Refrigerator

Abstract

A refrigerator, according to one aspect, comprises: a cabinet having a storage chamber; a door opening and closing the storage chamber; a plate assembly forming a machine room positioned outside the storage chamber; and a cooling unit provided in the machine room and having a compressor, a blowing fan, and a condenser, wherein the plate assembly includes: a bottom plate on which the cooling unit is seated, the bottom plate having air inlets formed to introduce air into the machine room and air outlets formed to discharge air from the machine room; and a barrier integrally formed with a wall between the air inlets and the air outlets on the bottom plate, or seated on the wall.

Description

refrigerator

[0001] This specification relates to a refrigerator.

[0002] A refrigerator is a home appliance that keeps food at a low temperature in an internal storage compartment enclosed by a door.

[0003] The above storage room is surrounded by an insulating wall so that the inside of the storage room is maintained at a temperature lower than the outside temperature. Depending on the temperature range of the storage room, the storage room may be referred to as a refrigerator or a freezer.

[0004] The above refrigerator includes a machine room, and the machine room may be provided with a part of a cooling unit that operates to cool the storage room.

[0005] The above cooling unit may include a compressor, a condenser, a blower fan located within the machine room, and an evaporator located outside the machine room.

[0006] During the operation of the above cooling unit, the temperature of the air exchanged with the condenser rises. The efficiency of the condenser and compressor can be improved only when the high-temperature air is smoothly discharged from the machine room.

[0007] If an air intake and an air outlet are formed at the rear of the machine room and the refrigerator is installed in a space with a small gap between the rear of the machine room and the wall facing it, there is a disadvantage in that the high-temperature air discharged from the rear exhaust port in the machine room is re-introduced into the rear intake port before it is sufficiently dissipated to the outside air, thereby lowering the cooling efficiency of the condenser and compressor.

[0008] As a related prior art document, there is Korean Patent Publication No. 2297419.

[0009] One embodiment provides a refrigerator in which air is smoothly drawn into a machine room and air is smoothly discharged from the machine room.

[0010] Alternatively or additionally, one embodiment provides a refrigerator in which air discharged from a machine room is reduced from being re-inhaled into the machine room.

[0011] Alternatively or additionally, one embodiment provides a refrigerator in which air drawn into the machine room is reduced from flowing directly to the discharge port without being heat-exchanged with the condenser.

[0012] Alternatively or additionally, one embodiment provides a refrigerator in which mixing of air to be drawn into a machine room and air discharged from the machine room is reduced.

[0013] A refrigerator according to one aspect may include a cabinet having a storage compartment; a door for opening and closing the storage compartment; a plate assembly forming a machine room located outside the storage compartment; and a cooling unit provided in the machine room.

[0014] The above cooling unit may include a compressor, a blower fan and a condenser.

[0015] The above plate assembly may include an air intake for drawing air into the machine room.

[0016] The above plate assembly may further include a bottom plate in which an air outlet is formed through which air in the machine room is discharged. The cooling unit may be mounted on the bottom plate.

[0017] The above plate assembly may further include a barrier.

[0018] The barrier may be formed integrally with a wall between the air intake and the air outlet in the bottom plate or may be mounted on the wall.

[0019] The above plate assembly may further include a front plate covering the cooling unit.

[0020] The above plate assembly may further include a sealing member provided between the barrier and the front plate.

[0021] The barrier may include a first wall that guides air sucked into the air intake toward the condenser.

[0022] The above barrier may further include a second wall that guides air flowing by the blower fan toward the air outlet.

[0023] The sealing member can contact each of the first wall and the second wall.

[0024] The barrier may further include a third wall connecting the first wall and the second wall. The sealing member may be in contact with the third wall.

[0025] In the Y-axis direction, which is the arrangement direction of the cabinet and the door, the first wall can overlap the condenser.

[0026] A flow restriction may be provided between the first wall and the condenser.

[0027] The above plate assembly may further include a front plate covering the cooling unit. An upper portion of the flow restriction may be in contact with the front plate.

[0028] The condenser may include a tube through which refrigerant flows and a header connected to the tube. The tube or the header may overlap the first wall in the Y-axis direction.

[0029] The above refrigerator may further include a fan housing in which the blower fan is accommodated.

[0030] In the Y-axis direction, the second wall and the fan housing may overlap, or the third wall and the fan housing may overlap.

[0031] A sealing member may be provided between the second wall and the fan housing, or a sealing member may be provided between the third wall and the fan housing.

[0032] The barrier may include a first surface that guides air drawn into the air intake port toward the condenser, a second surface that guides air flowed by the blower fan toward the air outlet port, and a third surface that connects the first surface and the second surface.

[0033] In the Y-axis direction, which is the arrangement direction of the cabinet and the door, the first surface can overlap with the condenser.

[0034] A flow restriction may be provided between the third surface and the condenser.

[0035] The barrier may include a first wall that guides air drawn in through the air intake port toward the condenser, and a second wall that guides air flowed by the blower fan toward the air outlet port. In the Y-axis direction, which is the arrangement direction of the cabinet and the door, the first wall may not overlap the condenser, and a flow restriction may be provided between the first wall and the condenser.

[0036] The refrigerator may further include a fan housing in which the blower fan is accommodated, and the barrier may further include a third wall connecting the first wall and the second wall. In the Y-axis direction, the second wall and the fan housing may overlap, or the third wall and the fan housing may overlap. A sealing member may be provided between the second wall and the fan housing, or a sealing member may be provided between the third wall and the fan housing.

[0037] The above refrigerator may further include a fan housing in which the blower fan is accommodated.

[0038] The barrier may include a first wall that guides air drawn into the air intake port toward the condenser, and a second wall that guides air flowed by the blower fan toward the air outlet port.

[0039] In the Y-axis direction, which is the arrangement direction of the cabinet and the door, the second wall may overlap the fan housing, and a sealing member may be provided between the second wall and the fan housing.

[0040] The barrier may further include a third wall connecting the first wall and the second wall.

[0041] The refrigerator may further include a fan housing in which the blower fan is accommodated, and the barrier may include a first wall that guides air drawn in through the air intake port toward the condenser, a second wall that guides air flowed by the blower fan toward the air outlet port, and a third wall connecting the first wall and the second wall. The third wall may overlap the fan housing in the Y-axis direction, which is the arrangement direction of the cabinet and the door. A sealing member may be provided between the third wall and the fan housing.

[0042] The third wall includes a third surface with which the sealing member contacts, a portion of the third surface can guide air flowing through the condenser, and another portion of the third surface can guide air flowing through the fan housing toward the compressor.

[0043] The second wall may be positioned closer to the fan housing than to the compressor.

[0044] The refrigerator may further include a support member that is mounted on the bottom plate and receives the defrost water. The support member may include a peripheral wall, and the peripheral wall may include a first portion positioned between the fan housing and the compressor.

[0045] The first portion may be positioned closer to the compressor than the second wall.

[0046] The above peripheral wall may further include a guide wall that guides air flowing through the third wall toward the compressor.

[0047] The second wall may be positioned closer to the compressor than the first portion.

[0048] The refrigerator may further include a fan housing in which the blower fan is accommodated, and the barrier may include a first surface that guides air sucked into the air intake port toward the condenser, a second surface that guides air flowed by the blower fan toward the air outlet, and a third surface that connects the first surface and the second surface.

[0049] In the Y-axis direction, which is the arrangement direction of the cabinet and the door, the third surface overlaps the fan housing and the condenser, and a sealing member may be provided between the third surface and the fan housing.

[0050] A flow restriction may be provided between the third surface and the condenser.

[0051] The above plate assembly may further include an air guide for guiding air sucked into the air intake port toward the condenser.

[0052] The above plate assembly may further include a support member having a condenser support portion for supporting the condenser. The air guide may extend from the support member toward the air intake.

[0053] According to another aspect, a refrigerator comprises: a cabinet having a storage compartment; a door for opening and closing the storage compartment; a plate assembly forming a machine room located outside the storage compartment; and a cooling unit provided in the machine room and having a compressor, a blower fan, and a condenser, wherein the plate assembly may include a bottom plate on which the cooling unit is mounted, an air intake for sucking air into the machine room, and an air outlet through which air of the machine room is discharged, and a barrier formed integrally with the bottom plate or mounted on the bottom plate, and dividing air sucked through the air intake port from air flowing toward the air outlet.

[0054] The barrier may include a first wall that guides air drawn in through the air intake port toward the condenser, a second wall that guides air flowed by the blower fan toward the air outlet port, and a third wall that connects the first wall and the second wall. In the Y-axis direction, which is the arrangement direction of the cabinet and the door, the first wall or the third wall may overlap the condenser.

[0055] According to another aspect, a refrigerator comprises: a cabinet having a storage compartment; a door for opening and closing the storage compartment; a plate assembly forming a machine room located outside the storage compartment; and a cooling unit provided in the machine room and having a compressor, a blower fan, and a condenser, wherein the plate assembly comprises: a bottom plate on which the cooling unit is mounted, an air intake for sucking air into the machine room, and an air outlet through which air of the machine room is discharged, and a barrier formed integrally with the bottom plate or mounted on the bottom plate, the barrier separating air sucked through the air intake port from air flowing toward the air outlet, and the blower fan can be accommodated in a fan housing.

[0056] The barrier includes a first wall that guides air drawn into the air intake port toward the condenser, a second wall that guides air flowed by the blower fan toward the air outlet, and a third wall that connects the first wall and the second wall, and in the Y-axis direction, which is the arrangement direction of the cabinet and the door, the third wall or the second wall may overlap the fan housing. At least a portion of the third wall may guide air flowing through the condenser toward the blower fan.

[0057] According to another aspect, a refrigerator comprises: a cabinet having a storage compartment; a door for opening and closing the storage compartment; a plate assembly forming a machine room located outside the storage compartment; and a cooling unit provided in the machine room and having a compressor, a blower fan, and a condenser, wherein the plate assembly may include a bottom plate on which the cooling unit is mounted, an air intake for sucking air into the machine room, and an air outlet through which air of the machine room is discharged, and a barrier formed integrally with the bottom plate or mounted on the bottom plate, the barrier dividing air sucked through the air intake port from air flowing toward the air outlet. The blower fan may be accommodated in a fan housing, and the barrier may include a first wall guiding air sucked through the air intake port toward the condenser, a second wall guiding air flowing by the blower fan toward the air outlet, and a third wall connecting the first wall and the second wall. A portion of the third wall may guide air flowing through the condenser toward the blower fan, and another portion of the third wall may guide air passing through the fan housing toward the compressor.

[0058] According to one embodiment, there is an advantage in that air is smoothly sucked into the machine room and air is smoothly discharged from the machine room.

[0059] In one embodiment, air discharged from the machine room can be reduced from being re-inhaled into the machine room.

[0060] In one embodiment, the air sucked into the machine room can be reduced from flowing directly to the discharge port without being heat-exchanged with the condenser.

[0061] In one embodiment, air passing through the condenser may be restricted from flowing directly between the fan housing and the barrier.

[0062] In one embodiment, air passing through the fan housing can be sufficiently guided toward the compressor side to improve heat dissipation performance.

[0063] In one embodiment, mixing of air to be sucked into the machine room and air discharged from the machine room can be reduced.

[0064] Fig. 1 (A) is a front view showing a part of the configuration of a refrigerator according to the first embodiment, and Fig. 1 (B) is a side view showing a part of the configuration of a refrigerator according to the first embodiment.

[0065] Figure 2 is a bottom view of a refrigerator according to the first embodiment.

[0066] Figure 3 is a cross-sectional view taken along line 3-3 of Figure 2.

[0067] Figure 4 is a cross-sectional view taken along line 4-4 of Figure 2.

[0068] Figure 5 is a perspective view of the plate assembly according to the first embodiment as viewed from above.

[0069] Figure 6 is a perspective view of the plate assembly according to the first embodiment as viewed from below.

[0070] Figure 7 is a side view of the plate assembly with the first side plate removed according to the first embodiment.

[0071] Figure 8 is a plan view of the plate assembly with the front plate removed according to the first embodiment.

[0072] Figures 9 and 10 are perspective views of the plate assembly with the front plate removed according to the first embodiment.

[0073] Fig. 11 is a perspective view of a bottom plate according to the first embodiment.

[0074] Fig. 12 is a perspective view of a front plate according to the first embodiment.

[0075] Fig. 13 is a cross-sectional view taken along line 13-13 of Fig. 10.

[0076] Fig. 14 is a cross-sectional view taken along line 14-14 of Fig. 10.

[0077] Fig. 15 is a drawing showing how air is introduced into a refrigerator according to the first embodiment.

[0078] Fig. 16 is a drawing showing air flow in a machine room according to the first embodiment.

[0079] Fig. 17 is a bottom view of a refrigerator according to the second embodiment.

[0080] FIG. 18(A) is a drawing showing a plate assembly according to a third embodiment, FIG. 18(B) is a drawing showing a plate assembly according to a first modified example of the third embodiment, and FIG. 18(C) is a drawing showing a plate assembly according to a second modified example of the third embodiment.

[0081] Fig. 19 (A) is a drawing showing a plate assembly according to the fourth embodiment, and Fig. 19 (B) is a drawing showing a plate assembly according to the first modified example of the fourth embodiment.

[0082] Figure 20 is a drawing showing a plate assembly according to the fifth embodiment.

[0083] FIG. 21 is a drawing showing a flow path between a plate assembly and a freezer according to the fifth embodiment.

[0084] FIG. 22(A) is a drawing showing a first modified example of the barrier in the first embodiment, FIG. 22(B) is a drawing showing a second modified example of the barrier in the first embodiment, and FIG. 22(C) is a drawing showing a third modified example of the barrier in the first embodiment.

[0085] Figure 23 (A) is a drawing showing a fourth modified example of the barrier in the first embodiment, and Figure 23 (B) is a drawing showing a fifth modified example of the barrier in the first embodiment.

[0086] Figure 24 is a drawing showing a sixth modified example of the barrier in the first embodiment.

[0087] Fig. 25 is a drawing showing a first modified example of a support member in the first embodiment.

[0088] Hereinafter, some embodiments of the present invention will be described in detail with reference to exemplary drawings. When designating components in each drawing, it should be noted that, where possible, identical components will be given the same reference numerals, even if they appear in different drawings. Furthermore, when describing embodiments of the present invention, detailed descriptions of related known structures or functions will be omitted if they are deemed to hinder understanding of the embodiments of the present invention.

[0089] Additionally, terms such as first, second, A, B, (a), (b), etc. may be used to describe components of embodiments of the present invention. These terms are only intended to distinguish the components from other components, and the nature, order, or sequence of the components are not limited by the terms. When it is described that a component is "connected," "coupled," or "connected" to another component, it should be understood that the component may be directly connected, coupled, or connected to the other component, but another component may also be "connected," "coupled," or "connected" between each component.

[0090] In this specification, at least one of component A and component B may be interpreted as including component A, or component B, or component A+B.

[0091] Additionally, at least one of component A or component B may be interpreted as including component A, or component B, or component A+B.

[0092] In this specification, the front of the door is a surface forming the front exterior of the refrigerator, and the rear of the door is a surface facing the cabinet or storage room.

[0093] Fig. 1 (A) is a front view showing a part of the configuration of a refrigerator according to the first embodiment, and Fig. 1 (B) is a side view showing a part of the configuration of a refrigerator according to the first embodiment.

[0094] Referring to FIG. 1, a refrigerator (1) according to the present embodiment may include a cabinet (10) forming a storage compartment and a door (20) for opening and closing the storage compartment.

[0095] The above storage room may include, for example, a refrigerator (11). The above storage room may further include a freezer (12).

[0096] The above door may include a refrigerator door (20) that opens and closes the refrigerator compartment (11). The above door may further include a freezer door (25) that opens and closes the freezer compartment (12).

[0097] The above refrigerator door (20) can be used as a single door to open and close the refrigerator (11), or two doors (21, 22) can be used to open and close the refrigerator (11).

[0098] The above freezer door (25) can be used as a single door to open and close the freezer (12), or two doors can be used to open and close the refrigerator (12).

[0099] The above refrigerator (1) may further include a machine room (30). The machine room (30) may be located adjacent to the freezer room (11), for example.

[0100] FIG. 2 is a bottom view of a refrigerator according to the first embodiment, FIG. 3 is a cross-sectional view taken along 3-3 of FIG. 2, and FIG. 4 is a cross-sectional view taken along 4-4 ​​of FIG. 2.

[0101] Referring to FIGS. 2 to 4, in the present embodiment, the refrigerator (1) may be installed independently in a kitchen or housed within an indoor furniture cabinet (or wall) (hereinafter collectively referred to as a "furniture cabinet"). When the refrigerator (1) is installed within an indoor furniture cabinet, the refrigerator (1) may be installed alone or arranged left and right together with other refrigerators.

[0102] When the refrigerator (1) is installed in the above-mentioned cabinet, the refrigerator (1) may be accommodated in the cabinet with the cabinet (10) present. Alternatively, the refrigerator (1) may be accommodated in the cabinet with at least a portion of the cabinet (10) removed.

[0103] The machine room (30) may include a space where a cooling unit (50) is located. The machine room (30) may include at least a portion of the cooling unit (50). The machine room (30) may further include a plate assembly (40) on which the cooling unit (50) is installed.

[0104] According to another aspect, the space formed by the above plate assembly (40) can also be called a machine room (30).

[0105] In this specification, the upper surface, lower surface, side surface, front surface, and rear surface of the plate assembly (40) can be understood to mean the upper surface, lower surface, side surface, front surface, and rear surface of the machine room (30).

[0106] A portion of the above plate assembly (40) may form the exterior of the refrigerator (1). Although not limited, the plate assembly (40) may form a portion of the lower surface of the refrigerator (1). The plate assembly (40) may form a portion of the rear surface of the refrigerator (1).

[0107] The above plate assembly (40) may include an air intake port (401) through which air is sucked into the machine room (30). The above plate assembly (40) may include an air discharge port (403) through which air from the machine room (30) is discharged.

[0108] The plate assembly (40) may include a bottom plate (or first plate) (400). The bottom plate (400) may form at least a portion of the lower exterior of the refrigerator (1). The plate assembly (40) may further include a rear plate (or second plate (430). The plate assembly (40) may include a front plate (or top plate or third plate) (480).

[0109] In this embodiment, the air intake port (401) and the air outlet port (403) may be located, for example, on the lower side of the plate assembly (40). For example, the air intake port (401) and the air outlet port (403) may be provided on the bottom plate (400).

[0110] The above air intake port (401) and the above air outlet port (403) may be arranged in the X-axis direction, for example.

[0111] In this specification, the Y-axis direction is the arrangement direction of the door (20, 25) and the cabinet (10), and may be, for example, the front-back direction of the refrigerator (1). The X-axis direction is a direction that intersects the Y-axis direction in a horizontal direction, and may be, for example, the left-right direction of the refrigerator (1). The Z-axis direction is a direction that intersects the Y-axis direction in a vertical direction, and may be, for example, the up-down direction of the refrigerator (1).

[0112] The above air intake port (401) may be composed of a plurality of first openings. The above air outlet port (403) may be composed of a plurality of second openings.

[0113] Each of the plurality of first openings may be arranged to be elongated in the Y-axis direction and spaced apart from each other in the X-axis direction. Each of the plurality of second openings may be arranged to be elongated in the Y-axis direction and spaced apart from each other in the X-axis direction.

[0114] The number of the plurality of first openings may be different from the number of the plurality of second openings. For example, the number of the plurality of second openings may be greater than the number of the plurality of first openings.

[0115] The flow path area of ​​the air intake port (401) may be different from the flow path area of ​​the air outlet port (403). For example, the flow path area of ​​the air outlet port (403) may be larger than the flow path area of ​​the air intake port (401).

[0116] The X-axis direction width (W1) of the air intake port (401) may be different from the X-axis direction width (W2) of the air outlet port (403). For example, the X-axis direction width (W2) of the air outlet port (403) may be larger than the X-axis direction width (W1) of the air intake port (401).

[0117] At least a portion of the cooling unit (50) may be installed on the bottom plate (400). At least a portion of the air intake (401) may be positioned forward of at least a portion of the cooling unit (50). In the present specification, the front of the cooling unit (50) may be a direction from the cooling unit (50) toward the freezer door (25).

[0118] At least a portion of the air outlet (403) may be positioned forward of at least a portion of the cooling unit (50). At least a portion of the air intake (401) may be positioned between at least a portion of the cooling unit (50) and the freezer door (25).

[0119] At least a portion of the air outlet (403) may be positioned between at least a portion of the cooling unit (50) and the freezer door (25).

[0120] The air intake (401) may include a first end (401a) and a second end (401b) positioned opposite the first end (401a). The first end (401a) and the second end (401b) may be arranged in the Y-axis direction. The first end (401a) may be positioned closer to the freezer door (25) than the second end (401b).

[0121] The above air intake (401) may include a portion positioned closer to the freezer door (25) than the rear of the plate assembly (40).

[0122] For example, the first end (401a) of the air intake (401) may be positioned closer to the freezer door (25) than the rear plate (430).

[0123] The distance (distance in the Y-axis direction) (D1) from the first end (401a) to the front of the cabinet (10) may be equal to or similar to the distance (distance in the Y-axis direction) from the second end (401b) to the rear plate (430). D1 may be smaller than D2. Even if D1 is larger than D2, the difference between D1 and D2 may be smaller than the Y-axis direction length (D5) of the air intake (401).

[0124] The distance (distance in the Y-axis direction) from the first end (401a) to the rear plate (430) may be greater than the distance (distance in the Y-axis direction) (D1) from the first end (401a) to the front of the cabinet (10).

[0125] According to this arrangement, the length of the first opening forming the air intake port (401) can be increased, thereby increasing the intake area.

[0126] The above air outlet (403) may include a first end (403a) and a second end (403b) located opposite the first end (403a). The first end (403a) and the second end (403b) may be arranged in the Y-axis direction.

[0127] The first end (403a) may be positioned closer to the freezer door (25) than the second end (403b).

[0128] The above air outlet (403) may include a portion positioned closer to the freezer door (25) than the rear of the plate assembly (40).

[0129] For example, the first end (403a) may be positioned closer to the freezer door (25) than the rear plate (430).

[0130] The distance (distance in the Y-axis direction) (D3) from the first end (403a) to the front of the cabinet (10) may be equal to or similar to the distance (distance in the Y-axis direction) (D4) from the second end (403b) to the rear plate (430). D3 may be smaller than D4. Even if D3 is larger than D4, the difference between D3 and D4 may be smaller than the Y-axis direction length (D6) of the air outlet (403).

[0131] The distance (distance in the Y-axis direction) from the first end (403a) to the rear plate (430) may be greater than the distance (distance in the Y-axis direction) (D3) from the first end (403a) to the front of the cabinet (10).

[0132] According to this arrangement, the length of the second opening forming the air discharge port (403) can be increased, thereby increasing the discharge area.

[0133] The front plate (480) may include a portion positioned in front of the air intake port (401) or the air outlet port (403). For example, the front plate (480) may include a portion positioned between the air intake port (401) and the freezer door (25).

[0134] The above front plate (480) may include a portion positioned between the air outlet (403) and the freezer door (25).

[0135] A cabinet base (110) may be coupled to a portion of the front plate (480). The cabinet base (110) may be positioned between the freezer door (25) and the bottom plate (400).

[0136] Meanwhile, the freezing chamber (12) may be formed by an inner case (120). The inner case (120) may be positioned within the cabinet (10). At least a portion of the inner case (120) may be spaced apart from the cabinet (10), and an insulating material may be provided between the inner case (120) and the cabinet (10). An insulating material may also be provided between the inner case (120) and the front plate (480). An insulating material may also be provided between the inner case (120) and the cabinet base (110). The insulating material may be formed by curing a foaming liquid or may be a vacuum insulator.

[0137] The inner case (120) may include a first case (121) forming the lower surface of the freezer (12). The inner case (120) may include a second case (122) forming the rear surface of the freezer (12). The inner case (120) may further include a third case (123) (or connecting case) connecting the first case (121) and the second case (122).

[0138] A portion of the above front plate (480) may overlap with the first case (121) in the Z-axis direction.

[0139] The above air intake (401) may include a portion that overlaps with the first case (121) in the Z-axis direction. For example, the first end (401a) of the air intake (401) may overlap with the first case (121) in the Z-axis direction.

[0140] The above air outlet (403) may include a portion that overlaps with the first case (121) in the Z-axis direction. For example, the first end (403a) of the air outlet (403) may overlap with the first case (121) in the Z-axis direction.

[0141] The cooling unit (50) may include a blower fan (530) and a condenser (560). The front plate (480) may include a portion covering the upper side of the blower fan (530) and the condenser (560). The front plate (480) may include a portion positioned in front of the blower fan (530) and the condenser (560). The blower fan (530) may be accommodated in a fan housing (540).

[0142] The bottom plate (400) may be provided with a support member (420). The support member (420) may be mounted on the bottom plate (400). The support member (420) may accommodate water, etc. The support member (420) may be provided with a housing support member (422) that supports the fan housing (540).

[0143] The above plate assembly (40) may further include a barrier (60). The barrier (60) may restrict air sucked into the air intake port (401) from flowing directly to the air outlet port (403).

[0144] The above barrier (60) may overlap with the fan housing (540) in the Y-axis direction. The barrier (60) may be provided with a sealing member (65). The sealing member (65) may be in contact with the front plate (480). Therefore, the air sucked into the air intake port (401) may be restricted from flowing between the barrier (60) and the front plate (480).

[0145] Below, the plate assembly (40) will be described in more detail.

[0146] Fig. 5 is a perspective view of the plate assembly according to the first embodiment as viewed from above, and Fig. 6 is a perspective view of the plate assembly according to the first embodiment as viewed from below. Fig. 7 is a side view of the plate assembly according to the first embodiment with the first side plate removed, and Fig. 8 is a plan view of the plate assembly according to the first embodiment with the front plate removed. Figs. 9 and 10 are perspective views of the plate assembly according to the first embodiment with the front plate removed.

[0147] Fig. 11 is a perspective view of a bottom plate according to the first embodiment, and Fig. 12 is a perspective view of a front plate according to the first embodiment.

[0148] Referring to FIGS. 5 to 12, the plate assembly (40) may include a bottom plate (400), a rear plate (430), and a front plate (480).

[0149] The above plate assembly (40) may further include a first side plate (440) and a second side plate (450).

[0150] The first side plate (440) can be combined with one or more of the bottom plate (400), the rear plate (430), and the front plate (480). The second side plate (450) can be combined with one or more of the bottom plate (400), the rear plate (430), and the front plate (480).

[0151] A portion of the front plate (480) may be positioned between the first side plate (440) and the second side plate (450).

[0152] The above bottom plate (400) may include a first member (411a). The first member (411a) may be provided with the air intake port (401) and the air outlet port (403). Alternatively, the air intake port (401) may be formed in one member, and the air outlet port (403) may be formed in another member, as different members.

[0153] The bottom plate (400) may further include a second member (411b) extending from the first member (411a). The second member (411b) may extend from the first member (411a) in a direction away from the freezer door (25).

[0154] A recessed portion (410) may be formed in the second member (411b). A compressor mounting portion (412) on which a compressor (510), which is a component of the cooling unit (50), is mounted may be provided in the recessed portion (410). The support member (420) may be mounted in the recessed portion (410).

[0155] The first member (411a) may be provided with the barrier (60). The barrier (60) may be formed integrally with the bottom plate (400) or may be coupled to the bottom plate (400).

[0156] The above barrier (60) can be positioned between the air intake port (401) and the air outlet port (403) in the first member (411a).

[0157] The above barrier (60) may be formed by a single wall or by a plurality of walls.

[0158] For example, the barrier (60) may include a first wall (602) and a second wall (604). The first wall (602) and the second wall (604) may be arranged in the X-axis direction. The first wall (602) and the second wall (604) may include a portion whose height decreases from the second member (411b) side toward the freezer door (25).

[0159] The barrier (60) may further include a third wall (606) connecting the first wall (602) and the second wall (604). The third wall (606) may be located at a boundary between the first member (411a) and the second member (411b).

[0160] The barrier (60) may be provided with a sealing member (65). A portion of the sealing member (65) may be positioned on the upper side of the first wall (602). Another portion of the sealing member (65) may be positioned on the upper side of the second wall (604). Another portion of the sealing member (65) may be positioned on the upper side of the third wall (606).

[0161] The sealing member (65) may include a portion that comes into contact with the first member (411a). Alternatively, the barrier (60) may further include a fourth wall connecting the first wall (602) and the second wall (604). The fourth wall may be positioned adjacent to the first end (401a) of the air intake port (401) or the first end (403a) of the air outlet port (403a). The sealing member (65) may include a portion that comes into contact with the fourth wall.

[0162] As another example, it is also possible for a single wall, such as a first wall or a second wall, to be positioned between the air intake port (401) and the air outlet port (403).

[0163] In any case, the barrier (60) may include a first surface (602a), a second surface (604a) spaced apart from the first surface (602a), and a third surface (606a) connecting the first surface (602a) and the second surface (604a).

[0164] The first surface (602a) can guide air sucked through the air intake port (401). The second surface (604a) can guide air to be discharged toward the air discharge port (403). The third surface (606a) can guide air flowing through the condenser (560) toward the blower fan (530). The third surface (606a) can guide air passing through the fan housing (540) toward the compressor (510).

[0165] The front plate (480) may include a first part (482). The first part (482) may be positioned above the compressor (510) and the condenser (560).

[0166] The front plate (480) may further include a second part (484). The second part (484) may extend away from the first part (482) toward the rear plate (430).

[0167] The front plate (480) may further include a third part (486). The third part (486) may extend away from the first part (482) in the second part (484).

[0168] The third part (486) may be positioned in front of the air intake port (401) and the air outlet port (403). Referring to FIGS. 3 and 12, the third part (486) may overlap the first case (121) in the Z-axis direction.

[0169] The second part (484) can connect the first part (482) and the third part (486) with different heights. The second part (484) can have the same slope as a whole or can include two sections (484a, 484b) with different slopes.

[0170] The sum (L2) of the Y-axis direction lengths of the second part (484) and the third part (486) may be greater than the Y-axis direction length (L1) of the first part (482).

[0171] The second part (484) can overlap with the barrier (60) in the Z-axis direction. The second part (484) can come into contact with the sealing member (65).

[0172] The front plate (480) may further include an extension portion (487) extending from the third part (486). The extension portion (487) may extend from the third part (486) in a direction away from the freezer door (25). The extension portion (487) may be coupled with the bottom plate (400).

[0173] The first side plate (440) may include a portion whose height decreases from the rear plate (430) toward the freezer door (25), corresponding to the shape of the front plate (480).

[0174] The second side plate (450) may include a portion whose height decreases from the rear plate (430) toward the freezer door (25), corresponding to the shape of the front plate (480).

[0175] The cooling unit (50) may further include a compressor (510). The compressor (510) may be positioned adjacent to the air outlet (403). The condenser (560) may be positioned adjacent to the air intake (401). The blower fan (530) may be positioned between the compressor (510) and the condenser (560).

[0176] The condenser (560) may be positioned adjacent to the first side plate (440). The compressor (510) may be positioned adjacent to the second side plate (450).

[0177] The condenser (560) may include a first portion (562). The first portion (562) may be positioned closer to the air intake (401) than the rear plate (430).

[0178] The above condenser (560) may further include a second part (562). The first part (562) and the second part (564) may be arranged in the Y-axis direction.

[0179] The second part (564) may be positioned between the first part (562) and the rear plate (430).

[0180] The condenser (560) may further include a third portion (566). The third portion (566) may connect the first portion (562) and the second portion (564). The third portion (566) may include a portion facing the first side plate (440).

[0181] In the present embodiment, the condenser (560) may include a tube (560a) including a plurality of refrigerant channels, and headers (560b, 560c) connected to the tubes (560a). The plurality of tubes may be arranged in the Z-axis direction. The plurality of tubes (560a) may be connected to the headers (560b, 560c).

[0182] The above headers (560b, 560c) may include a first header (560b) connected to the first part (562) and a second header (560c) connected to the second part (564).

[0183] The condenser (560) may have, for example, a shape like "⊂". Depending on the case, the arrangement of the condenser (560) may vary. For example, the condenser (560) may be arranged in a shape like "⊃", the condenser (560) may be arranged in a shape like "∪", or the condenser (560) may be arranged in a shape like "∩".

[0184] As another example, it is also possible for the condenser (560) to have a shape like "┗". For example, it is also possible for the condenser (560) to include only the first part (562) and the third part (566) in FIG. 8 ("┗" shape). Alternatively, it is also possible for the condenser (560) to include only the first part (562) and the third part (566) in FIG. 8, but for the third part (566) to be positioned adjacent to the blower fan (530) ("┛" shape).

[0185] Alternatively, the condenser (560) may include only the second part (564) and the third part (566) (in the form of "┏"). However, in this case, the shape or position of the second part (564) or the third part (566) may be changed so as to secure heat exchange performance. Alternatively, the condenser (560) may include only the second part (564) and the third part (566) in FIG. 8, but the third part (566) may be positioned adjacent to the blower fan (530) (in the form of "┓"). However, in this case, the shape or position of the second part (564) or the third part (566) may be changed so as to secure heat exchange performance.

[0186] Alternatively, the condenser (560) may be a general fin tube type condenser. That is, in the present embodiment, there is no limitation on the shape of the condenser (560), and it is to be noted that various shapes of condensers can be applied.

[0187] The fan housing (540) may overlap with the barrier (60) in the Y-axis direction. A sealing member (550) may be provided on the outside of the fan housing (540). The sealing member (550) may restrict air sucked into the air intake port (401) from flowing between the fan housing (540) and the front plate (480).

[0188] The above machine room (30) may be equipped with a flow restriction member (590). The flow restriction member (590) may be positioned, for example, between the condenser (560) and the barrier (60).

[0189] The above flow restriction member (590) may be positioned between the first part (562) of the condenser (560) and the barrier (60). The flow restriction member (590) may include a portion that contacts the barrier (60).

[0190] At least a portion of the first wall (602) may overlap the tube (560a) in the Y-axis direction. The first wall (602) may be spaced apart from the tube (560a), and the flow restriction (590) may be positioned between the first wall (602) and the tube (560a).

[0191] At least a portion of the first wall (602) may overlap the first portion (562) of the condenser (560) in the Y-axis direction. At least a portion of the first wall (602) may overlap the second header (560c) in the Y-axis direction.

[0192] Alternatively, at least a portion of the third surface (606a) may overlap the tube (560a) in the Y-axis direction. The third surface (606a) may be spaced apart from the tube (560a), and the flow restriction (590) may be positioned between the third surface (606a) and the tube (560a).

[0193] By the above flow restriction member (590), the air sucked into the air intake port (401) can be restricted from flowing between the first part (562) and the barrier (60). That is, the air sucked into the air intake port (401) can be restricted from flowing toward the compressor (510) without heat exchange with the condenser (560).

[0194] The upper end of the flow restriction member (590) may be positioned higher than the upper end of the barrier (60). The flow restriction member (590) may be in contact with the front plate (480). For example, the flow restriction member (590) may be in contact with at least one of the first part (482) and the second part (484).

[0195] The above flow restriction member (590) can overlap with the sealing member (550) in the X-axis direction. The above flow restriction member (590) can overlap with the fan housing (540) in the X-axis direction.

[0196] Fig. 13 is a cross-sectional view taken along line 13-13 of Fig. 10, and Fig. 14 is a cross-sectional view taken along line 14-14 of Fig. 10.

[0197] Referring to FIGS. 9, 10, 13 and 14, the support member (420) can be accommodated in the recessed portion (410) of the bottom plate (400).

[0198] The above support member (420) may include a base (421) that is mounted on the recessed portion (410). The above support member (420) may further include a peripheral wall (423) extending from the periphery of the base (421).

[0199] The peripheral wall (423) may include a first portion (423a) positioned between the fan housing (540) and the compressor (510). The first portion (423a) may be positioned closer to the compressor (510) than the second wall (604).

[0200] The peripheral wall (423) may further include a guide wall (425) that guides air flowing through the third wall (606) past the fan housing (540) toward the compressor (510). The guide wall (425) may extend upward from the peripheral wall (423). At least a portion of the guide wall (425) may be positioned closer to the compressor (510) than, for example, the second wall (604).

[0201] The above guide wall (425) can also support other parts or support a connecting part that supports other parts.

[0202] A housing support (422) may extend upward from the base (421). A condenser support (424) may extend upward from the base (421). The condenser support (424) may include a portion identical to or similar to the arrangement of the condenser (560).

[0203] The above support member (420) may further include an air guide (426). The air guide (426) may guide air sucked into the air intake (401) toward the condenser (560).

[0204] The air guide (426) may be formed integrally with the support member (420) or may be coupled to the support member (420). The air guide (426) may be inclined downward from the upper end of the peripheral wall (423) toward the air intake (401). The air guide (426) may be mounted on the bottom plate (400). For example, the air guide (426) may be in contact with the first member (411a).

[0205] The sealing member (550) may include a portion provided between the fan housing (540) and the first part (482). The sealing member (550) may include a portion positioned between the fan housing (540) and the second part (484). The sealing member (550) may include a portion (552) positioned between the fan housing (540) and the barrier (60).

[0206] The sealing member (550) may be in contact with the barrier (60). The sealing member (550) may be in contact with the third wall (606), for example. The sealing member (550) may be in contact with the third surface (606a).

[0207] Accordingly, by the sealing member (550), the air sucked into the air intake port (401) can be restricted from flowing between the fan housing (540) and the barrier (60).

[0208] FIG. 15 is a drawing showing air flowing into a refrigerator according to the first embodiment, and FIG. 16 is a drawing showing air flow in a machine room according to the first embodiment.

[0209] Referring to FIGS. 1 to 16, when the refrigerator (1) is placed on the floor (F), the bottom plate (400) can be spaced apart from the floor (F). Accordingly, the air intake port (401) and the air outlet port (403) can be spaced apart from the floor (F).

[0210] When the above refrigerator (1) is installed inside the above cabinet (P), the space between the refrigerator (1) and the inside of the cabinet (P) is narrow.

[0211] Since an opening (P1) is formed in the front of the above-mentioned furniture (P), when the air intake port (401) and the air outlet port (403) are formed in the bottom plate (400) as in the present embodiment, the distance between the air intake port (401) and the opening (P1) of the above-mentioned furniture (P) and the distance between the air outlet port (403) and the opening (P1) of the above-mentioned furniture (P) can be reduced.

[0212] Accordingly, the air outside the furniture (P) can smoothly flow into the air intake port (401). In addition, the air discharged from the air discharge port (403) can smoothly flow outside the furniture (P).

[0213] The air flow in the above machine room (30) is described.

[0214] The air inside the above-mentioned furniture (P) can be introduced into the machine room (30) through the air intake (401).

[0215] Some of the air sucked into the air intake (401) may be guided toward the condenser (560) by the first side plate (440).

[0216] Some of the air sucked into the air intake (401) may be guided toward the condenser (560) by the first surface (602a) of the barrier (60). For example, the air may be guided by the first wall (602) of the barrier (60).

[0217] Some of the air sucked into the air intake (401) may be guided toward the condenser (560) by the front plate (480). For example, the air may be guided by the second part (484).

[0218] Some of the air sucked into the air intake port (401) may be guided by the air guide (426). For example, the air around the second end (401b) of the air intake port (401) may be guided by the air guide (426).

[0219] The air introduced into the machine room (30) may increase in temperature as it exchanges heat with the condenser (560). A portion of the third surface (606a) may guide the air passing through the condenser (560) toward the blower fan (530).

[0220] The high temperature air that has exchanged heat with the condenser (560) may flow toward the compressor (510) by the blower fan (530). For example, the high temperature air may flow toward the compressor (510) by passing through the fan housing (540).

[0221] Another part of the third surface (606a) can guide air passing through the fan housing (540) toward the compressor (510).

[0222] The high temperature air flowing toward the compressor (510) can be discharged to the outside of the machine room (30) through the air discharge port (403).

[0223] According to this embodiment, the air sucked into the machine room (30) can be restricted from flowing directly toward the air discharge port (403) by bypassing the condenser (60) by the barrier (60).

[0224] Additionally, the flow of high temperature air toward the air intake port (401) before it is discharged through the air outlet port (403) can be restricted by the barrier (60).

[0225] The flow of the sucked air toward the air outlet (403) by bypassing the condenser (560) can be restricted by the flow restriction (590) between the barrier (60) and the condenser (560). Therefore, the heat exchange performance of the condenser (560) can be prevented from deteriorating.

[0226] The flow of air between the fan housing (540) and the barrier (60) can be restricted by a sealing member (550) between the barrier (60) and the fan housing (540).

[0227] Some of the high-temperature air may be guided toward the air outlet (403) by the second surface (604a) of the barrier (60). For example, the high-temperature air may be guided by the second wall (604) of the barrier (60).

[0228] The second wall (604) may be positioned closer to the fan housing (540) than to the compressor (510). This may reduce the reduction in the flow rate of air flowing into the air outlet (403).

[0229] Accordingly, since the high-temperature air passes through the air outlet (403) while being guided by the barrier (60), not only can it smoothly pass through the air outlet (403), but the air passing through the air outlet (403) can also smoothly flow toward the opening (P1) of the furniture (P).

[0230] Accordingly, the high temperature air discharged from the air discharge port (403) can be reduced from being re-introduced into the machine room (30) through the air intake port (401).

[0231] As a result, air intake and air discharge can be smoothly performed within the machine room (30), and high-temperature air can be minimized from being sucked into the machine room (30). Accordingly, there is an advantage in that the condensation performance of the condenser (560) and the compression performance of the compressor (510) can be maintained.

[0232] Fig. 17 is a bottom view of a refrigerator according to the second embodiment.

[0233] This embodiment is otherwise identical to the first embodiment, except that it includes an additional partition member. Therefore, only the characteristic parts of this embodiment will be described below, and the same drawing reference numerals will be used for the same components as the first embodiment.

[0234] Referring to Fig. 17, the refrigerator of the present embodiment may further include a partition member (70). The partition member (70) may be located at the lower side of the refrigerator.

[0235] The above partition member (70) may be positioned on the lower side of the plate assembly (40). For example, the above partition member (70) may be installed or coupled to the bottom plate (400).

[0236] The above partition member (70) can limit mixing of air sucked into the air intake port (401) and air discharged from the air discharge port (403).

[0237] For example, the partition member (70) may include a first partition portion (710). The first partition portion (710) may extend in the Y-axis direction.

[0238] The above first compartment (710) can be located in an area corresponding to the area between the air intake port (401) and the air outlet port (403) in the bottom plate (400).

[0239] The first end (711) of the first compartment (710) may be positioned adjacent to the freezer door (25). The second end (712) of the first compartment (710) may be positioned opposite the first end (711) and may be adjacent to or in contact with the recessed portion (410) of the bottom plate (400).

[0240] The first end (711) of the first compartment (710) may be positioned closer to the freezer door (25) than at least one of the air intake port (401) and the air outlet port (403).

[0241] The first end (711) of the first compartment (710) may be positioned closer to the freezer door (25) than the third part (486) of the front plate (480).

[0242] The second end (712) may be positioned closer to the air outlet (403) than the air intake (401). The first end (711) may be positioned closer to the air outlet (403) than the air intake (401).

[0243] The above first section (710) may be inclined in a direction away from the air intake (401) as it moves from the second end (712) to the first end (711).

[0244] Therefore, the distance (W3) from the first end (711) to the first side end (11a) of the cabinet (10) may be greater than the distance (W4) from the first end (711) to the second side end (11b) of the cabinet (10).

[0245] In the present embodiment, the mixing of air sucked into the air intake port (401) and air discharged from the air discharge port (403) can be minimized by the first compartment (710).

[0246] In addition, there is an advantage in that the air discharged from the air discharge port (403) can be guided toward the opening (P1) of the furniture (P) by the first compartment (710).

[0247] The above-described partition member (70) may include a second partition portion (720). The second partition portion (720) may extend from the second end (712) of the first partition portion (710). The second partition portion (720) may extend, for example, in the X-axis direction.

[0248] The above second compartment (720) can extend from the second end (712) in a direction closer to the air outlet (403).

[0249] The second compartment (720) may be positioned adjacent to the second end (403b) of the air outlet (403). The second compartment (720) may be in contact with or adjacent to the recessed portion (410).

[0250] The lower end of the second compartment (720) may be positioned lower than the bottom of the recessed portion (410). Therefore, the second compartment (720) may restrict the air discharged from the air discharge port (403) from flowing toward the rear of the refrigerator.

[0251] In the present embodiment, the second compartment (720) may be formed integrally with or combined with the first compartment (710). Alternatively, the second compartment (720) may be omitted by adjusting the height of the recessed portion (410). Alternatively, the second compartment (720) may be provided on the lower surface of the recessed portion (410) as a separate component from the first compartment (710).

[0252] FIG. 18(A) is a drawing showing a plate assembly according to a third embodiment, FIG. 18(B) is a drawing showing a plate assembly according to a first modified example of the third embodiment, and FIG. 18(C) is a drawing showing a plate assembly according to a second modified example of the third embodiment.

[0253] This embodiment is otherwise identical to the first or second embodiment, except for differences in the air intake and air outlet. Therefore, only the characteristic parts of this embodiment will be described below, and the same drawing reference numerals will be used for the same components as the previous embodiment.

[0254] Referring to (A) of FIG. 18, in one embodiment, an air intake port (401) and an air outlet port (403) may be formed on the lower side of the plate assembly (40).

[0255] Additionally, the plate assembly (40) may further include a rear intake port (402). The rear intake port (402) may be provided on the rear plate (430).

[0256] The air existing in the space between the rear of the above-mentioned furniture and the above-mentioned refrigerator can be sucked into the machine room (30) through the rear suction port (402).

[0257] Referring to (B) of FIG. 18, in one embodiment, an air intake port (401) and an air outlet port (403) may be formed on the lower side of the plate assembly (40).

[0258] Additionally, the plate assembly (40) may further include a rear intake (402) and a side intake (402a).

[0259] The rear suction port (402) may be provided in the rear plate (430). The side suction port (402a) may be provided in the first side plate (440).

[0260] Air existing in the space between the rear of the above-mentioned furniture and the refrigerator can be sucked into the machine room (30) through the rear suction port (402), and air existing in the space between the above-mentioned furniture and the side of the refrigerator can be sucked into the machine room (30) through the side suction port (402a).

[0261] Referring to (C) of FIG. 18, in one embodiment, an air intake port (401) and an air outlet port (403) may be formed on the lower side of the plate assembly (40).

[0262] Additionally, the plate assembly (40) may further include a rear intake port (402) and a side exhaust port (404).

[0263] The rear intake port (402) may be provided on the rear plate (430). The side outlet port (404) may be provided on the second side plate (450).

[0264] Air existing in the space between the rear of the above-mentioned furniture and the refrigerator can be sucked into the machine room (30) through the rear intake port (402), some of the air in the machine room (30) can be discharged from the machine room (30) through the side outlet port (404), and another part can be discharged from the machine room (30) through the air outlet port (403).

[0265] Fig. 19 (A) is a drawing showing a plate assembly according to the fourth embodiment, and Fig. 19 (B) is a drawing showing a plate assembly according to the first modified example of the fourth embodiment.

[0266] This embodiment is otherwise identical to the first or second embodiment, except for differences in the air intake and air outlet. Therefore, only the characteristic parts of this embodiment will be described below, and the same drawing reference numerals will be used for the same components as the previous embodiment.

[0267] Referring to (A) of FIG. 19, in one embodiment, an air intake port (401) and an air outlet port (403) may be formed on the lower side of the plate assembly (40).

[0268] Additionally, the plate assembly (40) may further include a side intake port (402a). The side intake port (402a) may be provided on the first side plate (440).

[0269] The air existing in the space on the side of the above-mentioned furniture and the above-mentioned refrigerator can be sucked into the machine room (30) through the side intake port (402a).

[0270] Referring to (B) of FIG. 19, in one embodiment, an air intake port (401) and an air outlet port (403) may be formed on the lower side of the plate assembly (40).

[0271] Additionally, the plate assembly (40) may further include a side discharge port (404). The side discharge port (404) may be provided on the second side plate (450).

[0272] Some of the air in the machine room (30) may be discharged from the machine room (30) through the side discharge port (404), and another part may be discharged from the machine room (30) through the air discharge port (403).

[0273] As another example, it is also possible for a side intake port (402a) to be formed in the first side plate (440) and a side discharge port (404) to be formed in the second side plate (440).

[0274] Fig. 20 is a drawing showing a plate assembly according to the fifth embodiment. Fig. 21 is a drawing showing a flow path between the plate assembly and the freezer according to the fifth embodiment.

[0275] This embodiment is otherwise identical to the first or second embodiment, except for differences in the air intake and air outlet. Therefore, only the characteristic parts of this embodiment will be described below, and the same drawing reference numerals will be used for the same components as the previous embodiment.

[0276] Referring to FIG. 2O and FIG. 21, in the present embodiment, an air intake port (401) and an air outlet port (403) may be formed on the lower side of the plate assembly (40).

[0277] Additionally, the plate assembly (40) may further include an upper surface suction port (401a) and an upper surface discharge port (403a).

[0278] The upper surface suction port (401a) and the upper surface discharge port (403a) may be formed on the front plate (480). For example, the upper surface suction port (401a) and the upper surface discharge port (403a) may be formed on the first part (482).

[0279] A passage (406) for air flow may be formed between the plate assembly (40) and the freezer (12). The passage (406) may be formed by a separate duct or may be formed by the plate assembly (40) and a portion of the inner case (120).

[0280] The above-described flow path (406) may include a first opening (401b). The first opening (401b) may be formed in the front plate (480) or in the cabinet base (110). The above-described flow path (406) may optionally or additionally include a second opening (405). The second opening (405) may be formed in the rear plate (430) or in the cabinet (10).

[0281] As another example, the plate assembly (40) includes an upper surface intake port (401a) and an upper surface discharge port (403a), but the air intake port (401) and air discharge port (403) formed in the bottom plate (400) may be omitted.

[0282] In this specification, the applicable positions of the air intake and air outlet can be determined as follows.

[0283] First, the air intake can be located on the bottom, side, rear, or top of the plate assembly.

[0284] Alternatively, the air intakes may be located on the bottom and sides of the plate assembly, on the bottom and rear, or on the bottom and top.

[0285] Alternatively, the air intakes may be located on the side and rear of the plate assembly, on the side and top, or on the rear and top.

[0286] Alternatively, the air intake may be located on the bottom, side, and rear surfaces of the plate assembly, or may be located on the bottom, side, and upper surfaces of the plate assembly, or may be located on the bottom, side, and upper surfaces of the plate assembly, or may be located on the side, rear, and upper surfaces of the plate assembly. Alternatively, the air intake may be located on the bottom, side, rear, and upper surfaces of the plate assembly.

[0287] Apart from the various locations of the air intake, the air outlet may be located on the lower surface, side surface, or upper surface of the plate assembly.

[0288] Alternatively, the air outlet may be located on the lower surface and side surface of the plate assembly, on the lower surface and upper surface of the plate assembly, on the side surface and upper surface of the plate assembly, or on the lower surface, side surface and upper surface of the plate assembly.

[0289] In the case of the present invention, it is to be noted that all cases (105 cases) that can be derived by combining the embodiments (15 cases) for the location of the air intake port and the embodiments (7 cases) for the location of the air outlet port can be included.

[0290] FIG. 22 (a) is a drawing showing a first modified example of the barrier in the first embodiment, FIG. 22 (b) is a drawing showing a second modified example of the barrier in the first embodiment, and FIG. 22 (c) is a drawing showing a third modified example of the barrier in the first embodiment.

[0291] The modified examples of the barrier described below have the same basic form as the barrier of the first embodiment, but differ in size, length, arrangement, etc. Therefore, only the characteristic parts of each modified example will be described below, and the same drawing reference numerals will be used for the same configuration.

[0292] First, referring to (a) of FIG. 22, the barrier (60) of the first modified example may include a first wall (602). The barrier (60) may include a first surface (602a), a second surface (604a), and a third surface (606a).

[0293] At least a portion of the first wall (602) or the third surface (606a) may overlap the first portion (562) of the condenser (560) in the Y-axis direction. The first wall (602) may not overlap the first header (560b) in the Y-axis direction.

[0294] At least a portion of the first wall (602) or the third surface (606a) may overlap with the second header (560c) in the Y-axis direction. It is also possible for at least a portion of the first wall (602) or the third surface (606a) to overlap with the second portion (564) in the Y-axis direction.

[0295] A flow restriction (590) may be positioned between the first wall (602) and the tube (560a) of the first portion (562) or between the third surface (606a) and the tube (560a) of the first portion (562).

[0296] Even with this modified example, the air sucked in through the air intake port (401) can be restricted from flowing directly toward the blower fan (530) without passing through the condenser (560).

[0297] Next, referring to (b) of FIG. 22, the barrier (60) of the second modified example may include a first wall (602). The barrier (60) may include a first surface (602a), a second surface (604a), and a third surface (606a).

[0298] At least a portion of the first wall (602) may not overlap with the first portion (562) of the condenser (560) in the Y-axis direction. The first wall (602) or the third surface (606a) may overlap with the first header (560b) in the Y-axis direction.

[0299] A flow restriction (590) may be positioned between the first wall (602) and the first header (560b) or between the third surface (606a) and the first header (560b).

[0300] Even with this modified example, the air sucked in through the air intake port (401) can be restricted from flowing directly toward the blower fan (530) without passing through the condenser (560).

[0301] Next, referring to (c) of FIG. 22, the barrier (60) of the third modified example may include a first wall (602). The barrier (60) may include a first surface (602a), a second surface (604a), and a third surface (606a).

[0302] The first wall (602) or the third surface (606a) may not overlap with the condenser (560) in the Y-axis direction. That is, the first surface (602a) may be positioned closer to the blower fan (530) than to the condenser (560).

[0303] A flow restriction (590) may be positioned between the first wall (602) and the first header (560b) or between the third surface (606a) and the first header (560b).

[0304] At this time, the X-axis direction length of the flow restriction part (590) may be greater than the X-axis direction length of the flow restriction part (590) in the second modified example.

[0305] The above flow restriction portion (590) may include a portion positioned further away from the blower fan (530) than the first surface (602a).

[0306] Even with this modified example, the air sucked in through the air intake port (401) can be restricted from flowing directly toward the blower fan (530) without passing through the condenser (560).

[0307] In addition, in the case of this modified example, since the first surface (602a) is positioned close to the blower fan (530), the area of ​​the air intake port (401) of this modified example can be increased compared to the area of ​​the air intake port (401) of the first or second modified example.

[0308] Fig. 23(A) is a drawing showing a fourth modified example of the barrier in the first embodiment, and Fig. 23(B) is a drawing showing a fifth modified example of the barrier in the first embodiment. Fig. 24 is a drawing showing a sixth modified example of the barrier in the first embodiment.

[0309] First, referring to (a) of FIG. 23, the barrier (60) of the fourth modified example may include a second wall (604). The barrier (60) may include the first surface (602a), the second surface (604a), and the third surface (606a).

[0310] At least a portion of the second wall (604) or the third surface (606a) may overlap the fan housing (540) in the Y-axis direction.

[0311] The second surface (604a) may be positioned further from the compressor (510) than at least a portion of the fan housing (540).

[0312] The sealing member (550) may be positioned between the second wall (604) and the fan housing (540) or between the third surface (606a) and the fan housing (540).

[0313] Even with this modified example, the air flowing through the condenser (560) can be restricted from flowing between the fan housing (540) and the barrier (60).

[0314] In the case of this modified example, since the second surface (604a) is positioned further from the compressor (510) than at least a portion of the fan housing (540), there is an advantage in that the area of ​​the air outlet (403) of this modified example can be increased compared to the air outlet (403) of the first embodiment.

[0315] Additionally, in the case of this modified example, the length of the guide wall (425) illustrated in FIG. 9 can be adjusted so that the guide wall (425) guides the air passing through the fan housing (540) toward the compressor (510).

[0316] Next, referring to (B) of FIG. 23, the barrier (60) of the fifth modified example may include a second wall (604).

[0317] The above barrier (60) may include the first side (602a), the second side (604a), and the third side (606a).

[0318] The second wall (604) may not overlap with the fan housing (540) in the Y-axis direction. The second wall (604) or the second surface (604a) may be positioned closer to the first portion (423a) of the peripheral wall (423) than to the fan housing (540).

[0319] The sealing member (550) may be provided between the third surface (606a) and the fan housing (540).

[0320] In this modified example, the length of the third side (606a) of the barrier (60) can be increased so that the third side (606a) can sufficiently guide the air passing through the fan housing (540) toward the compressor (510).

[0321] In the above support member (450), the guide wall (425) may be omitted or present. When the support member (450) includes the guide wall (425), the second wall (604) or the second surface (604a) may be positioned closer to the compressor (510) than the guide wall (425).

[0322] Next, referring to FIG. 24, the barrier (60) of the sixth modified example may include a second wall (604).

[0323] The barrier (60) may include a first surface (602a), a second surface (604a), and a third surface (606a). The second wall (604) or the second surface (604a) may be positioned closer to the compressor (510) than the first portion (423a) of the peripheral wall (423).

[0324] The sealing member (550) may be provided between the third surface (606a) and the fan housing (540).

[0325] In this modified example, the third side (606a) of the barrier (60) can sufficiently guide the air passing through the fan housing (540) toward the compressor (510).

[0326] Variations derived by combining the first to sixth variations in this specification may also be included in the spirit of the present invention.

[0327] Fig. 25 is a drawing showing a first modified example of a support member in the first embodiment.

[0328] Referring to FIG. 25, the support member (420) may include a peripheral wall (423). The peripheral wall (423) may further include a guide wall (425a) that guides air flowing through the third surface (606a) of the barrier (60) toward the compressor (510).

[0329] The above guide wall (425a) may extend upward from the peripheral wall (423). The guide wall (425a) may extend from a portion adjacent to the second wall (604) toward the first portion (423a). The guide wall (425a) may extend to the first portion (423a) of the peripheral wall (423) or to an adjacent portion.

[0330] The above guide wall (425a) can overlap with the third surface (606a) in the Y-axis direction.

[0331] In the case of this modified example, the air flowing through the third side (606a) of the barrier (60) can be sufficiently guided by the guide wall (425a) toward the compressor (510).

Claims

1. Cabinet with storage space; A door for opening and closing the above storage room; A plate assembly forming a machine room located outside the storage room; and It is equipped in the above machine room and includes a cooling unit having a compressor, a blower fan and a condenser, The above plate assembly, A bottom plate on which the cooling unit is installed, an air intake for sucking air into the machine room, and an air outlet for discharging air from the machine room are formed, A refrigerator comprising a barrier formed integrally with a wall between the air intake and the air outlet in the bottom plate or mounted on the wall.

2. In paragraph 1, The above plate assembly comprises a front plate covering the cooling unit, A refrigerator further comprising a sealing member provided between the barrier and the front plate.

3. In paragraph 2, The above barrier comprises a first wall that guides air sucked into the air intake port toward the condenser; It includes a second wall that guides the air flowing by the blower fan toward the air outlet, A refrigerator wherein the sealing member is in contact with each of the first wall and the second wall.

4. In paragraph 3, The above barrier further includes a third wall connecting the first wall and the second wall, The above sealing member is a refrigerator in contact with the third wall.

5. In paragraph 1, The above barrier comprises a first wall that guides air sucked into the air intake port toward the condenser; It includes a second wall that guides the air flowing by the blower fan toward the air outlet, In the Y-axis direction, which is the arrangement direction of the cabinet and the door, the first wall overlaps the condenser, A refrigerator having a flow restriction provided between the first wall and the condenser.

6. In paragraph 5, The above condenser includes a tube through which refrigerant flows and a header connected to the tube, A refrigerator in which the tube or the header overlaps the first wall in the Y-axis direction.

7. In paragraph 5, Further comprising a fan housing in which the above blower fan is accommodated, The above barrier further includes a third wall connecting the first wall and the second wall, In the Y-axis direction above, The second wall and the fan housing overlap, or the third wall and the fan housing overlap, A refrigerator wherein a sealing member is provided between the second wall and the fan housing or a sealing member is provided between the third wall and the fan housing.

8. In paragraph 1, The above barrier has a first surface that guides air sucked into the air intake port toward the condenser, A second surface that guides the air flowing by the blower fan toward the air outlet, Including a third side connecting the first side and the second side, In the Y-axis direction, which is the arrangement direction of the cabinet and the door, the first surface overlaps the condenser, A refrigerator having a flow restriction provided between the third surface and the condenser.

9. In paragraph 1, The above barrier comprises a first wall that guides air sucked into the air intake port toward the condenser; It includes a second wall that guides the air flowing by the blower fan toward the air outlet, In the Y-axis direction, which is the arrangement direction of the cabinet and the door, the first wall does not overlap with the condenser, A refrigerator having a flow restriction provided between the first wall and the condenser.

10. In paragraph 9, Further comprising a fan housing in which the above blower fan is accommodated, The above barrier further includes a third wall connecting the first wall and the second wall, In the Y-axis direction above, The second wall and the fan housing overlap, or the third wall and the fan housing overlap, A refrigerator wherein a sealing member is provided between the second wall and the fan housing or a sealing member is provided between the third wall and the fan housing.

11. In paragraph 1, Further comprising a fan housing in which the above blower fan is accommodated, The above barrier comprises a first wall that guides air sucked into the air intake port toward the condenser; It includes a second wall that guides the air flowing by the blower fan toward the air outlet, In the Y-axis direction, which is the arrangement direction of the cabinet and the door, the second wall overlaps the fan housing, A refrigerator having a sealing member provided between the second wall and the fan housing.

12. In paragraph 11, A refrigerator wherein the barrier further comprises a third wall connecting the first wall and the second wall.

13. In paragraph 1, Further comprising a fan housing in which the above blower fan is accommodated, The above barrier comprises a first wall that guides air sucked into the air intake port toward the condenser; A second wall that guides the air flowing by the blower fan toward the air outlet, Further comprising a third wall connecting the first wall and the second wall, In the Y-axis direction, which is the arrangement direction of the cabinet and the door, the third wall overlaps the fan housing, A refrigerator having a sealing member between the third wall and the fan housing.

14. In paragraph 13, It is mounted on the above bottom plate and further includes a support member that receives the water, The above support member includes a perimeter wall, A refrigerator wherein the peripheral wall includes a first portion positioned between the fan housing and the compressor.

15. In paragraph 14, A refrigerator wherein the first part is positioned closer to the compressor than the second wall.

16. In paragraph 15, A refrigerator wherein the peripheral wall further includes a guide wall that guides air flowing through the third wall toward the compressor.

17. In paragraph 14, A refrigerator wherein the second wall is positioned closer to the compressor than the first part.

18. In paragraph 1, Further comprising a fan housing in which the above blower fan is accommodated, The above barrier has a first surface that guides air sucked into the air intake port toward the condenser, A second surface that guides the air flowing by the blower fan toward the air outlet, Further comprising a third side connecting the first side and the second side, In the Y-axis direction, which is the arrangement direction of the cabinet and the door, the third surface overlaps the fan housing and the condenser, A refrigerator having a sealing member provided between the third surface and the fan housing.

19. In paragraph 18, A refrigerator having a flow restriction provided between the third surface and the condenser.

20. In paragraph 1, A refrigerator further comprising an air guide for guiding air sucked through the air intake port toward the condenser.

Images