Refrigerator

Abstract

The application relates to the technical field of refrigeration equipment, in particular to a refrigerator. The refrigerator of the application is characterized in that a condensing assembly is arranged between a first groove part and a second groove part, so that the condensing assembly is arranged between the first groove part and the second groove part, the internal space of the compressor chamber is compact and three-dimensional, while the evaporating dish has sufficient volume to accommodate defrosting water and condensed water, the overall height of the compressor chamber is significantly reduced, and the effective volume of the upper storage chamber is increased. The second groove part and the rear cover plate are arranged with a gap, air ducts are provided for the condensing assembly to blow air towards the side of the compressor; and the air flow is effectively guided to the side of the compressor through the air guide slope, the blocking of the second groove part to the air flow from the side of the condensing assembly and the air volume loss are reduced, the condensing assembly and the compressor have sufficient air volume for heat dissipation, and the heat dissipation effect in the compressor chamber is ensured.

Description

Technical Field

[0001] This application relates to the field of refrigeration equipment technology, and more particularly to a refrigerator. Background Technology

[0002] A refrigerator is a refrigeration device that maintains a constant low temperature, keeping food or other items at a constant temperature. With the upgrading of energy conservation, environmental protection, and product performance, the demand for refrigerators' volume ratio and space utilization is increasing.

[0003] In related technologies, the effective volume of a refrigerator is increased by reducing the height of the compressor compartment. However, reducing the height of the compressor compartment results in poor heat dissipation from the bottom cooling system. Utility Model Content

[0004] This application provides a refrigerator that improves the compactness of the compressor compartment structure while ensuring the heat dissipation effect of the bottom cooling system.

[0005] This application provides a refrigerator, including:

[0006] The housing is constructed to form a storage compartment with a front opening and a press chamber located at the bottom of the rear side of the storage compartment;

[0007] The compressor is installed inside the compressor compartment;

[0008] A condenser assembly is installed inside the compressor compartment; a gap exists between the compressor and the condenser assembly along the width direction of the housing.

[0009] An evaporating dish is installed inside the compressor chamber; the evaporating dish comprises:

[0010] The first tank is located on the side of the condenser assembly facing away from the compressor; the first tank is used to receive drainage.

[0011] The second tank is located on the side of the condenser assembly facing the compressor; the second tank is used to receive drainage.

[0012] Along the width direction, the condensation components are spaced apart between the first tank and the second tank;

[0013] There is a gap between the second groove and the rear cover plate of the compressor compartment, and the second groove is provided with an air guide slope on the side facing the condenser assembly; from the front side to the rear side of the compressor compartment, the air guide slope is inclined towards the compressor side.

[0014] In the refrigerator of this embodiment, there is a gap between the compressor and the condenser assembly. On the one hand, this prevents the heat generated by the compressor from affecting the condenser assembly, ensuring heat dissipation efficiency. On the other hand, it ensures smooth airflow, forming an effective air duct. It also prevents compressor vibration from affecting the stability of the condenser assembly, reducing vibration and noise during refrigerator operation.

[0015] The evaporating dish includes a first groove and a second groove. Along the width of the housing, condenser components are spaced apart between the first and second grooves, allowing them to sink and settle between them, thus achieving a compact and three-dimensional utilization of the compressor compartment's internal space. While ensuring the evaporating dish has sufficient volume to hold defrost water and condensate, the overall height of the compressor compartment is significantly reduced, facilitating an increase in the effective volume of the upper storage compartment.

[0016] By setting a gap between the second slot and the rear cover, an air duct is provided for the condenser assembly to blow air towards the compressor side; and by combining it with the air guide slope, the airflow is effectively guided to flow smoothly towards the compressor side, reducing the obstruction and airflow loss of the airflow from the condenser assembly side by the second slot, ensuring that the condenser assembly and the compressor have sufficient airflow for heat dissipation, and ensuring the heat dissipation effect in the compressor compartment.

[0017] In some embodiments of this application, the evaporating dish further includes a communicating groove that connects the first groove and the second groove, and the communicating groove is located on the front side of the condensation assembly.

[0018] By incorporating a connecting groove, the first and second grooves are connected, thus connecting the water storage space within the evaporating dish and ensuring ample water storage. Positioning the connecting groove in front of the condenser assembly allows the evaporating dish's storage space and the condenser assembly to be arranged horizontally within the compressor chamber. Compared to placing the evaporating dish's water storage space at the bottom of the condenser assembly, this arrangement reduces the height of the compressor chamber, resulting in a more rational spatial layout within the chamber. Furthermore, the connecting groove's location in front of the condenser assembly prevents interference with airflow to the condenser assembly, ensuring a smooth heat dissipation airflow path.

[0019] In some embodiments of this application, the evaporating dish includes:

[0020] The bottom wall includes the bottom wall portion of the tank and the mounting bottom wall portion;

[0021] A surrounding wall is provided on the bottom wall and surrounds the bottom wall of the trough to form the first trough, the second trough, and the communicating trough;

[0022] The mounting bottom wall portion is located between the first groove portion and the second groove portion, and is located on the rear side of the communicating groove portion;

[0023] The condensation assembly is installed on the mounting base.

[0024] In this embodiment, the evaporating dish, by having a mounting base, improves its structural strength and rigidity, reducing the likelihood of damage during refrigerator transportation. The condenser assembly is fixed to the mounting base of the evaporating dish. This allows for pre-assembly of the condenser assembly with the evaporating dish before overall installation within the compressor chamber, improving production efficiency. Furthermore, with the condenser assembly fixed to the mounting base, the entire bottom wall of the evaporating dish contacts the bottom support plate of the compressor chamber, resulting in a larger contact area and contributing to a stable, rigid overall structure.

[0025] In some embodiments of this application, the enclosure includes:

[0026] A first sidewall is used to define the connecting groove portion and is located on the front side of the condensation assembly;

[0027] A second sidewall is used to define the formation of the second groove; the second sidewall is spaced from the first sidewall along the depth direction of the housing.

[0028] An inclined sidewall is used to define the second groove, the inclined sidewall being tangentially connected to the first sidewall and the second sidewall respectively; the inclined sidewall forming the air guide slope on the side facing the condenser assembly.

[0029] In this embodiment, by setting the inclined sidewalls tangentially connected to the first and second sidewalls, the structural strength of the evaporating dish can be improved, avoiding stress concentration at bending angles. Furthermore, the grooves within the evaporating dish are made smooth, allowing for smooth water flow and reducing the possibility of localized water accumulation. Moreover, the inclined sidewalls facilitate the formation of a guide slope, optimizing the airflow path for the condenser assembly and reducing wind resistance.

[0030] In some embodiments of this application, the enclosure further includes a third sidewall, which is used to define the first groove; the front end of the third sidewall is connected to the end of the first sidewall that is away from the inclined sidewall.

[0031] Along the width direction, there is a gap between the third sidewall and the condensation assembly.

[0032] The first tank wall is defined by the third side wall and a gap is maintained between it and the condenser assembly to ensure that the side of the condenser assembly away from the compressor has sufficient airflow channel, so that air can pass through the condenser assembly smoothly and ensure heat dissipation effect.

[0033] In some embodiments of this application, the condensation assembly includes:

[0034] Mounting bracket, which is fixed relative to the bottom support plate of the press chamber;

[0035] A fan is fixed to the mounting bracket, and the mounting bracket surrounds the outside of the fan;

[0036] A condenser is fixed to the mounting bracket and is located on the side of the fan away from the compressor; along the width direction, there is a gap between the condenser and the fan, a gap between the condenser and the first slot, and a gap between the fan and the second slot.

[0037] The ring-shaped mounting bracket provides an integrated mounting frame for the fan and condenser, ensuring the accuracy of their relative positions and simplifying the assembly process; it also provides a channel for airflow between the fan and condenser.

[0038] The condenser is located on the side of the fan away from the compressor, and there is a gap between the condenser and the fan, the first slot, and the fan and the second slot. The flow direction of the heat dissipation air path is reasonably set: air is drawn in by the fan and flows through the gap between the condenser and the second slot, the condenser fins, and the gap between the condenser and the first slot, forming an efficient and smooth heat dissipation path to maximize the heat dissipation effect.

[0039] In some embodiments of this application, the mounting bracket includes:

[0040] A fixed base plate is fixed relative to the bottom support plate of the press chamber;

[0041] The side panel is fixed to the fixed base plate and together with the fixed base plate forms an annular channel;

[0042] The condenser and the fan are supported on the fixed base plate; the condenser and the fan are respectively snapped into the side panel.

[0043] The annular channel structure formed by the fixed base plate and side panels creates a clear and well-sealed air duct, effectively guiding airflow to concentrate through the condenser, preventing short-circuiting or escape, and improving the fan's utilization and heat dissipation efficiency. The snap-fit ​​fixing method facilitates quick installation and disassembly of the fan and condenser, making maintenance convenient. The fixed base plate is fixed relative to the base support plate and supports both the condenser and fan, ensuring structural stability.

[0044] In some embodiments of this application, the front and rear sides of the condenser abut against the side panel, so that the fins of the condenser are opposite to the fan through the channel of the mounting bracket.

[0045] The front and rear sides of the condenser abut against the side panels, which can seal the gap between the condenser and the mounting bracket, ensuring that the airflow must pass through the condenser fins before being drawn out by the fan, forcing heat exchange and reducing the problem of reduced heat dissipation efficiency caused by airflow bypassing the condenser (air leakage).

[0046] In some embodiments of this application, the side panel opposite to the compressor is provided with a first buckle and a first limiting member, and there is a gap between the first buckle and the first limiting member; the condenser is snapped between the first buckle and the first limiting member;

[0047] The side panel is provided with a second buckle and a second limiting member, with a gap between the second buckle and the second limiting member; the fan is engaged between the second buckle and the second limiting member.

[0048] In this embodiment, the condenser is fixed to the mounting bracket using a first buckle and a first limiting rib, and the fan is fixed to the mounting bracket using a second buckle and a second limiting member. This not only ensures the stability of the condenser and fan under vibration, but also allows for rapid assembly and improves production efficiency.

[0049] In some embodiments of this application, the fan and the mounting bracket are provided with a first sealing element.

[0050] The first seal prevents short-circuiting of airflow between the fan inlet and outlet, ensuring that the intake air comes from the direction of the condenser and that the airflow passes effectively through the fan.

[0051] In some embodiments of this application, a second sealing element is provided between the mounting bracket and the top side and the front and rear sides of the press chamber.

[0052] The second seal seals the gap between the mounting bracket and the compressor chamber wall, preventing external gas that has not exchanged heat with the condenser from flowing to the compressor side. This ensures that the air flows to the fan side after passing through the condenser, thus ensuring the integrity and efficiency of the entire bottom cooling air duct system and significantly improving the overall heat dissipation performance. Attached Figure Description

[0053] Figure 1 This application provides schematic diagrams of the structure of a refrigerator for some embodiments.

[0054] Figure 2 This application provides schematic diagrams of the structure of a refrigerator for some embodiments.

[0055] Figure 3 Schematic diagrams of the compressor chamber and its internal structure provided for some embodiments of this application;

[0056] Figure 4 for Figure 3Exploded view;

[0057] Figure 5 for Figure 3 Side view;

[0058] Figure 6 for Figure 5 AA section view in the middle;

[0059] Figure 7 This is a schematic diagram of the structure of the evaporating dish and condensing assembly provided in some embodiments of this application;

[0060] Figure 8 This is a schematic diagram of the structure of an evaporating dish provided in some embodiments of this application;

[0061] Figure 9 Exploded views of condensation components provided in some embodiments of this application;

[0062] Figure 10 This is a schematic diagram of the structure of a condensation assembly provided in some embodiments of this application;

[0063] Figure 11 for Figure 10 BB section view in the middle.

[0064] Explanation of reference numerals in the attached figures:

[0065] 100: Box body; 101: Storage compartment; 102: Press chamber; 110: Box shell; 111: Box top panel; 112: Box side panel; 113: Box back panel; 120: Box liner; 140: Compartment top panel; 150: Compartment end panel; 160: Bottom support plate; 170: Compartment cover panel; 180: Rear cover panel; 190: Bottom panel;

[0066] 200: Compressor;

[0067] 300: Condensing assembly; 310: Mounting bracket; 311: Fixed base plate; 312: Side panel; 3121: First snap-fit; 3122: First limiting element; 3123: Second snap-fit; 3124: Second limiting element; 320: Condenser; 330: Fan; 340: First seal; 350: Second seal;

[0068] 400: Evaporating dish; 401: First trough; 402: Second trough; 403: Connecting trough; 410: Bottom wall; 411: Bottom wall of the trough; 412: Mounting bottom wall; 420: Enclosing wall; 421: First side wall; 422: Second side wall; 423: Inclined side wall; 4231: Air guide slope; 424: First arc-shaped wall; 425: Second arc-shaped wall; 426: Third side wall; 427: Fourth side wall; 428: Fifth side wall; 429: Sixth side wall; 430: Seventh side wall; 440: Evaporating tube;

[0069] 500: Drain pipe. Detailed Implementation

[0070] It should be noted that the brief descriptions of terms in this application are only for the convenience of understanding the embodiments described below, and are not intended to limit the embodiments of this application. Unless otherwise stated, these terms should be understood in their ordinary and common meaning.

[0071] The terms "first," "second," "third," etc., used in the specification, claims, and accompanying drawings of this application are used to distinguish similar or related objects or entities, and do not necessarily imply a specific order or sequence, unless otherwise specified. It should be understood that such terms are interchangeable where appropriate.

[0072] The terms “comprising” and “having”, and any variations thereof, are intended to cover but not exclude inclusion, for example, a product or device that includes a range of components is not necessarily limited to all of the components that are clearly listed, but may include other components that are not clearly listed or that are inherent to such product or device.

[0073] A refrigerator is a refrigeration device that maintains a constant low temperature, keeping food or other items at a constant temperature. With the upgrading of energy conservation, environmental protection, and product performance, the demand for refrigerators' volume ratio and space utilization is increasing.

[0074] In related technologies, some refrigerators increase their volume ratio by reducing the thickness of the foam insulation layer. However, the thickness of the foam insulation layer is a crucial characteristic for ensuring the refrigerator's heat preservation performance. Other refrigerators increase their effective volume by reducing the height of the compressor compartment. However, reducing the height of the compressor compartment leads to poor bottom cooling performance. It also results in reduced material and component interchangeability, increased parts costs, and difficulties in space layout within the compressor compartment.

[0075] Some refrigerators use bottom-cooling fans with smaller diameters and higher rated speeds; others fill the entire bottom plate of the compressor compartment with evaporating dishes to maximize the volume of the evaporating dishes; still others use bottom condensers with higher heat dissipation efficiency. However, technical problems such as insufficient airflow and poor heat dissipation in the compressor compartment still exist. Moreover, the standardization and cross-refrigeration of evaporating dishes increases the overall cost of the compressor compartment.

[0076] In view of this, the embodiments of this application, by rationally planning the spatial layout within the compressor chamber and setting the evaporating dish in an irregular shape, can ensure sufficient volume and allow the condensing assembly to be lowered, so that the condensing assembly is located between the two slots of the evaporating dish, ensuring sufficient arrangement space. Furthermore, by setting an air guide slope on the evaporating dish, the obstruction of the evaporating dish to the airflow of the condensing assembly is reduced, ensuring heat dissipation effect.

[0077] The compressor chamber height in this embodiment can reach 165mm or less, which has good heat dissipation effect and low cost.

[0078] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, and not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application.

[0079] First, it should be noted that, in the embodiments of this application, as... Figure 1 As shown, the width direction of the housing 100 corresponds to Figure 1 In the X-axis direction, the height direction of the box 100 corresponds to Figure 1 In the Z-axis direction, the depth direction of the box 100 corresponds to Figure 1 In the Y-axis direction.

[0080] Combination Figure 1 This application provides a refrigerator, which includes a cabinet 100. The cabinet 100 can be configured to form a storage compartment 101 with a front opening for storing items.

[0081] The storage compartment 101 can be provided in multiple ways to expand the storage space. Depending on the storage temperature of the storage compartment 101, the storage compartment 101 can include at least one refrigerated compartment and at least one frozen compartment. The internal temperature of the refrigerated compartment can be maintained between approximately 0°C and 5°C to store items in refrigeration mode; the internal temperature of the frozen compartment can be maintained between approximately -30°C and 0°C to store items in freezing mode.

[0082] In some possible implementations, at least one of the storage chambers 101 may also be configured as a vacuum chamber or a variable temperature chamber, etc.

[0083] The refrigerator in this embodiment may also include a door, which is connected to the cabinet 100 to open or close the storage compartment 101.

[0084] For example, the door and the cabinet 100 are hinged together, so that the door can rotate relative to the cabinet 100, thereby opening or closing the storage room 101.

[0085] For example, the drawer is provided with a door at its outer end, and the door and the drawer are simultaneously pulled out relative to the box 100 to open or close the storage compartment 101.

[0086] In some embodiments, combined with Figure 1 and Figure 2The refrigerator body 100 may include a refrigerator liner 120 and a refrigerator shell 110. The refrigerator liner 120 may be configured with a storage compartment 101. The refrigerator shell 110 may be attached to the outside of the refrigerator liner 120 to form the appearance of the refrigerator.

[0087] When there are multiple storage compartments 101, there can be multiple inner boxes 120, with each inner box 120 constituting one storage compartment 101.

[0088] The cabinet 100 may also include an insulation layer, which can be disposed between the inner cabinet 120 and the outer shell 110. The insulation layer can insulate the storage compartment 101 to minimize heat exchange between the storage compartment 101 and the outside of the refrigerator, thus helping to ensure the refrigerator's cooling effect. The insulation layer can be formed by foaming, such as polyurethane foam.

[0089] Combination Figure 1 and Figure 2 The refrigerator shell 110 may include a top panel 111, two side panels 112, and a back panel 113. The two side panels 112 are spaced apart along the width of the refrigerator, and the top panel 111 is fixed to the top of the two side panels 112. The two side panels 112 and the back panel 113 can be integrally formed into a U-shaped shell, which helps to improve the structural strength of the refrigerator shell 110 and reduce the assembly process. The back panel 113 is fixed to the back of the top panel 111 and the two side panels 112.

[0090] Combination Figure 2 The housing 100 can also be configured to form a press chamber 102, which is located at the bottom of the rear side of the storage room 101.

[0091] The refrigerator in this embodiment may further include a refrigeration system for providing cooling capacity to the storage compartment 101. The refrigeration system may include a compressor, a condenser, a throttling element, and an evaporator that are sequentially connected and form a refrigerant circulation path.

[0092] During refrigeration system operation, the compressor compresses refrigerant vapor to generate high-temperature, high-pressure refrigerant vapor, which is then transported to the condenser. The condenser liquefies the high-temperature, high-pressure refrigerant vapor, generating high-temperature, low-pressure refrigerant liquid, which is then transported to the throttling element. The throttling element reduces the pressure of the refrigerant liquid, transforming it from a high-pressure, low-temperature liquid into a low-pressure, low-temperature liquid, which is then transported to the evaporator. The evaporator receives the low-pressure, low-temperature refrigerant liquid and boils it under isobaric conditions, absorbing heat and vaporizing to form refrigerant vapor, thereby lowering the temperature inside storage compartment 101.

[0093] Among them, reference Figure 3 and Figure 4The compressor 200 is installed inside the compressor compartment 102. The condenser 320 is installed inside the compressor compartment 102. The evaporator is usually installed inside the housing 120.

[0094] For example, condenser 320 is a finned condenser, which is advantageous for increasing surface area and heat exchange efficiency. Moreover, compared to tube-finned condensers, finned condensers have a more compact structure while maintaining the same heat exchange efficiency.

[0095] During the refrigeration process, the compressor 200 releases heat, and the condenser 320 needs to exchange heat. Therefore, a fan 330 is also installed in the compressor compartment 102 to drive the air in the compressor compartment 102 to exchange heat with the atmospheric environment outside the compartment, so as to dissipate heat from the compressor 200 and the condenser 320.

[0096] Continue to refer to Figure 3 and Figure 4 The housing 100 may also include a top plate 140, forming the top wall of the press chamber 102.

[0097] The container 100 may also include a bottom support plate 160, which is arranged at intervals with the top plate 140 along the height direction of the container 100.

[0098] The container 100 may also include two end plates 150, which are arranged at intervals along the width of the container 100 at both ends of the top plate 140.

[0099] The container body 100 may also include a cover plate 170, which is disposed on the front side of the top plate 140 and the two end plates 150, and the top of the cover plate 170 is connected to the top plate 140. The cover plate 170 extends forward at an angle and forms a horizontally extending horizontal plate portion.

[0100] The cabinet 100 may also include a bottom plate 190, which is connected to the front end of the cover plate 170 and is arranged in a horizontal plane. Thus, the bottom plate 190, the horizontal plate of the cover plate 170, and the bottom support plate 160 form the bottom plate structure of the refrigerator.

[0101] With the above configuration, the top plate 140, bottom support plate 160, two end plates 150, and cover plate 170 enclose and form a rearward-opening press chamber 102.

[0102] The housing 100 may also include a rear cover 180, which covers the opening of the press chamber 102 to conceal the components inside the press chamber 102. The rear cover 180 and the back panel 113 together form the rear exterior surface of the housing 100.

[0103] Continue to refer to Figure 4In some embodiments of this application, a drain pipe 500 is provided in the refrigerator to drain condensate or defrost water from the evaporator. Since the rear end of the refrigerator liner 120 is located above the compressor compartment 102, the drain pipe 500 extends downward from the insulation layer on the rear side of the refrigerator liner 120 into the compressor compartment 102.

[0104] The height of the press chamber 102 is limited, and the portion of the drain pipe 500 located inside the press chamber 102 extends along the height direction of the housing 100.

[0105] Continue to refer to Figure 4 The refrigerator also includes an evaporating dish 400, which is installed inside the compressor compartment 102 to receive water discharged from the drain pipe 500. A portion of the evaporating dish 400 is aligned vertically with the drain pipe 500, allowing the portion of the drain pipe 500 inside the compressor compartment 102 to drain water into the evaporating dish 400 without bending.

[0106] Due to the influence of the evaporation rate, the evaporating dish 400 needs to have a certain volume, therefore the evaporating dish 400 covers a certain area within the horizontal plane of the compressor chamber 102. Furthermore, in some embodiments, multiple drain pipes 500 are provided, each drain pipe 500 needing to be aligned with the evaporating dish 400 in the vertical direction to drain water into the evaporating dish 400, which also requires the evaporating dish 400 to cover a certain area within the horizontal plane of the compressor chamber 102. For example, a refrigerator with dual evaporators is equipped with two drain pipes 500, each drain pipe 500 being aligned with the evaporating dish 400 for draining water.

[0107] An evaporating tube 440 is installed inside the evaporating dish 400. The evaporating tube 440 can be heated to evaporate the water inside the evaporating dish 400. The evaporating tube 440 can be an electric heating element arranged inside the evaporating dish 400; alternatively, the evaporating tube 440 can also be a refrigerant pipe connected to the discharge pipe of the compressor 200. The refrigerant discharged by the compressor 200 is a high-temperature, high-pressure gas. By utilizing the heat exchange between the refrigerant pipe and the water in the evaporating dish 400, water can be evaporated, and the refrigerant gas can also be liquefied, thus promoting refrigerant liquefaction.

[0108] Continue to refer to Figure 4 The refrigerator in this embodiment includes a condenser assembly 300, which includes a mounting bracket 310, a fan 330, and a condenser 320. The fan 330 and the condenser 320 are both mounted on the mounting bracket 310. The mounting bracket 310 is fixed inside the compressor compartment 102, thereby fixing the fan 330 and the condenser 320 to the compressor compartment 102.

[0109] Combination Figure 5 and Figure 6 In some embodiments of this application, there is a gap between the compressor 200 and the condenser assembly 300 along the width direction of the housing 100.

[0110] On the one hand, it prevents the heat generated by the compressor 200 from affecting the condenser assembly 300, ensuring heat dissipation efficiency. On the other hand, it ensures smooth airflow, forming an effective air duct. It also prevents the vibration of the compressor 200 from affecting the stability of the condenser assembly 300, reducing vibration and noise during refrigerator operation. Of course, the spacing between the compressor 200 and the condenser assembly 300 also facilitates installation, maintenance, and replacement.

[0111] Continue to refer to Figure 6 A portion of the evaporating dish 400 is located between the compressor 200 and the condensing assembly 300, and this portion of the evaporating dish 400 is spaced apart from the compressor 200 and from the condensing assembly 300; a portion of the evaporating dish 400 is located on the side of the condensing assembly 300 away from the compressor 200 and is spaced apart from the condensing assembly 300.

[0112] This configuration increases the coverage area of ​​the evaporating dish 400 within the compressor chamber 102, ensuring that the evaporating dish 400 has sufficient volume to accommodate the water discharged from the drain pipe 500. It also allows the evaporating dish 400 to be positioned opposite multiple drain pipes 500, enabling the portion of the drain pipe 500 located within the compressor chamber 102 to extend vertically, ensuring smooth drainage.

[0113] The evaporating dish 400 is located between the compressor 200 and the condenser assembly 300, and there is a gap between this part and the compressor 200, which helps to reduce the impact of compressor 200 vibration on the evaporating dish 400. This gap between this part and the condenser assembly 300 ensures a smooth airflow path and reduces the obstruction of airflow by the evaporating dish 400. Furthermore, this location between the compressor 200 and the condenser assembly 300 allows for full utilization of the two heat sources (compressor 200 and condenser assembly 300) to evaporate the water in the evaporating dish 400, thus improving evaporation efficiency.

[0114] The evaporating dish 400 is located on the side of the condensing assembly 300 away from the compressor 200, and there is a gap between it and the condensing assembly 300. On the one hand, this ensures that the condensing assembly 300 drives the air flow smoothly. On the other hand, the air flows from the evaporating dish 400 toward the condensing assembly 300, which can not only make the water in the evaporating dish 400 evaporate, but also accelerate the cooling of the condenser 320 and improve the cooling effect.

[0115] Reference Figure 7 and Figure 8 The evaporating dish 400 includes: a first groove 401, which is located on the side of the condensing assembly 300 away from the compressor 200; the first groove 401 is used to receive drainage.

[0116] Continue to refer to Figure 7 and Figure 8 The evaporating dish 400 also includes a second groove 402, which is located on the side of the condensing assembly 300 facing the compressor 200; the second groove 402 is used to receive drainage.

[0117] Thus, along the width direction of the housing 100, the condensing components 300 are spaced apart between the first slot 401 and the second slot 402, allowing the condensing components 300 to sink between the first slot 401 and the second slot 402, achieving compact and three-dimensional utilization of the internal space of the compressor chamber 102. While ensuring that the evaporating dish 400 has sufficient volume to accommodate defrosting water and condensate, the overall height of the compressor chamber 102 is significantly reduced, which is beneficial for increasing the effective volume of the upper storage chamber 101.

[0118] There is a gap between the second groove 402 and the rear cover plate 180 of the compressor compartment 102, and the second groove 402 is provided with an air guide slope 4231 on the side facing the condenser assembly 300; from the front side to the rear side of the compressor compartment 102, the air guide slope 4231 is inclined towards the compressor 200.

[0119] By setting a gap between the second slot 402 and the rear cover plate 180, an air duct is provided for the condenser assembly 300 to blow air toward the compressor 200; and by combining it with the air guide slope 4231, the airflow is effectively guided to flow smoothly toward the compressor 200, reducing the obstruction and airflow loss of the airflow from the condenser assembly 300 side by the second slot 402, ensuring that the condenser assembly 300 and the compressor 200 have sufficient airflow for heat dissipation, and ensuring the heat dissipation effect in the compressor compartment 102.

[0120] The above layout improves heat dissipation efficiency and space utilization in the compressor chamber 102, while avoiding the cost increase caused by simply reducing component size or using special high-performance components, thus helping to control the overall cost.

[0121] In some embodiments of this application, the first tank 401 and the second tank 402 are not connected, and evaporation pipes 440 are respectively provided in the first tank 401 and the second tank 402 to evaporate the water in the tank.

[0122] In other embodiments of this application, reference is made to Figure 7 and Figure 8 The second tank 402 is connected to the first tank 401, so that the water collected in either tank can flow and converge smoothly, avoiding the problem of local water accumulation or poor drainage, and ensuring sufficient water storage space.

[0123] Continue to refer to Figure 8In some embodiments, the evaporating dish 400 further includes a communicating groove 403, which connects the first groove 401 and the second groove 402, and the communicating groove 403 is located on the front side of the condensing assembly 300.

[0124] In this way, the evaporating dish 400 forms a semi-enclosed shape, which can ensure sufficient water storage capacity, a large coverage area, and correspond to all drain pipes 500; it can also be staggered with the condensing component 300 in the horizontal plane of the compressor chamber 102, reducing the space occupied by the compressor chamber 102 in height.

[0125] By providing a connecting groove 403, the first groove 401 and the second groove 402 are connected, thus connecting the water storage space within the evaporating dish 400 and ensuring sufficient water storage space. Positioning the connecting groove 403 at the front of the condensing assembly 300 allows the storage space of the evaporating dish 400 and the condensing assembly 300 to be arranged horizontally within the compressor chamber 102. Compared to placing the water storage space of the evaporating dish 400 at the bottom of the condensing assembly 300, this arrangement helps reduce the height of the compressor chamber 102, resulting in a more rational spatial arrangement within the compressor chamber 102. Furthermore, the connecting groove 403's location at the front of the condensing assembly 300 avoids interference with the airflow of the condensing assembly 300, ensuring a smooth heat dissipation airflow path.

[0126] In some embodiments of this application, the condenser assembly 300 can be directly installed on the bottom support plate 160 of the compressor chamber 102.

[0127] Continue to refer to Figure 8 In some embodiments of this application, the evaporating dish 400 includes a bottom wall 410, which is fixed to the bottom support plate 160 of the compressor chamber 102. The fixing method includes, but is not limited to, snap-fit ​​and screw connection.

[0128] The bottom wall 410 includes a tank bottom wall portion 411 and a mounting bottom wall portion 412. The tank bottom wall portion 411 is used to form the bottom wall of the tank portion of the evaporating dish 400, and the mounting bottom wall portion 412 is used to mount the condenser assembly 300.

[0129] The evaporating dish 400 may also include a surrounding wall 420 disposed on the bottom wall 410. The surrounding wall 420 and the bottom wall portion 411 of the dish enclose to form a first groove portion 401, a second groove portion 402, and a connecting groove portion 403.

[0130] The enclosure wall 420 is set perpendicular to the bottom wall 410. The enclosure wall 420 and the bottom wall of the trough on its inner side enclose the evaporating dish 400 to form the trough portion. The trough portion of the evaporating dish 400 is composed of a first trough portion 401, a second trough portion 402 and a connecting trough portion 403.

[0131] Along the width direction of the housing 100, the mounting bottom wall portion 412 is located between the first groove portion 401 and the second groove portion 402; along the depth direction of the housing 100, the mounting bottom wall is located on the rear side of the connecting groove portion 403.

[0132] In some embodiments of this application, the volume of the first groove 401 is larger than the volume of the second groove 402. Along the airflow direction of the condenser assembly 300, the first groove 401 is located upstream of the airflow of the condenser assembly 300, and the second groove 402 is located downstream of the airflow of the condenser assembly 300. This arrangement ensures that the larger volume of the first groove 401 guarantees sufficient water storage space for the evaporating dish 400; and the smaller volume of the second groove 402 reduces its obstruction of the airflow from the condenser assembly 300.

[0133] The area of ​​the bottom wall portion 411 in the first groove portion 401 is greater than the area of ​​the bottom wall portion 411 in the second groove portion 402, so that the volume of the first groove portion 401 is greater than the volume of the second groove portion 402.

[0134] The condenser assembly 300 of this application embodiment is installed on the mounting base 412, and the installation method includes, but is not limited to, screw fixing, snap-fit, and adhesive bonding. The mounting bracket 310 of the condenser assembly 300 is fixed to the mounting base 412.

[0135] In this embodiment, the evaporating dish 400, by providing a mounting bottom wall portion 412, improves the structural strength and rigidity of the evaporating dish 400, reducing the possibility of damage to the evaporating dish 400 during refrigerator transportation. The condensing assembly 300 is fixed to the mounting bottom wall portion 412 of the evaporating dish 400. On the one hand, the condensing assembly 300 can be pre-assembled with the evaporating dish 400 before being installed as a whole within the compressor chamber 102, which improves production efficiency. Furthermore, with the condensing assembly 300 fixed to the mounting bottom wall portion 412 of the evaporating dish 400, the entire bottom wall 410 of the evaporating dish 400 contacts the bottom support plate 160 of the compressor chamber 102, resulting in a larger contact area and contributing to the formation of a stable, rigid whole.

[0136] Furthermore, since the compressor 200 is directly fixed to the base plate 160, and the condenser assembly 300 is fixed to the base plate 160 via the mounting bottom wall portion 412, the vibration of the compressor 200 can be reduced to interfere with the condenser assembly 300. Additionally, the condenser assembly 300 can be raised by a certain distance, reducing the obstruction effect of the evaporator dish 400's groove on the airflow of the condenser assembly 300.

[0137] In some embodiments of this application, reinforcing ribs are provided on the bottom wall 410 to improve the structural strength and rigidity of the evaporating dish 400.

[0138] Continue to refer to Figure 8The enclosure 420 includes a first sidewall 421, which defines a communicating groove 403 and is located on the front side of the condensation assembly 300. The first sidewall 421 extends generally along the width direction of the housing 100.

[0139] The enclosure 420 may further include a second sidewall 422 for defining the formation of the second groove 402; the second sidewall 422 is spaced from the first sidewall 421 along the depth direction of the housing 100, and the second sidewall 422 is located behind the first sidewall 421. The second sidewall 422 extends along the width direction of the housing 100.

[0140] The enclosure 420 may also include an inclined sidewall 423 for defining the second groove 402, the inclined sidewall 423 being connected to the first sidewall 421 and the second sidewall 422 respectively.

[0141] The inclined sidewall 423 is tangentially connected to the first sidewall 421 and the second sidewall 422, respectively. One end of the inclined sidewall 423 is tangentially connected to the first sidewall 421 through the first arc-shaped wall 424, and the other end of the inclined sidewall 423 is tangentially connected to the second sidewall 422 through the second arc-shaped wall 425.

[0142] An air guide slope 4231 is formed on the side of the inclined sidewall 423 facing the condenser assembly 300.

[0143] In this embodiment, by setting the inclined sidewall 423 to be tangentially connected to the first sidewall 421 and the second sidewall 422, the structural strength of the evaporating dish 400 can be improved and stress concentration at the bending angle can be avoided. On the other hand, the groove inside the evaporating dish 400 can be made smooth, so that the water flows smoothly and the possibility of water accumulating locally can be reduced.

[0144] Furthermore, the inclined sidewall 423 is designed to facilitate the formation of the air guide slope 4231, optimize the airflow duct of the condenser assembly 300, and reduce wind resistance.

[0145] Continue to refer to Figure 8 The enclosure 420 in this embodiment further includes a third sidewall 426, which defines the first groove 401. The third sidewall 426 has a gap between itself and the condensation assembly 300 along its width direction.

[0146] The third sidewall 426 extends along the depth direction of the housing 100, and the front end of the third sidewall 426 is connected to the end of the first sidewall 421 that is away from the inclined sidewall 423. The front end of the third sidewall 426 and the end of the first sidewall 421 that is away from the inclined sidewall 423 are tangentially connected by an arc-shaped wall.

[0147] The third sidewall 426 is used to define the first groove wall and maintain a gap with the condenser assembly 300 to ensure that the side of the condenser assembly 300 away from the compressor 200 has sufficient airflow channel, so that air can pass smoothly through the condenser assembly 300 and ensure heat dissipation effect.

[0148] Continue to refer to Figure 8 The enclosure 420 may also include a fourth side wall 427, which extends along the width direction of the housing 100. One end of the fourth side wall 427 is connected to the rear end of the third side wall 426. The fourth side wall 427 is used to define the first groove 401.

[0149] The enclosure 420 may further include a fifth side wall 428, which extends along the depth direction of the housing 100 and is opposite to and spaced from the third side wall 426 along the width direction of the housing 100. The rear end of the fifth side wall 428 is connected to the fourth side wall 427.

[0150] The enclosure 420 may further include a sixth side wall 429, which extends along the depth direction of the housing 100 and is opposite to and spaced from the inclined side wall 423 along the width direction of the housing 100. The rear end of the sixth side wall 429 is connected to the second side wall 422.

[0151] The enclosure 420 may further include a seventh side wall 430, which extends generally along the width direction of the housing 100. One end of the seventh side wall 430 is connected to the front end of the sixth side wall 429, and the other end of the seventh side wall 430 is connected to the front end of the fifth side wall 428. Along the depth direction of the housing 100, there is a gap between the seventh side wall 430 and the first side wall 421.

[0152] Thus, the portions of the first sidewall 421 and the seventh sidewall 430 opposite to the first sidewall 421 form a communicating groove 403; portions of the inclined sidewall 423, the second sidewall 422, the sixth sidewall 429, and the seventh sidewall 430 enclose to form a second groove 402; and portions of the third sidewall 426, the fourth sidewall 427, the fifth sidewall 428, and the seventh sidewall 430 opposite to the fourth sidewall 427 enclose to form a first groove 401.

[0153] Reference Figure 9 In this embodiment of the application, the condensation assembly 300 includes: a mounting bracket 310, a fan 330, and a condenser 320.

[0154] The mounting bracket 310 is ring-shaped, allowing airflow to enter the fan 330 from the condenser 320 side.

[0155] The mounting bracket 310 is fixed relative to the bottom support plate 160 of the compressor chamber 102. The mounting bracket 310 is fixed to the mounting bottom wall 412 of the evaporating dish 400, thereby fixing the mounting bracket 310 relative to the bottom support plate 160.

[0156] The fan 330 is fixed to the inner side of the mounting bracket 310, so that the mounting bracket 310 surrounds the outer side of the fan 330. The fixing methods between the fan 330 and the mounting bracket 310 include, but are not limited to, screws, snap-fit, etc.

[0157] The condenser 320 is fixed to the mounting bracket 310, and the condenser 320 is located on the side of the fan 330 away from the compressor 200. The fixing methods of the condenser 320 and the mounting bracket 310 include, but are not limited to, screws, snap-fit, etc.

[0158] The annular mounting bracket 310 provides an integrated mounting frame for the fan 330 and the condenser 320, ensuring the accuracy of their relative positions and simplifying the assembly process; it also provides a channel for airflow between the fan 330 and the condenser 320.

[0159] In some embodiments, under the action of the fan 330, air on the condenser 320 side flows toward the fan 330 side and is blown toward the compressor 200. Of course, the base plate 160 and / or the rear cover plate 180 are provided with air inlets or outlets. Under the action of the fan 330, outside air enters the compressor chamber 102 through the air inlet, passes through the condenser 320, then through the annular mounting bracket 310 and the fan 330, and is blown toward the compressor 200, finally exiting the compressor chamber 102 through the air outlet.

[0160] With the above configuration, incoming air from the external environment carries moisture from the first slot 401 into the condenser 320. This accelerates the evaporation of moisture from the first slot 401 and improves the heat dissipation of the condenser 320. The second slot 402 is located between the compressor 200 and the fan 330, allowing some of the airflow from the fan 330 to pass through the second slot 402, carrying moisture from the second slot 402 towards the compressor 200. This accelerates the evaporation of moisture from the second slot 402 and also helps cool the compressor 200, improving its heat dissipation.

[0161] In this embodiment of the application, there is a gap between the condenser 320 and the fan 330 along the width direction, a gap between the condenser 320 and the first groove 401, and a gap between the fan 330 and the second groove 402.

[0162] The condenser 320 is located on the side of the fan 330 away from the compressor 200, and the condenser 320 is spaced apart from the fan 330, the first slot 401, and the fan 330 from the second slot 402. The flow direction of the heat dissipation air path is reasonably set: air is drawn in by the fan 330 and flows through the gap between the condenser 320 and the second slot 402, the fins of the condenser 320, and the gap between the condenser 320 and the first slot 401, forming an efficient and smooth heat dissipation path to maximize the heat dissipation effect.

[0163] Moreover, the gap between the condenser 320 and the fan 330 can easily form a negative pressure under the action of the fan 330, so that the airflow passing through the condenser 320 can be blown outward by the fan 330, thereby improving the airflow efficiency.

[0164] Continue to refer to Figure 9 In some embodiments of this application, the mounting bracket 310 includes a fixed base plate 311, which is fixed relative to the base support plate 160 of the press chamber 102.

[0165] The fixed base plate 311 can be fixedly connected to the mounting bottom wall 412 of the evaporating dish 400, thereby fixing the fixed base plate 311 relative to the bottom support plate 160.

[0166] The mounting bracket 310 may also include a side panel 312, which is fixed to the base plate 311 and forms an annular channel with the base plate 311. This annular channel makes the mounting bracket 310 annular in shape, providing a passage for airflow between the condenser 320 and the fan 330.

[0167] For example, the side panel 312 and the fixed base plate 311 are integrally formed parts, which have a stable structure and are easy to process and form.

[0168] The condenser 320 and the fan 330 are supported on the fixed base plate 311; the condenser 320 and the fan 330 are respectively snapped into the side panel 312.

[0169] The annular channel structure formed by the fixed base plate 311 and the side panel 312 constitutes a clear and well-sealed air duct, effectively guiding airflow to concentrate through the condenser 320, preventing airflow short-circuiting or leakage, and improving the utilization and heat dissipation efficiency of the fan 330. The snap-fit ​​fixing method facilitates the quick installation and disassembly of the fan 330 and the condenser 320, making maintenance convenient. The fixed base plate 311 is fixed relative to the base support plate 160, and the fixed base plate 311 supports the condenser 320 and the fan 330, ensuring the stability of the structure.

[0170] Combination Figure 10 and Figure 11The front and rear sides of the condenser 320 abut against the side panel 312, so that the fins of the condenser 320 are opposite to the fan 330 through the channel of the mounting bracket 310.

[0171] The front and rear sides of the condenser 320 abut against the side panel 312, which can seal the gap between the condenser 320 and the mounting bracket 310, ensuring that the airflow must pass through the fins of the condenser 320 before it can be drawn out by the fan 330, forcing heat exchange. This can reduce the problem of reduced heat dissipation efficiency caused by the airflow bypassing the condenser 320 (air leakage).

[0172] In some embodiments of this application, reference is made to Figure 9 and Figure 11 A first latch 3121 and a first limiting member 3122 are provided on the side of the side panel 312 facing away from the compressor 200. Along the width direction of the housing 100, the first limiting member 3122 is closer to the fan 330 than the first latch 3121. There is a gap between the first latch 3121 and the first limiting member 3122. The condenser 320 is engaged between the first latch 3121 and the first limiting member 3122.

[0173] The first limiting member 3122 abuts against the side of the condenser 320 near the fan 330, and the first buckle 3121 engages with the condenser 320, thereby fixing the condenser 320 to the mounting bracket 310. Combined with the support of the fixing base plate 311, the condenser 320's freedom of movement relative to the mounting bracket 310 is restricted, ensuring the condenser 320 is fixed relative to the mounting bracket 310.

[0174] Multiple first limiting members 3122 can be provided, and multiple first limiting members 3122 are arranged at intervals along the circumference of the side panel 312 to improve the limiting effect on the condenser 320.

[0175] Multiple first buckles 3121 can be provided, and multiple first buckles 3121 are arranged at intervals along the circumference of the side panel 312 to ensure the snap-fit ​​and fixing effect on the condenser 320.

[0176] In some embodiments of this application, reference is made to Figure 9 and Figure 11 The side panel 312 is provided with a second buckle 3123 and a second limiting member 3124. Along the width direction of the housing 100, there is a gap between the second buckle 3123 and the second limiting member 3124. The second limiting member 3124 is located between the second buckle 3123 and the first limiting member 3122. The fan 330 is engaged between the second buckle 3123 and the second limiting member 3124.

[0177] The second limiting member 3124 abuts against the side of the fan 330 facing the condenser 320, and the second buckle 3123 engages with the fan 330, thereby fixing the condenser 320 to the mounting bracket 310. The connection method is simple and reliable.

[0178] The second limiting member 3124 may be annular, or multiple second limiting members 3124 may be provided, and the multiple second limiting members 3124 may be arranged at intervals along the circumference of the side panel 312 to improve the limiting effect on the fan 330.

[0179] Multiple second buckles 3123 can be provided, for example, four. Multiple second buckles 3123 are arranged at intervals along the circumference of the side panel 312 to improve the snap-fit ​​and fixing effect on the fan 330.

[0180] In this embodiment, the condenser 320 is fixed to the mounting bracket 310 using the first buckle 3121 and the first limiting rib, and the fan 330 is fixed to the mounting bracket 310 using the second buckle 3123 and the second limiting member 3124. This can ensure the stability of the condenser 320 and the fan 330 under vibration, and also enable rapid assembly, thereby improving production efficiency.

[0181] In some embodiments, combined with Figure 9 The fan 330 and the mounting bracket 310 are provided with a first sealing element 340. The first sealing element 340 can be a sealing sponge, sealing foam, etc. The first sealing element 340 can prevent short-circuiting of the airflow between the inlet and outlet of the fan 330, ensure that the intake air comes from the direction of the condenser 320, and ensure that the airflow passes through the fan 330 effectively.

[0182] In some embodiments, combined with Figure 7 A second sealing element 350 is provided between the mounting bracket 310 and the top side and front and rear sides of the press chamber 102. The second sealing element 350 can be a sealing sponge, sealing foam, etc. The second sealing element 350 is provided between the mounting bracket 310 and the chamber cover plate 170, the mounting bracket 310 and the chamber top plate 140, and the mounting bracket 310 and the rear cover plate 180.

[0183] The second seal 350 can seal the gap between the mounting bracket 310 and the wall of the compressor compartment 102, preventing external gas that has not exchanged heat with the condenser 320 from flowing to the compressor 200 side, ensuring that the air flows to the fan 330 side after passing through the condenser 320, thus ensuring the integrity and efficiency of the entire bottom cooling heat dissipation air duct system, thereby significantly improving the overall heat dissipation performance.

[0184] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of this application, and are not intended to limit them. Although this application has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some or all of the technical features therein. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions of the embodiments of this application.

[0185] For ease of explanation, the above description has been provided in conjunction with specific embodiments. However, the above exemplary discussion is not intended to be exhaustive or to limit the embodiments to the specific forms disclosed above. Various modifications and variations can be obtained based on the above teachings. The selection and description of the above embodiments are for the purpose of better explaining the principles and practical applications, thereby enabling those skilled in the art to better utilize the described embodiments and various different variations of embodiments suitable for specific use considerations.

Claims

1. A refrigerator, characterized in that, include: The housing (100) is constructed to form a storage compartment (101) with a front opening and a press chamber (102) located at the bottom of the rear side of the storage compartment (101); A compressor (200) is installed inside the compressor compartment (102); A condenser assembly (300) is installed inside the compressor compartment (102); there is a gap between the compressor (200) and the condenser assembly (300) along the width direction of the housing (100); An evaporating dish (400) is installed inside the compressor chamber (102); the evaporating dish (400) includes: The first trough (401) is located on the side of the condenser assembly (300) away from the compressor (200); the first trough (401) is used to receive drainage. The second trough (402) is located on the side of the condenser assembly (300) facing the compressor (200); the second trough (402) is used to receive drainage. Along the width direction, the condensation assembly (300) is spaced between the first tank (401) and the second tank (402); There is a gap between the second groove (402) and the rear cover plate (180) of the compressor chamber (102), and the second groove (402) is provided with an air guide slope (4231) on the side facing the condenser assembly (300); from the front side to the rear side of the compressor chamber (102), the air guide slope (4231) is inclined towards the compressor (200).

2. The refrigerator according to claim 1, characterized in that, The evaporating dish (400) further includes a connecting groove (403) that connects the first groove (401) and the second groove (402), and the connecting groove (403) is located on the front side of the condensing assembly (300).

3. The refrigerator according to claim 2, characterized in that, The evaporating dish (400) includes: The bottom wall (410) includes a groove bottom wall portion (411) and a mounting bottom wall portion (412). A surrounding wall (420) is provided on the bottom wall (410) and surrounds the bottom wall portion (411) of the groove to form the first groove portion (401), the second groove portion (402) and the communicating groove portion (403). The mounting bottom wall portion (412) is located between the first groove portion (401) and the second groove portion (402), and is located on the rear side of the communicating groove portion (403); The condensation assembly (300) is mounted on the mounting base (412).

4. The refrigerator according to claim 3, characterized in that, The enclosure (420) includes: A first sidewall (421) is used to define the connecting groove (403) and is located on the front side of the condensation assembly (300); The second sidewall (422) is used to define the second groove (402); the second sidewall (422) is spaced from the first sidewall (421) along the depth direction of the housing (100); An inclined sidewall (423) is used to define the second groove (402), the inclined sidewall (423) being tangentially connected to the first sidewall (421) and the second sidewall (422) respectively; the inclined sidewall (423) forms the air guide slope (4231) on the side facing the condenser assembly (300).

5. The refrigerator according to claim 4, characterized in that, The enclosure (420) further includes a third sidewall (426) for defining the first groove (401); the front end of the third sidewall (426) is connected to the end of the first sidewall (421) away from the inclined sidewall (423); Along the width direction, there is a gap between the third sidewall (426) and the condensation assembly (300).

6. The refrigerator according to any one of claims 1-5, characterized in that, The condensation assembly (300) includes: Mounting bracket (310), which is fixed relative to the bottom support plate (160) of the press chamber (102); A fan (330) is fixed to the mounting bracket (310), and the mounting bracket (310) surrounds the outside of the fan (330); A condenser (320) is fixed to the mounting bracket (310), and the condenser (320) is located on the side of the fan (330) away from the compressor (200); along the width direction, there is a gap between the condenser (320) and the fan (330), and there is a gap between the condenser (320) and the first slot (401), and there is a gap between the fan (330) and the second slot (402).

7. The refrigerator according to claim 6, characterized in that, The mounting bracket (310) includes: A fixed base plate (311) is fixed relative to the base support plate (160) of the press chamber (102); The side panel (312) is fixed to the fixed base plate (311) and together with the fixed base plate (311) forms an annular channel; The condenser (320) and the fan (330) are supported on the fixed base plate (311); the condenser (320) and the fan (330) are respectively engaged with the side panel (312).

8. The refrigerator according to claim 7, characterized in that, The front and rear sides of the condenser (320) abut against the side panel (312) respectively, so that the fins of the condenser (320) are opposite to the fan (330) through the channel of the mounting bracket (310).

9. The refrigerator according to claim 7, characterized in that, The side panel (312) opposite to the compressor (200) is provided with a first buckle (3121) and a first limiting member (3122), with a gap between the first buckle (3121) and the first limiting member (3122); the condenser (320) is snapped between the first buckle (3121) and the first limiting member (3122); The side panel (312) is provided with a second buckle (3123) and a second limiting member (3124), with a gap between the second buckle (3123) and the second limiting member (3124); the fan (330) is engaged between the second buckle (3123) and the second limiting member (3124).

10. The refrigerator according to claim 6, characterized in that, The fan (330) and the mounting bracket (310) are provided with a first sealing element (340); A second sealing element (350) is provided between the mounting bracket (310) and the top side and front and rear sides of the press chamber (102).

Images