EP4067787A1 - Door for a domestic refrigeration device with specific top end cap and domestic refrigeration device - Google Patents

Abstract

The invention relates to a door (4) for a household refrigeration appliance (1), with an outer wall (5), with a peripheral closing profile (10) and with a closing strip (14), with a coupling structure ( 20), the coupling structure (20) having a contact wall (22) which extends from the base part (15) in the vertical direction (y) of the door (4) and for positioning the end profile (10) directly adjacent at least in certain areas is provided, with the end strip (14) having a shaft (21), with a front wall (23) of the shaft (21) forming a first wall part (27) of the contact wall (22), and the shaft (21) having a rear wall (24 ), wherein the contact wall (22) has a second wall part (28) which ends directly on the rear wall (24), the second wall part (24) having a height (h2) measured in the height direction (y) which is at least 60 %, in particular between 60% and 100%, the height (h1) of the shaft (21) re eats

Description

One aspect of the invention relates to a door for a household refrigeration appliance. A further aspect of the invention relates to a household refrigeration appliance with a corresponding door.

From the DE 10 2015 206 862 A1 a door with an end strip is known. At the top, this delimits a recessed grip in a side edge of the door. The end strip is connected to a profile that delimits the recessed grip.

In 1 a known end strip 100 is shown in a perspective view. This is an upper end strip of a known door viewed in the vertical direction. The end strip 100 has a longitudinal axis A'. The elongate member has a base portion 101 along this longitudinal axis A'. Opposite ends 102 and 103 are shown. A coupling structure 104 and 105 is formed at each of these opposite ends 102 and 103 . These are intended to be mechanically coupled to an edge-side closing profile of the door, not shown here. In this regard, the coupling structures 104 and 105 have very low contact walls 106 and 107 when viewed in the height direction.

In addition, in 1 Also shown is that the header 100 has bays 108 and 109. The end strip 100 has a front side 110 and a back side 111 . When the door is installed and the door is closed, the back 111 faces a housing of the household refrigeration appliance or is closer than the front 110.

In 2 a partial area of the end strip 100 is shown in an enlarged representation. As can be seen, the chute 108 has a front wall 112 and an opposite rear wall 113 . As can be seen, the abutment wall 106 is very low in this regard.

In 3 In this context, a perspective representation of an assembled state between the end strip 100 and an end profile 114 of the door that is separate therefrom is shown. In addition, an outer wall 115 of the door is also shown. As can also be seen in this context, a transition area 116 between the abutment wall 106 and the shaft 108 is shown.

In 4 Another known top end strip 100 is shown in a perspective view. The bottom bar 100 according to Figures 1 to 3 is intended for a door in which the end profile 114 has an integrated boundary wall for a recessed grip. In this regard, in such a door, the recessed grip is formed or integrated on the narrow vertical longitudinal side. The bottom bar 100 according to 4 on the other hand, is provided for a door that does not have such a recessed grip on the edge. The relevant shaft 108 can also be seen. Here, too, a corresponding contact wall 106 is designed to be correspondingly low.

A door of a household refrigerator is filled with a thermally insulating foam. When this foam is introduced, it swells and can escape at interfaces between door components. It is therefore known that such interfaces are provided with adhesive tapes or other auxiliary manufacturing elements, for example, in order to prevent the foam from escaping. In the case of complex interfaces, this is sometimes only possible to a limited extent. Even with interfaces that are difficult to access, such aids can only be attached to a limited extent.

It is the object of the present invention to create a door for a household refrigeration appliance in which interfaces between separate structural components are coupled together in an improved manner in order to achieve greater foam tightness. Accordingly, it is also an object to create a household refrigeration appliance with such a door.

This object is achieved by a door and a household refrigeration appliance according to the independent claims.

One aspect of the invention relates to a door for a household refrigeration appliance. The door has an outer wall. In addition, the door has an edge profile. This edge profile extends in the height direction. It is therefore an elongated profile rail oriented in the vertical direction. In addition, the door has an end strip that is separate from the end profile and the outer wall. The end strip has an elongate, in particular bar-shaped, base part. The end strip has a longitudinal axis. This longitudinal axis is oriented in the width direction of the door. The end strip is therefore also an elongate component which extends in the width direction. In the direction of the longitudinal axis, this end strip has a first end and an opposite second end. At least one end is formed with a coupling structure, in particular formed in one piece with the base part. This coupling structure is intended for direct mechanical coupling to the border profile. The coupling structure has an abutment wall which, starting from the base part, extends upwards in the height direction of the door. The coupling structure is intended for at least partially placing the terminating profile on the outside and/or for positioning the terminating profile directly adjacent at least partially. This means in particular that, viewed in the height direction of the door, the contact wall is to be dimensioned and understood as intended with regard to an overlap with the end profile provided in this height direction in the assembled final state. Areas of the base part and the end profile, which are therefore not arranged overlapping with the abutment wall in this height direction in the assembled final state of the end profile, are also not to be counted as part of the abutment wall in the context of the understanding. In addition, it is provided that the contact wall does not have to be directly contacted over the entire surface by the end profile in the installed state or the end profile does not have to rest directly on the outside of this contact wall over the entire surface. The contact wall is also provided so that in the final assembled state there can be a small spacing between the contact wall and the end profile, in particular at least in certain areas.

The end strip has a shaft oriented in the vertical direction of the door. A front wall of the shaft forms a first wall part of the installation wall. The shaft has a back wall. The plant wall has a second wall part that ends directly on the rear wall. The second wall part has a dimensioned in the height direction of the door Height, which is at least 60%, in particular between 60% and 100%, of the height of the shaft.

Such a configuration achieves an improved configuration with regard to the height transition in the case of specific end strips which have such an integrated shaft in the case of wall parts which are directly connected thereto. This makes it possible for a contact wall area to be formed directly following this shaft, which is formed to be correspondingly high compared to the shaft itself. As a result, improved foam tightness can be achieved precisely at the interface between the shaft, in particular its rear wall, specified further, and a wall part of the abutment wall adjoining it. Undesirable leakage can be avoided precisely at this specified interface. Since a duct in this regard, which can be a cable duct or another line duct, for example, is more exposed in terms of its height than neighboring components, unwanted leakage can occur more frequently in these areas in particular. This is avoided by the design of the installation wall according to the invention. Last but not least, this also increases the stability of the shaft itself. Because it is better supported and stabilized by the second wall part directly adjacent to it, which is also very high. On the other hand, this relatively high design of the second wall part also ensures a direct connection to the shaft, so that this wall part, which is plate-like or board-like, is also stabilized and, in this regard, due to this very high height, no undesirable deformations occur when inserting Insulation foam corresponding forces act on this second wall part. As a result, a mechanically stable structure is also created at this interface in particular, which easily withstands the pressure of the insulating foam.

In one exemplary embodiment, the shaft can be completely closed all the way around in a sectional plane perpendicular to the longitudinal axis of the shaft. In this regard, the circumferential contour can be corner-free or angular. In particular, this circumferential contour can be square.

In this context, the shaft can also be referred to as a channel. In one exemplary embodiment, the rear wall extends in one plane. in one Embodiment, the second wall part extends in one plane. The plane of the second wall part is arranged at an angle greater than 0° to the plane of the rear wall. This means that the rear wall and the second wall part are not oriented in a common same plane. In this case, those planes are considered in each case in which the second wall part on the one hand and the rear wall on the other hand extend flatly.

In one embodiment, the height of the second wall part is between 90% and 100% of the height of the shaft.

As a result, the second wall part is provided with the same or essentially the same height as the rear wall. The advantages mentioned above are particularly achieved as a result.

In one embodiment, the height of the second wall portion is formed over the entire length of an upper edge of the second wall portion. This means that the second wall part is designed with such a height over its entire length. It is possible in this context that the same height exists over this entire height. It is also possible in another exemplary embodiment that this height of the second wall part varies at least once, but is at least 60%, in particular between 60% and 100%, of the height of the shaft at every point. The height can also decrease continuously, starting from the connection point to the shaft. For example, a decrease from 100% of the height to a value between 60% and 90% of the height of the shaft. The decrease can be formed by a convexly curved upper edge of the second wall part.

In one embodiment, the height of the second wall part is between 5 cm and 15 cm. In particular, this height is between 5 cm and 12 cm.

In one exemplary embodiment, the contact wall has a freely cantilevered wall part. This cantilevered wall part is in particular an extension of the first wall part. The cantilevered wall part extends in the width direction of the door over the width of the shaft. This means that an additional wing is formed directly adjacent to this shaft. It can be provided in one embodiment that an outer side of the first wall part is flush with an outer side of the cantilevered wall part. As a result, a surface area that is connected at least on the outside is created by the first wall part and the freely cantilevered wall part. In particular, this surface area is formed in a common plane or extends flat in a common plane. In particular, this is formed over this entire surface area. In this way, too, improved foam tightness can be achieved at a further, specific, second point directly adjacent to the shaft. This can improve a critical interface with respect to a foam exit directly adjacent to the chute. In addition, corresponding arguments apply with regard to stability, such as have already been explained above with regard to the shaft and the second wall part.

In one exemplary embodiment, the height of the cantilevered wall part, measured in the height direction, can be at least 60% of the shaft, in particular at least 60% of the front wall. In particular, this height of the freely projecting wall part is between 60% and 100% of the shaft, in particular the front wall.

In one embodiment, the cantilevered wall part is arranged with a free wall edge facing the opposite end of the end strip.

In one embodiment, the abutment wall has a V-shaped wall part, viewed in a horizontal section, which is directly connected to the second wall part. The horizontal section extends in a plane that is spanned by the depth direction and the width direction of the door. This configuration of the contact wall stabilizes it on the one hand and on the other hand provides improved foam tightness at corresponding additional points. An improved labyrinth can thus be formed over a longer distance precisely at this interface between the contact wall and the end profile. With these corresponding heights of one or the other design of a wall part, it can be achieved that even if insulating foam should get into a gap between the contact wall and the closing profile during foaming, no foam escapes at this interface to the outside. Because this foam runs through the mentioned construction with the wall parts adjoining the shaft, if it should get into them Enter gap, dead. This means that it hardens prematurely or stops flowing before exiting the door to the outside at this interface.

In one exemplary embodiment, the V-shaped wall part has the same height over its entire length.

In particular, one embodiment provides that the height of the V-shaped wall part is smaller than the height of the second wall part. In particular, the height of the V-like wall part is between 60% and 90% of the height of the second wall part. As a result, a geometry specification can be made possible that makes it possible to provide greater foam tightness in this area of the V-shaped wall part, but on the other hand a height that is advantageous for the second wall part, for example, is not required. In this way, material for the installation wall can also be saved accordingly.

In one embodiment, a freely projecting V-leg of the V-like wall part forms a rear wall part of the contact wall. This rear wall part faces the opposite end of the end profile. In this context, the rear wall part forms in particular a rear or rear termination of the contact wall. In this context, terminating at the rear or towards the rear means viewed along the horizontal axis, which is oriented perpendicular to the longitudinal axis of the end strip. In this regard, when the door is closed, the rear wall part is closer to a housing of the household refrigeration appliance than a front wall part.

In one embodiment, the finishing strip is a top finishing strip. In the case of upper end strips in particular, it is known that such integrated channels or cable ducts are provided. This means that both electrical lines and, if necessary, lines for gaseous or liquid media can be routed from the outside via these end strips into the door or from the door to the outside in a space-saving and protected manner. However, since these shafts must have a certain length in order to be able to lay the corresponding lines or cables that are passed through as required, these shafts are formed with a height that is exposed in this regard compared to other components of the end strip.

The directions “in the width direction”, “in the height direction”, “in the depth direction”, “top”, “bottom”, “front”, “back”, “outside”, “inside” etc. for the door and the household refrigeration appliance relate to the state of a household refrigeration appliance set up for conventional use, with the door positioned in front for an observer and the rear in the back.

Further features of the invention result from the claims, the figures and the description of the figures. The features and feature combinations mentioned above in the description, as well as the features and feature combinations mentioned below in the description of the figures and/or shown alone in the figures, can be used not only in the combination specified, but also in other combinations or on their own, without the frame to abandon the invention. The invention is therefore also to be considered to include and disclose embodiments that are not explicitly shown and explained in the figures, but that result from the explained embodiments and can be generated by separate combinations of features. Versions and combinations of features are also to be regarded as disclosed which therefore do not have all the features of an originally formulated independent claim.

Fig. 1

eine perspektivische Darstellung einer bekannten oberen Abschlussleiste;

Fig. 2

eine vergrößerte Darstellung eines Teilbereichs in Fig. 1;

Fig. 3

eine perspektivische Darstellung eines Teilbereichs gemäß Fig. 2 mit einem angeordneten Abschlussprofil;

Fig. 4

eine perspektivische Darstellung einer weiteren bekannten, oberen Abschlussleiste;

Fig. 5

eine schematische perspektivische Darstellung eines Ausführungsbeispiels eines erfindungsgemäßen Haushaltskältegeräts mit einem Ausführungsbeispiel einer erfindungsgemäßen Tür;

Fig. 6

eine perspektivische Teildarstellung eines Ausführungsbeispiels einer erfindungsgemäßen Tür;

Fig. 7

eine perspektivische Darstellung eines Ausführungsbeispiels einer Abschlussleiste der Tür gemäß Fig. 6;

Fig. 8

eine Explosionsdarstellung der Abschlussleiste gemäß Fig. 7 mit dem dazu separaten Abschlussprofil und einer Außenwand;

Fig. 9

eine Teildarstellung der Abschlussleiste gemäß Fig. 7 mit einem Schacht und daran angrenzenden Wandteilen einer Anlagewand;

Fig. 10

eine perspektivische Darstellung der Komponenten gemäß Fig. 8 in einer zu Fig. 8 unterschiedlichen Perspektive;

Fig. 11

eine perspektivische Darstellung der Abschlussleiste gemäß Fig. 7 im zusammengebauten Zustand mit dem Abschlussprofil gemäß Fig. 8 und Fig. 10; und

Fig. 12

eine perspektivische Schnittdarstellung der Anordnung in Fig. 11.

Exemplary embodiments of the invention are explained in more detail below with the aid of schematic drawings. Show it:

1

a perspective view of a known upper end strip;

2

an enlarged view of a section in 1 ;

3

a perspective view of a portion according to FIG 2 with an arranged finishing profile;

4

a perspective view of another known upper end strip;

figure 5

a schematic perspective view of an embodiment of a household refrigeration appliance according to the invention with an embodiment of a door according to the invention;

6

a perspective partial view of an embodiment of a door according to the invention;

7

a perspective view of an embodiment of an end strip of the door according to FIG 6 ;

8

an exploded view of the end strip according to 7 with the separate end profile and an outer wall;

9

a partial view of the end strip according to 7 with a shaft and adjacent wall parts of a plant wall;

10

a perspective view of the components according to 8 in one to 8 different perspective;

11

a perspective view of the end strip according to 7 in the assembled state with the end profile according to 8 and 10 ; and

12

a perspective sectional view of the arrangement in 11 .

Elements that are the same or have the same function are provided with the same reference symbols in the figures.

In figure 5 an exemplary embodiment of a household refrigeration appliance 1 is shown in a perspective, simplified representation. The household refrigeration appliance 1 can be, for example, a refrigerator or a freezer or a fridge-freezer combination appliance. The household refrigeration appliance 1 is designed for storing and preserving food. It has a housing 2 in which at least one receiving space 3 for the food is trained. A door 4 is pivotably arranged on the housing 2 so that the receiving space 3 can be closed from the front or from the front.

The door 4 is constructed in several parts.

In 6 an embodiment of a door 4 is shown in a perspective partial representation. The door 4 has an outer wall 5 . The outer wall 5 can be made of sheet metal. The door 4 also has an in 6 inner wall 6 which is not recognizable and is provided with a reference number. The inner wall 6 can also be referred to as the inner paneling of the door 4 . When the door 4 is closed, it faces the receiving space 3 . The outer wall 5 and the inner wall 6 are separate components from one another. A thermally insulating material 8, in particular insulating foam, is introduced into an intermediate space 7 between the outer wall 5 and the inner wall 6.

The door 4 also has narrow side edges, of which 6 only one is shown as a narrow margin 9. In the exemplary embodiment, this narrow side edge 9 is formed as a terminating profile 10 at the edge. As a result, the intermediate space 7 is limited at the side. In the exemplary embodiment shown, the end profile 10 is also a boundary wall 11 of a recessed grip 12. The recessed grip 12 is thus formed on this side edge 9 in this door or is integrated into it.

In the exemplary embodiment, the closing profile 10 is formed in one piece with the outer wall 5 . It is a component separate from the inner wall 6 . It is also possible that the end profile 10 and the outer wall 5 are separate components.

The end profile 10 can be designed in one piece. For example, it can be made of sheet metal.

The door 4 also has an end strip 13 . This is a lower end strip here. This can be seen in the height direction of the door 4 . The door 4 also has a further end strip 14 . This is a top finishing strip.

In 7 an embodiment of an upper end strip 14 is shown in a perspective view. The upper end strip 14 is formed in one piece. In particular, it is made of plastic. It can be an injection molded component, for example. This end strip 14 is formed as an elongate component. It has a longitudinal axis A. This is oriented in the width direction (x-direction).

The end strip 14 has a base part 15 . This is bar-shaped. It can also be referred to as a board-like component. In this regard, too, it can be regarded as an elongated rail. The end strip 14 has a first end 16 and, viewed along the longitudinal axis A, an opposite second end 17 . The end strip 14 has a front side 18 and a rear side 19 in a horizontal direction perpendicular to the longitudinal axis A and thus here in the depth direction (x-direction). When the door 4 is closed, the rear side 19 with the housing 2 is closer than the front side 18. A coupling structure 20 is formed at the first end 16. This is intended to be mechanically coupled to the end profile 10 . The end profile 10 is shown here with the boundary wall for the recessed grip 12 . In this regard, this boundary wall is designed in the form of a channel as a corresponding depression.

As can also be seen, a shaft 21 oriented in the height direction is formed at the first end 16 . This can also be referred to as a channel or tube. It can be designed to accommodate lines or cables or the like. Corresponding line routing from the housing 2 to the door 4 or from the door 4 to the housing 2 can thus take place via this interface.

In addition, the coupling structure 20 has a contact wall 22 . This is intended to be provided at least in regions for applying the end profile 10 and/or for positioning the end profile 10 in the immediate vicinity. A contact wall 22 is referred to as one which is arranged overlapping with the end profile 10 in the height direction when installed with the end profile 10 . This also creates a wall structure that is overlapping at this intersection in the height direction. In this regard, a corresponding interface can then also be made more compact in order to prevent foam from escaping avoid. The relevant insulation foam is in a gap 7, as already 6 was explained.

The shaft 21 has a front wall 23 . Viewed in the depth direction, the shaft 21 also has a rear wall 24 which is opposite in this respect. In the exemplary embodiment shown, the shaft 21 is angular in cross section, in particular quadrangular. In this regard, it has opposite side walls 25 and 26 in the width direction. The shaft 21 is completely closed all the way around perpendicularly to its longitudinal axis, which extends in the vertical direction. The front wall 23 of the shaft 21 forms a first wall part 27 of the abutment wall 22. In addition, the abutment wall 22 has a second wall part 28. This ends directly at the rear wall 26 of the shaft 21. The shaft 21 has a height h1. This is dimensioned in height direction. The longitudinal axis of the shaft 21 is also oriented in this vertical direction. As can be seen, the shaft 21 is formed with this height h1 both on the front wall 23 and on the rear wall 24 . The second wall part 22 has a height h2 measured in the vertical direction. This height h2 is at least 60%, in particular between 60% and 100% of the height h1 of the shaft 21. This relates in particular to the percentage in relation to the rear wall 24. The height h2 is preferably between 90% and 100% of the height h1 of the shaft 21 , especially the rear wall 24.

At the opposite end 17 there is a corresponding coupling structure and a corresponding shaft with a corresponding abutment wall, as is the case on the opposite side at end 16 . The explanations for the components at end 16 therefore apply analogously to the coupling structure at the opposite end 17.

As moreover in 7 can also be seen, the contact wall 22 has a freely cantilevered wall part 29 which forms an extension of the first wall part 27 . This cantilevered wall part 29 extends in the width direction of the door 4 over the width of the shaft 21 protruding. In particular, it cantilevers towards the opposite end 17 and projects beyond the shaft 21 . In one exemplary embodiment, this cantilevered wall part has a height that is at least 60%, in particular between 60% and 100%, of the height of the shaft 21, in particular of the front wall 23. As in 9 is shown in the one to 7 different perspective of the end 16 of the end strip 14 is shown, and as is generally applicable, the heights h1 and h2 end at the same height level at the lower end. Viewed over the entire length of the second wall part 28, the upper edge of the second wall part 28 is not at the same level. In this regard, the upper edge is curved, in particular convex, rounded. The highest point of this upper edge of the second wall part 28 is the assessment basis for the height h2. In the exemplary embodiment, this is at the same level as the upper edge of the rear wall 24. This second wall part 28 is therefore the same height at this point as the rear wall 24.

The second wall part 28 and the rear wall 24 are at an angle to one another and open out onto one another. The contact wall 22 also has a V-shaped wall part, which is directly connected to the second wall part 28 . In one exemplary embodiment, this V-shaped wall part 30 has a constant height over its entire length. This height h3 is smaller than the height h1 and is smaller than the height h2. In particular, the height of the second wall part 28 changes from the height h2, in particular continuously, to the height h3. The V-like wall part 30 has a first leg 31 of the V and a second leg 32 of the V connected thereto. The first leg 31 of the V ends directly at the second wall part 28 . The second leg 32 of the V is oriented in the direction of the opposite end 17 . In particular, the height h3 is between 60% and 90% of the height h2. A V-leg 32 that protrudes freely in this regard forms, in particular, a rear wall part of the contact wall 22.

In 10 is the representation of the components 8 shown from a different perspective. Here, as well as in 8 , is a web-like bend 33 on an upper edge of the outer wall 5. This is in the mounted state for engagement in a receiving slot 34 ( 7 ) the front side 18 of the base part 15 is provided. In this regard, the fold 33 is inserted therein.

In 11 is shown in a perspective view of the assembled state between the contact wall 5, the end profile 10 and the upper end strip 14 in the area of the end 16.

In addition, in 12 a perspective sectional view along section line XII-XII in 11 shown. There you can also see that the second wall part 28 ends at an angle α on the rear wall 24. The angle α is greater than 90%, in particular between 40° and 90°, in particular between 60° and 80°.

Reference List

1

domestic refrigeration appliance

2

Housing

3

recording room

4

door

5

outer wall

6

inner wall

7

space

8th

material

9

margin

10

graduation profile

11

boundary wall

12

recessed grip

13

end bar

14

end bar

15

base part

16

End

17

End

18

front

19

back

20

coupling structure

21

shaft

22

plant wall

23

front wall

24

back panel

25

Side wall

26

Side wall

27

wall part

28

wall part

29

wall part

30

wall part

31

V-shank

32

V-shank

33

web

34

receiving slot

100

end bar

101

base part

102

End

103

End

104

coupling structure

105

coupling structure

106

plant wall

107

plant wall

108

shaft

109

shaft

110

front

111

back

112

front wall

113

back panel

114

graduation profile

115

outer wall

116

transition area

a

angle

A

longitudinal axis

A'

longitudinal axis

h1

Height

h2

Height

h3

Height

x

latitude direction

y

height direction

e.g

depth direction

Claims (11)

Door (4) for a household refrigeration appliance (1), with an outer wall (5), with an edge-side end profile (10) and with a separate, end-side end strip (14), the end strip (14) having a beam-shaped base part (15). has a longitudinal axis (A, A'), and in the direction of the longitudinal axis (A, A') has a first end (16) and an opposite second end (17), wherein at least one end (16, 17) has a coupling structure ( 20). ) and is provided for positioning the end profile (10) directly adjacent at least in certain areas, the end strip (14) having a shaft (21) oriented in the vertical direction (y) of the door (4), a front wall (23) of the shaft ( 21) a first wall part (27) of the A The contact wall (22) forms, and the shaft (21) has a rear wall (24), characterized in that the contact wall (22) has a second wall part (28) which ends directly on the rear wall (24), the second wall part (24) has a height (h2) measured in height direction (y) which is at least 60%, in particular between 60% and 100%, of the height (h1) of the shaft (21). Door (4) according to Claim 1, characterized in that the height (h2) of the second wall part (28) is between 90% and 100% of the height (h1) of the shaft (21). Door (4) according to Claim 1 or 2, characterized in that the height (h2) of the second wall part (28) is between 5 cm and 15 cm, in particular between 5 cm and 12 cm. Door (4) according to one of the preceding claims, characterized in that the contact wall (22) has a freely projecting wall part (29) which forms an extension of the first wall part (27) and extends over the width direction (x) of the door (4). the width of the shaft (21) survives. Door (4) according to Claim 4, characterized in that the cantilevered wall part (29) faces the opposite end (17) of the end strip (14). Door (4) according to claim 4 or 5, characterized in that the abutment wall (22) has a V-shaped wall part (30) viewed in a horizontal section, which directly adjoins the second wall part (28). Door (4) according to Claim 6, characterized in that the V-shaped wall part (30) has the same height (h3) over its entire length. Door (4) according to Claim 6 or 7, characterized in that the height (h3) of the V-shaped wall part (30) is smaller than the height (h2) of the second wall part (28), in particular the height (h2) of the V-like wall part (30) is between 60% and 90% of the height (h2) of the second wall part (28). Door (4) according to one of the preceding claims 6 to 8, characterized in that a freely projecting V-leg (32) of the V-like wall part (30) forms a rear wall part of the contact wall (22) which is opposite the end (17) of the end profile (10) faces. Door (4) according to one of the preceding claims, characterized in that the end strip (14) is an upper end strip. Household refrigerating appliance (1) with a door (4) according to one of the preceding claims.

Images