cold air from the outside can quickly reach the condensing assembly after entering through the first air vent. Due to the surrounding of the condensing assembly by the first and second extension plates, the cold air is guided to contact the condensing assembly more concentratedly, accelerating heat exchange. For example, when equipment urgently needs heat dissipation in high-temperature environments, the first support component adjacent to the first air vent can quickly introduce a large amount of cool air, efficiently cooling the condenser assembly and ensuring stable operation of the refrigeration system. The sequentially connected design of the fan assembly, through-holes, and condenser assembly optimizes the airflow path within the equipment. When the fan assembly operates, it quickly extracts the hot air, after heat exchange with the condenser assembly, through the through-holes, creating a continuous and stable airflow. Compared to situations without through-holes or with an unreasonable component layout, this results in lower airflow resistance and faster flow rate. For instance, when equipment operates under high load for extended periods, generating significant heat, this efficient airflow can quickly remove the heat, ensuring that the temperature of each component remains within the normal range, improving cooling efficiency, and preventing performance degradation due to overheating.

[0010] In one embodiment, the side panel assembly includes a rear cover, a first side panel, a front cover, and a second side panel. The rear cover, first side panel, front cover, and second side panel are respectively connected to the base assembly and the upper housing assembly. The rear cover, first side panel, front cover, and second side panel surround the base assembly and the upper housing assembly, forming the mounting space. The rear cover, first side panel, front cover, second side panel, base assembly, and upper housing assembly together form a relatively enclosed shell structure, providing comprehensive physical protection for key internal components such as the condenser assembly, compressor, and fan assembly. The rear cover, first side panel, front cover, and second side panel, together with the base assembly and upper housing assembly, form the mounting space, providing a stable and orderly mounting environment for the internal components. This enclosed structure ensures that each component has a clearly defined mounting position and fixing method within the mounting space, avoiding problems such as insecure component installation or mutual interference caused by space instability. For example, components such as condenser assemblies and fan assemblies can be stably installed within the installation space, ensuring their normal operation during equipment use and improving the overall stability and reliability of the equipment. The structural design of the side panel assembly helps optimize the utilization of internal space. By rationally setting the dimensions and shapes of the rear cover, first side panel, front cover, and second side panel, a compact layout of components can be achieved within a limited space. For example, in small refrigeration equipment, a compact side panel assembly allows the equipment to integrate multiple functional components within a smaller volume, improving space utilization and meeting the need for minimal space occupation in different scenarios.

[0011] In one embodiment, the rear cover plate is provided with the first air vent, and both the first and second side plates are provided with second air vents. The first air vent on the rear cover plate provides a specific inlet for introducing outside cold air into the device. Cold air enters the installation space through the first air vent on the rear cover plate and can be blown directly onto heat-generating components such as the condenser assembly in a more concentrated manner, making the exhaust of hot air smoother and more even. After the cold air absorbs heat from components such as the condenser assembly and fan assembly, it can be simultaneously exhausted through the second air vents on both sides. This dual-sided exhaust design avoids the accumulation of hot air in the installation space and reduces the impact of hot air recirculation on the internal temperature of the device. For example, when the fan assembly is running, hot air is quickly exhausted from the second air vents on both sides, forming a continuous and stable air convection, improving heat dissipation efficiency, and ensuring that the device maintains a suitable operating temperature during long-term operation.

[0012] In one embodiment, the rear cover is connected to both the first and second side plates. This connection creates a more robust overall frame structure for the side plate assembly. This connection enhances the enclosure stability of the side plate assembly to the base assembly and upper housing assembly, better withstanding vibrations and external impacts generated during equipment operation. For example, during equipment operation, vibrations from components such as the compressor are transmitted to the side plate assembly through the base assembly. The tight connection between the rear cover and the first and second side plates effectively disperses these vibrations, preventing deformation or damage to the side plate assembly due to vibration, ensuring the overall structural stability of the equipment, and extending its service life.

[0013] The second aspect of this application discloses a smoothie maker, including: a condenser cooling assembly of any of the preceding claims.

[0014] The smoothie machine disclosed in this application generates a significant amount of heat during operation as its key components, such as the compressor, continuously work. The condenser cooling assembly, with its closely coordinated condenser and fan components, efficiently dissipates heat, effectively reducing the operating temperature of the compressor and other components. This efficient heat dissipation reduces the compressor's workload, thereby decreasing energy consumption and operating costs, while also aligning with the principles of energy conservation and environmental protection. Attached Figure Description

[0015] Figure 1 A 3D diagram of a smoothie machine;

[0016] Figure 2 The first exploded view of the condenser cooling assembly;

[0017] Figure 3 This is a second exploded view of the condenser cooling assembly;

[0018] Figure 4 This is a first side view of the condenser cooling assembly;

[0019] Figure 5 This is a second side view of the condenser cooling assembly;

[0020] Figure 6 This is the third exploded view of the condenser cooling assembly;

[0021] Figure 7 This is a three-dimensional view of the first support component;

[0022] Figure 8 This is a 3D view of the condenser assembly.

[0023] The correspondence between the reference numerals and the component names is as follows:

[0024] 1. Base assembly, 101. Installation space, 1011. Air passage, 1012. Installation cavity, 11. Base plate assembly, 12. Support component, 121. Support body, 122. First extension plate, 123. Second extension plate.

[0025] 2. Upper housing assembly;

[0026] 3 side panel assemblies, 301 first air vent, 302 second air vent, 31 rear cover, 32 first side panel, 33 front cover, 34 second side panel;

[0027] 4. Condensation assembly, 41. Heat sink, 42. Condensation tube;

[0028] 5. Compressors;

[0029] 6-fan assembly. Detailed Implementation

[0030] To better understand the above-mentioned objectives, features, and advantages of the present invention, the present invention will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the embodiments and features described in these embodiments can be combined with each other.

[0031] Many specific details are set forth in the following description in order to provide a full understanding of the invention. However, the invention may also be practiced in other ways different from those described herein, and therefore the scope of protection of the invention is not limited to the specific embodiments disclosed below.

[0032] The condenser cooling assembly and smoothie machine of some embodiments of the present invention are described below with reference to the accompanying drawings.

[0033] like Figures 1 to 4 As shown, this embodiment discloses a condenser cooling assembly, including: a base assembly 1; an upper housing assembly 2, the upper housing assembly 2 being disposed on the base assembly 1; a side plate assembly 3, the side plate assembly 3 being connected to the base assembly 1 and the upper housing assembly 2 respectively and disposed around the base assembly 1 and the upper housing assembly 2, the side plate assembly 3, the upper housing assembly 2 and the base assembly 1 enclosing an installation space 101, the side plate assembly 3 being provided with a first air passage 301 and a second air passage 302, the first air passage 301 and the second air passage 302 being located on adjacent sides of the side plate assembly 3; a condensing assembly 4, the condensing assembly 4 being disposed on the base assembly 1 and / or the upper housing assembly 2 and located within the installation space 101; a compressor 5, the compressor 5 being disposed on the base assembly 1; and a fan assembly 6, the fan assembly 6 being disposed on the base assembly 1 and / or the upper housing assembly 2, the fan assembly 6 being located between the condensing assembly 4 and the compressor 5, the first air passage 301, the condensing assembly 4, the fan assembly 6 and the second air passage 302 being sequentially connected.

[0034] The condenser cooling assembly disclosed in this application has a first air vent 301 and a second air vent 302 located on adjacent sides via a side plate assembly 3, and is sequentially connected to the condenser assembly 4 and the fan assembly 6. When the fan assembly 6 is activated, outside cold air enters the installation space 101 through the first air vent 301, flows through the condenser assembly 4, absorbs the heat generated by the condenser assembly 4 during operation, and is then discharged through the second air vent 302. This design forms a clear and efficient airflow path, which significantly increases the contact area and time between the air and the condenser assembly 4 compared to unplanned airflow, greatly improving heat dissipation efficiency. For example, in hot summers, when the equipment runs for a long time, efficient airflow ensures that the condenser assembly 4 is always at a suitable operating temperature, guaranteeing stable operation of the refrigeration system. The fan assembly 6 is located between the condenser assembly 4 and the compressor 5, which not only effectively cools the condenser assembly 4, but also provides auxiliary heat dissipation for the compressor 5. The compressor 5 generates a large amount of heat during operation; if it cannot be dissipated in time, it will affect its performance and lifespan. The airflow driven by the fan assembly 6 can specifically cool these two key components that generate a lot of heat, maintaining the overall thermal balance of the equipment and ensuring the efficient and stable operation of the condenser cooling assembly, reducing equipment failures caused by overheating. The base assembly 1, upper housing assembly 2, and side plate assembly 3 are interconnected to form the installation space 101, providing a stable structural support for the internal condenser assembly 4, compressor 5, and fan assembly 6. This enclosed and stable structural design effectively reduces the impact of vibration, collisions, and other factors on internal components during equipment operation. For example, when the equipment is placed on an uneven workbench or during transportation, the stable structure prevents component displacement and damage, ensuring normal equipment operation and extending equipment lifespan. The installation space 101 isolates the internal condenser assembly 4, compressor 5, and other components from the external environment, preventing the entry of dust, moisture, and other impurities, reducing the risk of corrosion and damage to the components. The condenser assembly 4 can be installed on the base assembly 1 and / or the upper housing assembly 2, and the fan assembly 6 can also be installed on the base assembly 1 and / or the upper housing assembly 2. This diverse installation method provides equipment manufacturers with greater design flexibility.

[0035] like Figure 3As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the condensing assembly 4 divides the installation space 101 into an air passage 1011 and an installation cavity 1012; the first air outlet 301, the air passage 1011, the condensing assembly 4, the fan assembly 6, the installation cavity 1012, and the second air outlet 302 are sequentially connected; the compressor 5 is located in the installation cavity 1012 and is positioned opposite to the fan assembly 6. The condensing assembly 4 divides the installation space 101 into an air passage 1011 and an installation cavity 1012, and the first air outlet 301, the air passage 1011, the condensing assembly 4, the fan assembly 6, the installation cavity 1012, and the second air outlet 302 are sequentially connected. After entering through the first air outlet 301, outside cold air is precisely guided to the air passage 1011, and when passing through the condensing assembly 4, it fully absorbs the heat emitted by the condensing assembly 4, achieving efficient cooling of the condensing assembly 4. Subsequently, the heated air, under the action of the fan assembly 6, continues to flow through the mounting cavity 1012, dissipating heat from the compressor 5 located within, and finally exits from the second air outlet 302. This precise air guidance path allows the cold air to target and cool the heat-generating components, greatly improving heat dissipation efficiency. For example, in refrigeration equipment operating under high load, it ensures that the condenser assembly 4 and compressor 5 are always at a suitable operating temperature, guaranteeing stable operation of the refrigeration system. The air passage 1011 increases the contact area and time between the air and the condenser assembly 4. When the cold air flows within the narrow air passage 1011, the flow rate is relatively stable and the heat exchange area with the condenser assembly 4 is increased, thereby enhancing the heat exchange process. Compared to a design without the air passage 1011, it can more effectively remove the heat generated by the condenser assembly 4, improving the heat dissipation performance of the condenser assembly 4, and thus improving the energy efficiency of the entire refrigeration system. For example, in the hot summer when the equipment requires a large amount of cooling, the efficient heat exchange enables the condenser assembly 4 to quickly condense the gaseous refrigerant into a liquid state, ensuring the smooth operation of the refrigeration cycle.

[0036] like Figure 8As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the condensation assembly 4 includes heat sinks 41 and condenser tubes 42. There are multiple heat sinks 41, which are arranged sequentially at intervals. The extending directions of the multiple heat sinks 41 intersect the base assembly 1 and the upper housing assembly 2, respectively. There are multiple condenser tubes 42, which pass through the multiple heat sinks 41 and are arranged sequentially at intervals along the extending directions of the heat sinks 41, and are sequentially connected. By arranging multiple heat sinks 41 sequentially at intervals, and with their extending directions intersecting the base assembly 1 and the upper housing assembly 2, this layout greatly increases the heat dissipation area. The heat sinks 41 provide a larger surface area for contact with the cold air flowing through the air passage 1011, enabling more efficient transfer of heat from the condenser tubes 42 to the cold air. For example, compared to a single large-area heat dissipation structure, multiple spaced heat sinks 41 allow cold air to pass through the gaps between the heat sinks 41, increasing the contact area between the air and the heat sinks 41, thereby significantly improving heat dissipation efficiency. When refrigeration equipment operates under high load for extended periods, generating significant heat, the large-area heat sink 41 ensures timely heat dissipation, maintaining the equipment's normal operating temperature. Condensing tubes 42 pass through multiple heat sinks 41 and are spaced apart along the extension direction of the heat sinks 41, with the multiple condensing tubes 42 connected sequentially. Gaseous refrigerant flows within the condensing tubes 42, and heat is transferred through the tube walls to the heat sinks 41, and then from the heat sinks 41 to the cold air. Because the heat sinks 41 and condensing tubes 42 are tightly integrated, and the condensing tubes 42 are spaced apart, the heat conduction path is short and efficient. Simultaneously, the flow of cold air between the heat sinks 41 creates convection, further accelerating heat dissipation. The spaced arrangement of multiple heat sinks 41 and the sequential connection of the condensing tubes 42 facilitate disassembly and replacement by maintenance personnel. If a heat sink 41 or condensing tube 42 malfunctions, maintenance personnel can relatively easily separate it from the condenser assembly 4 for repair or replacement without significantly affecting other components. For example, if a minor leak is found in a condenser tube 42 during routine maintenance, maintenance personnel can quickly disassemble the condenser tube 42 for repair or replacement, reducing equipment downtime and lowering maintenance costs.

[0037] like Figure 8As shown, in addition to the features of the above embodiments, this embodiment further specifies that the extension direction of the condenser tube 42 located in the portion of the plurality of heat sinks 41 is horizontal. The horizontally extending condenser tube 42 helps prevent localized overheating or undercooling of the heat sinks 41. When the condenser tube 42 is horizontally positioned, heat transfer is relatively stable during the refrigerant flow within the tube, preventing any area of ​​the heat sink 41 from receiving too much or too little heat due to the orientation of the condenser tube 42. Within the air passage 1011, the horizontally extending condenser tube 42 and the heat sinks 41 together form a relatively regular airflow path. After entering from the first air passage 301, cold air can flow more smoothly horizontally between the heat sinks 41, exchanging heat as it passes through the condenser tube 42. Compared to the turbulent airflow caused by a non-horizontally positioned condenser tube 42, the horizontal structure reduces airflow resistance and results in a more uniform flow velocity. The horizontal extension also facilitates the flow of refrigerant.

[0038] like Figure 5 As shown, in addition to the features of the above embodiments, this embodiment further defines: the base assembly 1 includes a base plate assembly 11 and support members 12. There are multiple support members 12, which are disposed on the base plate assembly 11. The upper housing assembly 2 is disposed on the multiple support members 12. The condenser assembly 4 and the fan assembly 6 are disposed on one of the multiple support members 12, and the condenser assembly 4 and the fan assembly 6 are arranged adjacent to each other. By having multiple support members 12 disposed on the base plate assembly 11 and the upper housing assembly 2 mounted on these support members 12, a stable frame structure is formed. The support members 12 are evenly distributed on the base plate assembly 11, which can evenly distribute the weight of the upper housing assembly 2 and its internal components onto the base plate assembly 11, effectively preventing deformation or damage caused by excessive local stress. The condenser assembly 4 and the fan assembly 6 are disposed on one of the support members 12 and are arranged adjacent to each other, which provides a stable mounting foundation for these two components. The adjacent arrangement makes the connection between them tighter, reducing the risk of relative displacement due to vibration during operation. For example, the vibration generated when the fan assembly 6 is running can be effectively absorbed and dispersed by the support 12, which is mounted together with the condenser assembly 4. This prevents the components of the condenser assembly 4 from becoming loose or damaged due to vibration, ensuring the stable operation of the condenser assembly 4 and the fan assembly 6, and thus ensuring the normal operation of the entire condenser cooling assembly.

[0039] like Figures 3 to 7As shown, in addition to the features of the above embodiments, this embodiment further specifies that: one of the plurality of support members 12 is a first support member, the first support member is adjacent to the first air vent 301, the condenser assembly 4 and the fan assembly 6 are disposed on the first support member, the first support member includes a support body 121, a first extension plate 122 and a second extension plate 123, the support body 121 is connected to the base plate assembly 11 and the upper housing assembly 2 respectively, the first extension plate 122 and the second extension plate 123 are disposed on the support body 121 and are located on the side of the support body 121 facing the first air vent 301, the condenser assembly 4 is sandwiched between the first extension plate 122 and the second extension plate 123, the fan assembly 6 is disposed on the support body 121, the fan assembly 6 and the condenser assembly 4 are located on both sides of the support body 121, the support body 121 has a through hole, and the fan assembly 6, the through hole and the condenser assembly 4 are sequentially connected. The first support member is adjacent to the first air vent 301, and the condenser assembly 4 is sandwiched between the first extension plate 122 and the second extension plate 123. The fan assembly 6 is mounted on the support body 121 and located on both sides of the condenser assembly 4, connected by a through hole. After entering through the first air vent 301, outside cold air can quickly reach the condenser assembly 4. Due to the surrounding of the condenser assembly 4 by the first and second extension plates 122 and 123, the cold air is guided to contact the condenser assembly 4 more concentratedly, accelerating heat exchange. For example, when the equipment urgently needs heat dissipation in a high-temperature environment, the first support member adjacent to the first air vent 301 can quickly introduce a large amount of cold air, efficiently cooling the condenser assembly 4 and ensuring stable operation of the refrigeration system. The sequential connection of the fan assembly 6, the through hole, and the condenser assembly 4 optimizes the airflow path inside the equipment. When the fan assembly 6 operates, it quickly extracts the hot air after heat exchange with the condenser assembly 4 through the through hole, forming a continuous and stable airflow. Compared to situations without through holes or with an unreasonable component layout, the airflow resistance is lower and the flow rate is faster. For example, when equipment generates a lot of heat during long-term high-load operation, this efficient air circulation can quickly remove the heat, ensuring that the temperature of each component of the equipment is within the normal range, improving the cooling effect, and preventing the equipment performance from deteriorating due to overheating.

[0040] like Figures 1 to 4As shown, in addition to the features of the above embodiments, this embodiment further defines: the side panel assembly 3 includes a rear cover plate 31, a first side plate 32, a front cover plate 33, and a second side plate 34. The rear cover plate 31, the first side plate 32, the front cover plate 33, and the second side plate 34 are respectively connected to the base assembly 1 and the upper housing assembly 2. The rear cover plate 31, the first side plate 32, the front cover plate 33, and the second side plate 34 are arranged around the base assembly 1 and the upper housing assembly 2, and the rear cover plate 31, the first side plate 32, the front cover plate 33, the second side plate 34, the base assembly 1, and the upper housing assembly 2 enclose an installation space 101. By having the rear cover plate 31, the first side plate 32, the front cover plate 33, and the second side plate 34 together surround the base assembly 1 and the upper housing assembly 2, a relatively closed outer shell structure is formed, providing all-round physical protection for key components such as the internal condenser assembly 4, the compressor 5, and the fan assembly 6. The rear cover plate 31, first side plate 32, front cover plate 33, and second side plate 34, together with the base assembly 1 and upper housing assembly 2, enclose an installation space 101, providing a stable and orderly installation environment for the internal components. This enclosed structure ensures that each component has a clear installation position and fixing method within the installation space 101, avoiding problems such as unstable component installation or mutual interference caused by space instability. For example, components such as the condenser assembly 4 and fan assembly 6 can be stably installed within the installation space 101, ensuring their normal operation during equipment operation and improving the overall stability and reliability of the equipment. The structural design of the side plate assembly 3 helps to optimize the utilization of internal space. By rationally setting the size and shape of the rear cover plate 31, first side plate 32, front cover plate 33, and second side plate 34, a compact layout of each component can be achieved within a limited space. For example, in small refrigeration equipment, the compact side plate assembly 3 allows the equipment to integrate multiple functional components in a smaller volume, improving space utilization and meeting the need for minimal equipment space occupation in different scenarios.

[0041] like Figure 3As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the rear cover plate 31 is provided with a first air vent 301, and the first side plate 32 and the second side plate 34 are both provided with second air vents 302. The first air vent 301 on the rear cover plate 31 provides a specific inlet for introducing outside cold air into the equipment. Cold air enters the installation space 101 from the first air vent 301 of the rear cover plate 31 and can be blown directly onto heat-generating components such as the condenser assembly 4 in a relatively concentrated manner, making the exhaust of hot air smoother and more even. After the cold air absorbs heat through components such as the condenser assembly 4 and the fan assembly 6, it can be simultaneously exhausted through the second air vents 302 on both sides. This dual-sided exhaust design avoids the accumulation of hot air in the installation space 101 and reduces the impact of hot air recirculation on the internal temperature of the equipment. For example, when the fan assembly 6 is running, hot air is quickly exhausted from the second air vents 302 on both sides, forming a continuous and stable air convection, improving heat dissipation efficiency, and ensuring that the equipment maintains a suitable operating temperature during long-term operation.

[0042] like Figures 1 to 3 As shown, in addition to the features of the above embodiments, this embodiment further specifies that the rear cover plate 31 is connected to both the first side plate 32 and the second side plate 34. By connecting the rear cover plate 31 to both the first side plate 32 and the second side plate 34, the side plate assembly 3 forms a more robust overall frame structure. This connection method enhances the enclosure stability of the side plate assembly 3 over the base assembly 1 and the upper housing assembly 2, and can better withstand vibrations and external impacts generated during equipment operation. For example, when the equipment is running, vibrations generated by components such as the compressor 5 are transmitted to the side plate assembly 3 through the base assembly 1. The tight connection between the rear cover plate 31 and the first side plate 32 and the second side plate 34 can effectively disperse these vibrations, preventing the side plate assembly 3 from deforming or being damaged due to vibration, ensuring the stability of the overall equipment structure, and extending the service life of the equipment.

[0043] like Figures 1 to 8 As shown, this embodiment discloses a smoothie machine, including: a condenser cooling assembly of any of the foregoing.

[0044] The smoothie machine disclosed in this application generates a large amount of heat during operation, with key components such as the compressor 5 continuously working. The condenser assembly 4 and fan assembly 6 in the condenser cooling system work closely together to efficiently dissipate heat, effectively reducing the operating temperature of components such as the compressor 5. This efficient heat dissipation by the condenser cooling system reduces the workload of the compressor 5, thereby reducing energy consumption and operating costs, while also aligning with the principles of energy conservation and environmental protection.

[0045] The technical features of the above embodiments can be combined in any way. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0046] The embodiments described above are merely illustrative of several implementations of this utility model, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the utility model patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this utility model, and these all fall within the protection scope of this utility model. Therefore, the protection scope of this utility model patent should be determined by the appended claims.

Claims

1. A condenser cooling assembly, characterized in that, The condenser cooling assembly includes: Base assembly (1); Upper housing assembly (2), the upper housing assembly (2) being disposed on the base assembly (1); Side panel assembly (3), the side panel assembly (3) is connected to the base assembly (1) and the upper shell assembly (2) respectively and is arranged around the base assembly (1) and the upper shell assembly (2). The side panel assembly (3), the upper shell assembly (2) and the base assembly (1) enclose an installation space (101). The side panel assembly (3) is provided with a first air vent (301) and a second air vent (302). The first air vent (301) and the second air vent (302) are located on adjacent sides of the side panel assembly (3). A condensation assembly (4) is disposed on the base assembly (1) and / or the upper housing assembly (2) and located within the mounting space (101); A compressor (5) is mounted on the base assembly (1); A fan assembly (6) is disposed on the base assembly (1) and / or the upper housing assembly (2). The fan assembly (6) is located between the condenser assembly (4) and the compressor (5). The first air vent (301), the condenser assembly (4), the fan assembly (6) and the second air vent (302) are connected in sequence.

2. The condenser cooling assembly according to claim 1, characterized in that, The condenser assembly (4) divides the installation space (101) into an air passage (1011) and an installation cavity (1012). The first air outlet (301), the air passage (1011), the condenser assembly (4), the fan assembly (6), the installation cavity (1012) and the second air outlet (302) are connected in sequence. The compressor (5) is located in the installation cavity (1012) and is arranged opposite to the fan assembly (6).

3. The condenser cooling assembly according to claim 1, characterized in that, The condensation assembly (4) includes heat sinks (41) and condenser tubes (42). There are multiple heat sinks (41), which are arranged at intervals in sequence. The extension directions of the multiple heat sinks (41) intersect with the base assembly (1) and the upper housing assembly (2), respectively. There are multiple condenser tubes (42), which pass through the multiple heat sinks (41) and are arranged at intervals in sequence along the extension direction of the heat sinks (41). The multiple condenser tubes (42) are connected in sequence.

4. The condenser cooling assembly according to claim 3, characterized in that, The condenser tube (42) extends horizontally in the portion of the plurality of heat sinks (41).

5. The condenser cooling assembly according to claim 1, characterized in that, The base assembly (1) includes a base plate assembly (11) and a support member (12). There are multiple support members (12), which are disposed on the base plate assembly (11). The upper housing assembly (2) is disposed on the multiple support members (12). The condenser assembly (4) and the fan assembly (6) are disposed on one of the multiple support members (12). The condenser assembly (4) and the fan assembly (6) are disposed adjacent to each other.

6. The condenser cooling assembly according to claim 5, characterized in that, One of the plurality of support members (12) is a first support member, which is adjacent to the first air vent (301). The condenser assembly (4) and the fan assembly (6) are disposed on the first support member. The first support member includes a support body (121), a first extension plate (122), and a second extension plate (123). The support body (121) is connected to the base plate assembly (11) and the upper housing assembly (2) respectively. The first extension plate (122) and the second extension plate (123) are disposed on the support body. The main body (121) is located on the side of the supporting main body (121) facing the first air outlet (301). The condensing component (4) is sandwiched between the first extension plate (122) and the second extension plate (123). The fan component (6) is disposed on the supporting main body (121). The fan component (6) and the condensing component (4) are located on both sides of the supporting main body (121). The supporting main body (121) has a through hole. The fan component (6), the through hole and the condensing component (4) are connected in sequence.

7. The condenser cooling assembly according to claim 1, characterized in that, The side panel assembly (3) includes a rear cover plate (31), a first side plate (32), a front cover plate (33), and a second side plate (34). The rear cover plate (31), the first side plate (32), the front cover plate (33), and the second side plate (34) are respectively connected to the base assembly (1) and the upper housing assembly (2). The rear cover plate (31), the first side plate (32), the front cover plate (33), and the second side plate (34) are arranged around the base assembly (1) and the upper housing assembly (2). The rear cover plate (31), the first side plate (32), the front cover plate (33), the second side plate (34), the base assembly (1), and the upper housing assembly (2) enclose the installation space (101).

8. The condenser cooling assembly according to claim 7, characterized in that, The rear cover plate (31) is provided with the first air vent (301), and the first side plate (32) and the second side plate (34) are both provided with the second air vent (302).

9. The condenser cooling assembly according to claim 7, characterized in that, The rear cover plate (31) is connected to both the first side plate (32) and the second side plate (34).

10. A smoothie maker, characterized in that, The smoothie machine includes: The condenser cooling assembly according to any one of claims 1 to 9.

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