Domestic appliance and luminaire for a domestic appliance
The luminaire's integrated design with a single-part housing and translucent panel addresses the need for compact and aesthetically pleasing lighting in household appliances, ensuring uniform illumination and reduced installation space.
Patent Information
- Application Number
- PCT/EP2025/056746
- Authority / Receiving Office
- WO · WO
- Patent Type
- Applications
- Current Assignee / Owner
- Priority Date
- 2024-03-25
- Filing Date
- 2025-03-12
- Publication Date
- 2025-10-02
AI Technical Summary
Existing household appliance lighting solutions require significant installation space and are not aesthetically pleasing, lacking a compact and integrated design.
A luminaire with a housing and translucent panel designed as a single part, featuring a reflector surface and a light-transmitting disc, which is manufactured in a two-component casting process, allowing for a compact and uniform illumination without additional mechanical connections.
The solution achieves a compact luminaire design that reduces installation space, simplifies assembly, and provides uniform illumination without harsh shadows or glare, while maintaining thermal insulation and energy efficiency.
Smart Images

Figure EP2025056746_02102025_PF_FP_ABST
Abstract
Description
[0001] Household appliance and lamp for a household appliance
[0002] TECHNICAL FIELD
[0003] The present invention relates to a household appliance, in particular a household refrigeration appliance such as a refrigerator, a freezer or a freezer chest or a fridge-freezer combination, and a lamp for a household appliance.
[0004] STATE OF THE ART
[0005] In household appliances, especially in refrigeration appliances such as refrigerators, lighting is typically provided in a storage compartment intended for items such as food or beverages. The lighting's purpose is to illuminate the storage compartment. It is desirable that the lighting be integrated into the appliance in a way that is as space-saving and aesthetically pleasing as possible.
[0006] DE 102019 205 875 A1 describes a household appliance with an inner container surrounded by insulating foam. The inner container has an opening at which a backing element is arranged. The backing element is surrounded by insulating foam on its rear side and has an opening for passing a cable through it, as well as a cable fastening device formed on its front side.
[0007] DE 10 2013 224 261 A1 describes an interior light for a household appliance that is inserted into a pocket-shaped recess of an inner container of the household appliance and locked there. The interior light comprises a housing that is locked to the inner container, a circuit board held in the housing by locking hooks and having LEDs arranged thereon, and a transparent cover. The housing has an arcuate, in particular elliptical, surface that serves as a reflector.
[0008] Another interior lighting device for a household appliance with an arcuate reflector surface is described in US 10 203 153 B2. EP 2 594 880 A2 discloses a household refrigeration appliance having an inner container with a recess in which a lighting device is arranged. The recess has a first and a second flat surface that extend at an obtuse angle to one another. An LED is arranged as the illuminant in the region of the recess where the first and second surfaces meet. Furthermore, a cover is provided that covers the LED and has a first section that runs essentially parallel to the inner surface of the inner container and a second section that runs at an angle to the inner surface and ends at the first surface. The second section is partially structured to scatter the light emitted by the LED.
[0009] SUMMARY OF THE INVENTION
[0010] It is one of the objects of the present invention to provide improved solutions for the illumination of a storage compartment of a household appliance, in particular such solutions which require only a small installation space.
[0011] This object is achieved according to the invention by a luminaire having the features of claim 1 and a household appliance having the features of claim 11. Advantageous embodiments and further developments emerge from the subclaims referring back to the independent claims in conjunction with the description.
[0012] According to a first aspect of the invention, a luminaire for mounting in a recess of a wall of a household appliance comprises a housing with a longitudinal wall extending in a longitudinal direction, which has a reflector surface, a lighting device extending in the longitudinal direction with a lighting means which faces the reflector surface with respect to a transverse direction in order to emit light in the direction of the reflector surface, and a light-transmitting disc extending in the longitudinal direction for transmitting the light emitted by the lighting means, which is arranged between the lighting device and the reflector surface with respect to the transverse direction, wherein the light-transmitting disc is formed integrally with the housing.According to a second aspect of the invention, a household appliance, in particular a household refrigeration appliance, comprises an inner container with a plurality of walls which together define an interior space for accommodating objects, wherein a recess is formed in one of the walls, and a light according to the first aspect of the invention, which is received in the recess such that the reflector surface faces the interior space. The recess can be formed in one piece or integrally with the inner container. The recess and any pockets or undercuts formed therein for anchoring the light can preferably be formed integrally or in one piece with the inner container in a deep-drawing process or injection-molding process. This avoids the need for additional components for fastening the light and reduces manufacturing costs.Deep drawing, in particular, is a process in which a flat plastic sheet, such as polystyrene, is drawn into a three-dimensional shape under heat treatment. The plastic sheet is placed in a specially shaped die and pressed into the mold using a punch or die plate. This process enables the production of complex, hollow, and detailed plastic parts with high precision.
[0013] One of the ideas underlying the invention is to design the housing and translucent panel of a luminaire as a single part. The housing and translucent panel are thus firmly connected to one another, in particular in such a way that they cannot be separated without damage. The one-piece design of the translucent panel and housing offers the advantage of allowing an extremely compact luminaire design, since no additional mechanical connecting structures are required. Furthermore, handling and assembly of the luminaire are simplified.
[0014] The translucent disc and the housing each extend along a longitudinal direction, and a lighting device with multiple light sources is arranged opposite a reflector surface of the housing with respect to a transverse direction extending transversely to the longitudinal direction. The translucent disc is located between the lighting device and the reflector surface with respect to the transverse direction. The translucent disc is thus arranged such that only light emitted by the illuminant that has passed through the translucent disc strikes the reflector surface. The one-piece design of the translucent disc and housing allows, in particular, a compact design of the luminaire with respect to a vertical direction extending transversely to the longitudinal direction and the transverse direction.
[0015] According to some embodiments, it can be provided that the translucent pane and the housing are each manufactured from different plastics in a two-component casting process. For example, the housing and the translucent pane can be manufactured successively in a two-component casting process from a respective plastic material. For example, the translucent pane can be injection-molded first, in particular from a transparent plastic material. The housing can then be injection-molded onto the already manufactured translucent pane, preferably from a different plastic material. One-piece production in a two-component casting process or injection-molding process offers the advantage of creating a reliable, secure connection between the housing and the translucent pane. At the same time, large quantities can be produced economically.Furthermore, the two-component casting process allows for a simple, space-saving design of the housing and translucent panel. The plastic material of the housing can be, for example, high-impact polystyrene (HIPS) or acrylonitrile butadiene styrene copolymer (ABS). The material of the translucent panel can be, for example, polymethyl methacrylate (PMMA).
[0016] According to some embodiments, the translucent pane can be surrounded by housing material at end regions opposite one another in the vertical direction. The translucent pane can therefore advantageously be fixed at its end regions by the housing material.
[0017] According to some embodiments, the translucent panel can be designed as a diffuser for scattering the light emitted by the light source. The diffuser ensures that only scattered light hits the reflector surface. This prevents the formation of so-called hot spots, or visible light concentrations or visible light contrasts, on the reflector surface. This phenomenon of locally hot surface areas occurs particularly when light sources with point-shaped or highly directional radiation characteristics are used. The diffuser serves to scatter or distribute light evenly. The diffuser is used to scatter and soften the direct light from a light source. This creates more uniform illumination without harsh shadows or glare.The diffuser for scattering the light emitted by the light source can, for example, be formed by a translucent disc with light-scattering particles, a light-scattering surface coating, and / or a light-scattering surface structure, or it can be formed from a translucent, light-scattering material. The diffuser scatters the light emitted by the light source, thus preventing visible light concentrations or color contrasts on the illuminated surfaces of the reflector or on one of the walls of the inner container. The translucent disc or diffuser can be formed from polymethyl methacrylate (PMMA). The translucent disc can comprise a translucent material that transmits light emitted by the light source. Translucent material partially transmits light but is not transparent.It's a type of translucency in which light is dimmed or scattered, making objects on the other side unclear. Unlike a transparent material, which allows light to pass through unhindered, and an opaque material, which does not transmit light, a translucent material creates a sense of light transmission while still maintaining a degree of opacity or opacity.
[0018] The translucent sheet can be made of a translucent or transparent material that allows light emitted by the light source to pass through. A translucent sheet is a sheet or material that transmits light. It allows light to pass from one side to the other, creating a transparent or translucent effect. A translucent sheet is a type of sheet or material that partially transmits light but also scatters or diffuses it. Unlike a transparent sheet, which allows light to pass through unhindered, a translucent sheet creates some opacity or blurriness by scattering or refracting the light. A transparent sheet is a sheet or material that allows light to pass through almost unhindered. It allows a clear view of objects on the other side and creates no or minimal distortion or opacity.
[0019] According to some embodiments, the translucent pane can be designed as a transparent or semi-transparent pane. The transparent pane provides bright illumination through a clear pane, but does not provide any privacy, so that electrical components behind the translucent pane are visible, nor does it ensure uniform, shadow-free illumination. The semi-transparent pane allows light to pass through in a subdued manner, while at the same time having a certain degree of opacity or opacity. In contrast to a completely transparent pane, which allows light to pass through unhindered, a semi-transparent pane allows a limited passage of light rays. This creates a certain degree of privacy, as the electrical components on the other side of the pane are not fully visible. The translucent pane can have both semi-transparent and transparent areas.The translucent panel can have a transparent or semi-transparent panel as a diffuser to scatter the light emitted by the lamp, ensuring only scattered light hits the reflector surface, enabling uniform illumination without harsh shadows or glare. The light can be diffused by a transparent or semi-transparent panel with light-scattering particles, a light-scattering surface coating, and / or a light-scattering surface structure, or it can be formed from a light-scattering material itself.
[0020] According to some embodiments, the translucent pane can be provided with an engagement profile in at least one of the end regions, which is surrounded by the material of the housing. The engagement profile can be formed, for example, by a step, projections, openings, or the like. This achieves an even more reliable fixation of the translucent pane.
[0021] According to some embodiments, the housing can have a frame that defines a light exit opening, and the reflector surface is exposed through the light exit opening. This means that the light exit opening is open and not covered by a cover. This offers the advantage that no additional installation space needs to be reserved for the cover, which leads to an even more compact design of the luminaire. Furthermore, the usable volume of the interior is advantageously increased. The frame can, for example, define a rectangular perimeter of the opening. Optionally, the frame can form one end of the luminaire in terms of the vertical direction, which end faces the interior of the household appliance when the luminaire is accommodated in the recess in the wall of the inner container.According to some embodiments, the frame may have a strip extending along the longitudinal direction, which delimits the light exit opening in the transverse direction, wherein the translucent pane extends between the strip and an end region of the longitudinal wall located in the region of the strip. This strip is also referred to below as the second strip. Optionally, the lighting device can be positioned in the region of the second strip, in particular on one side of an inner surface of the second strip. The second strip thus obscures a direct view of the lighting device and prevents glare.
[0022] According to some embodiments, the frame may further comprise a first strip extending along the longitudinal direction, which is arranged at a distance from the second strip in the transverse direction and, together with the second strip, delimits the light exit opening in the transverse direction. The first strip may optionally have a flat, extending first end surface.
[0023] According to some embodiments, the second strip may have a second end surface that is elevated relative to the first end surface in the vertical direction. The second end surface may optionally be flat. The second end surface and the inner surface of the second strip are oriented opposite to one another. According to some embodiments, a coating film may be applied to the second end surface, e.g., in the form of a decorative element.
[0024] According to some embodiments, an optical axis of the illuminant may be arranged perpendicular to the translucent panel. This advantageously increases the luminous efficacy of the luminaire.
[0025] According to some embodiments, the translucent pane can be inclined relative to the vertical direction, in particular relative to a surface normal to the first end surface. The translucent pane can be inclined in particular in the direction of the light exit opening. The inclined orientation of the translucent pane advantageously further reduces the dimensions of the luminaire in the vertical direction.
[0026] According to some embodiments, it can be provided that the lighting device has a support plate extending in the longitudinal direction, e.g. in the form of a plate, on which the light source, e.g. in the form of one or more LEDs, is arranged and electrically contacted. The support plate can, for example, extend parallel to the translucent pane. This allows an even more compact design of the light, in particular with regard to the dimensions in the transverse direction. Independently of this, the support plate can extend at an angle relative to the vertical direction or to the surface normal to the first end surface. This can also reduce the dimensions of the light in the vertical direction.
[0027] According to some embodiments, the luminaire can have a plurality of ribs extending in the transverse direction and in a vertical direction, which are arranged spaced apart from one another in the longitudinal direction. The ribs each have a receiving slot open in the vertical direction, in which the support plate is received. The ribs with the slots provided therein facilitate space-saving arrangement and fixing of the lighting device. Furthermore, assembly is simplified because the support plate can be inserted into the slots along the vertical direction from the rear of the luminaire.
[0028] According to some embodiments, it can be provided that the ribs are optionally formed integrally with the housing, in particular with the frame, preferably with its second strip. Alternatively or additionally, the ribs can be formed integrally with the translucent pane. For example, in the above-mentioned two-component molding process, the translucent pane can first be injection-molded together with the ribs, in particular from a transparent plastic material. Subsequently, the housing can be injection-molded onto the already produced translucent pane and the ribs, preferably from a different plastic material. Alternatively, the ribs can also be injection-molded together with the housing from one material.
[0029] According to some embodiments, it can be provided that the reflector surface has a first reflector region facing the translucent pane with respect to the transverse direction, in which the reflector surface is concavely curved, and a second reflector region facing away from the translucent pane with respect to the transverse direction, in which the reflector surface is convexly curved. Accordingly, a reflector extending along a longitudinal direction can be realized with two adjacent reflector regions, of which a first is concavely curved and a second is convexly curved. The first, concave reflector region is arranged directly adjacent or bordering the translucent pane with respect to a transverse direction extending transversely to the longitudinal direction, while the second reflector region is arranged facing away from the translucent pane.For example, the translucent disc can be connected to an end section of the first reflector region. The double curvature of the reflector surface achieves a uniform light distribution and advantageously further reduces the dimensions of the luminaire in a vertical direction extending transversely to the longitudinal and transverse directions.
[0030] According to some embodiments, it can be provided that the flat first end face of the first strip of the frame continuously continues the reflector surface at one end of the second reflector region, wherein the reflector surface in the first reflector region runs at a distance from the first end face with respect to a vertical direction. The end face of the first strip can, for example, be positioned flush with a region of the inner surface of the inner container surrounding the recess. The continuous transition of the reflector surface into the first end face achieves a defined transition from the reflector surface to the inner surface of the inner container.
[0031] According to some embodiments, the household appliance can have an insulating panel arranged on an outer side of the inner container facing away from the interior and extending in the region of the recess. The insulating panel can be, for example, a vacuum panel. Optionally, a foam material can also be provided between the insulating panel and the outer surface of the inner container. Irrespective of this, the luminaire described above facilitates the use of an insulating panel due to its compact design when the wall thickness of the household appliance is limited. This can improve the thermal insulation of the household appliance and thus its energy efficiency.
[0032] According to some embodiments, an opening can be formed in the bottom of the recess, which opening is concealed by a backing part arranged on an outer surface of the inner container. The backing part has a cable feedthrough opening through which a cable connected to the lighting device of the lamp runs. The backing part facilitates a defined cable feedthrough into the recess formed directly in the inner container. In particular, the backing part can additionally seal the opening at the bottom of the recess, e.g., against the penetration of foam.
[0033] According to some embodiments, the backing part can be provided with a base plate with a flat contact surface that rests against the outer surface of the wall of the inner container. The base plate can thus rest flatly against the outer surface of the wall of the inner container, resulting in a flat design of the backing part while simultaneously achieving a good seal.
[0034] According to some embodiments, the backing part can have a platform section protruding from the contact surface, which projects into the opening in the base and in which the cable feedthrough opening is formed. The platform section is thus at least laterally surrounded by the flat contact surface and, in turn, projects into the opening in the base. Optionally, the platform section can end substantially flush with an inner surface of the base. Likewise optionally, the platform section can abut lateral circumferential sections of the opening. The platform section can thus facilitate the precise mounting of the backing part in a compact design.
[0035] According to some embodiments, it can be provided that spaced-apart cable holding parts for releasably securing the cable are arranged on a first surface of the backing part facing the interior, said cable holding parts protruding from the first surface, wherein the cable feedthrough opening is arranged between the cable holding parts. The cable holding parts can be designed, for example, as hooks facing away from one another. Optionally, the cable holding parts are arranged on the pedestal section. The cable holding parts facilitate a defined holding of the cable during foam encapsulation of the inner container and their handling during an electrical connection to the luminaire.
[0036] According to some embodiments, the backing part can have at least one hook that engages behind the wall of the inner container on its inner surface, wherein the backing part has a rib and / or a recess on an outer surface facing away from the interior space as a grip structure for sliding the backing part during its assembly on the inner container. The backing part can thus be positively fixed to the inner container by means of the hook. This is facilitated by the grip structure facilitating sliding of the backing part parallel to the bottom of the recess in order to engage the hook with the bottom.
[0037] According to some embodiments, a groove can be formed in the bottom of the recess, through which the cable is routed along the longitudinal wall of the luminaire. This advantageously prevents the cable from being crushed in the tight space within the recess. Conversely, the luminaire can be positioned closer to the bottom of the recess.
[0038] According to some embodiments, an electrical connection for the luminaire can be provided on the housing of the luminaire, e.g., at one end thereof in relation to the longitudinal direction. The electrical connection can, in particular, be designed in the form of a plug socket.
[0039] According to some embodiments, it can be provided that the inner container has two side walls each extending in a vertical direction, which are opposite each other in a width direction, and a rear wall which extends in the width direction between the side walls and delimits the interior space with respect to a depth direction, wherein the recess is formed in one of the side walls, wherein the longitudinal direction of the lamp is aligned in the vertical direction.
[0040] According to some embodiments, if the reflector surface is formed with a first and a second reflector region, as described above, the second reflector region is located facing the rear wall with respect to the depth direction. Thus, the rear wall of the inner container can advantageously be illuminated. The provision of the first and second reflector regions advantageously facilitates the generation of a light distribution extending close to the corner between the rear wall and the side wall. The features and advantages disclosed herein in connection with one aspect of the invention are also disclosed for the respective other aspect, and vice versa.
[0041] BRIEF DESCRIPTION OF THE DRAWINGS
[0042] The invention is explained below with reference to the figures of the drawings. The figures show:
[0043] Fig. 1 is a simplified, schematic perspective view of a household appliance according to an embodiment of the invention;
[0044] Fig. 2 is a simplified schematic sectional view of a household appliance according to an embodiment of the invention with a schematic representation of a light distribution;
[0045] Fig. 3 is a perspective partial view of a wall of an inner container of a household appliance according to an embodiment of the invention in the region of a recess in the wall with a mounted backing part;
[0046] Fig. 4 is a perspective view of the backing part of a household appliance according to an embodiment of the invention;
[0047] Fig. 5 is a further perspective view of the backing part from Fig. 7;
[0048] Fig. 6 is a perspective view of a luminaire according to an embodiment of the invention with a view of a light exit opening of the luminaire;
[0049] Fig. 7 is a sectional view of the luminaire taken along line AA shown in Fig. 6;
[0050] Fig. 8 is a partial perspective view of the lamp of Fig. 2, looking toward a rear side of the lamp; and Fig. 9 is a partial view of a household appliance according to an embodiment of the invention in a sectional view, showing the lamp mounted in a recess of an inner container.
[0051] In the figures, the same reference symbols denote identical or functionally identical components, unless otherwise stated.
[0052] DETAILED DESCRIPTION OF EMBODIMENTS
[0053] In the context of the present disclosure, a "household appliance" can be, in particular, an electrically operated household appliance with a treatment chamber or interior for treating goods. The household appliance can be a household refrigeration appliance, a household freezer, or a combination thereof. The treatment chamber serves to store goods, in particular goods to be cooled. Furthermore, the household appliance can be a baking oven, a cooking oven, or a dishwasher. The treatment chamber of an oven serves to heat goods, the treatment chamber of an oven serves to cook goods, and the treatment chamber of a dishwasher serves to wash or clean dishes.
[0054] A “household refrigeration appliance” should be understood in particular to be a cabinet-shaped appliance that is usually electrically operated and independently keeps the temperature in its interior low. For this purpose, a refrigerant circuit is provided which is designed to extract heat from the interior by evaporating a refrigerant and to release the heat to the environment by condensing the refrigerant. The refrigerant is circulated in a closed circuit by means of a compressor, which can be housed, for example, in a machine room separate from the interior, and undergoes various changes of state in succession. The gaseous refrigerant is first compressed by the compressor. The compressed refrigerant then condenses in a condenser, releasing heat to the environment. The liquid refrigerant is then expanded through a throttle, for example an expansion valve or a capillary tube.In the downstream evaporator, which is thermally coupled to the interior, the refrigerant evaporates at a low temperature, absorbing heat from the interior. The gaseous refrigerant is sucked back in by the compressor. This process is kept going by the supply of mechanical work via the compressor. The refrigerant absorbs heat at a low temperature level, for example a cold interior of 0°C to 10°C, and releases it to the environment at a higher temperature level, for example at a condensing temperature in the condenser in the range of 35°C, by supplying mechanical work. Household refrigeration appliances are typically used for the treatment and storage of refrigerated goods such as food, beverages, medicines, and the like. Due to the lower temperature, chemical reactions and biological processes that, for example, render food inedible and medicines unusable, proceed more slowly.The typical operating temperatures inside household refrigeration appliances are between 2°C and +8°C for a refrigerator compartment, between -10°C and -18°C for a freezer compartment, and between -2°C and +4°C for a cold storage compartment. The interior is usually thermally insulated to minimize the energy required to maintain the difference from the ambient temperature.
[0055] Fig. 1 shows, purely by way of example, a household appliance 200 in the form of a refrigerator. The invention is described below by way of example with reference to the refrigerator shown in Fig. 1, but is not limited thereto. For example, the invention can also be used in other household refrigeration appliances, such as a freezer or chest freezer or a refrigerator-freezer combination, or in household appliances in general.
[0056] As schematically shown in Fig. 1, the household appliance 200 can have a body 202 and a door 203. The body 202 can have an inner container 204 which defines an interior space 210 for receiving objects, such as refrigerated goods. The inner container 204 has an inner surface 205a facing the interior space 210 and an opposite outer surface 205b. As schematically shown in Fig. 2, the inner container 204 can be surrounded by thermal insulation on its outer surface 205b. For example, the outer surface 205b can be surrounded by a foam material 215. Optionally, at least one insulating panel, e.g. in the form of a vacuum panel, can additionally be arranged on the outer side of the inner container 204 defined by the outer surface 205b. The inner container 204 comprises a plurality of walls 205 which together define the interior space 210. As shown in Fig.1, the inner container 204 can have a base 205A and a ceiling 205B opposite it with respect to a vertical direction V, a rear wall 205E extending in the vertical direction V between the base 205A and the ceiling 205B, which delimits the interior 210 with respect to a depth direction T extending transversely to the vertical direction V, and side walls 205C, 205D opposite one another in a transverse direction C, which extend in the depth direction T from the rear wall 205E and in the vertical direction V between the base 205A and the ceiling 205B. The side walls 205C, 205D, the base 205A and the ceiling 205B can together define an access opening 211 with their end regions facing away from the rear wall 205E in the depth direction, through which the interior 210 is accessible.
[0057] The door 203 can be movably mounted on the body 202 between an open position, in which it at least partially exposes the access opening 211, and a closed position, in which it covers the access opening 211. Fig. 1 shows the door 203 in an open position. For example, the door 203 can be hinged to the body about a rotation axis running along the vertical direction V, so that it can be pivoted between the open and closed positions.
[0058] As shown only schematically in Fig. 1, the household appliance 200 can have a light 100 for illuminating the interior 210. The light 100 can, in particular, be electrically operated. For example, the light 100 can be activated by a control unit (not shown) when the door 203 is moved into the open position.
[0059] The luminaire 100 can be accommodated in a recess 206 formed in the inner surface 205a of the inner container 204. In Fig. 1, it is shown purely by way of example that the recess is formed in the side wall 205C. However, the invention is not limited to this; rather, the recess can be formed in any of the walls 205. As shown by way of example in Fig. 2, the insulating panel 220 can run in particular in the region of the recess 206, which forms a bulge on the outer surface 205b of the inner container 204. As can be seen in Fig. 2, the recess 206 creates a reduction in the thickness of the thermal insulation, in particular of the foam material 215, which leads to a reduction in the insulating effect. The insulating panel 220 can partially compensate for this effect. However, the insulating panel 220 itself requires a certain amount of installation space.Overall, it is therefore desirable for the recess 206 and the luminaire 100 to take up as little installation space as possible.
[0060] Fig. 3 schematically shows a plan view of the inner surface 205a of the inner container 204 in the region of the recess 206. Fig. 9 shows a sectional view of the inner container 204 in the region of the recess 206 with the lamp 100 mounted in the recess 206.
[0061] As shown in Figs. 3 and 9, the recess 206 has a bottom 206A and a peripheral portion 206B. The bottom 206A can be substantially flat. As shown by way of example in Figs. 3 and 9, the bottom 207 can have an opening 207. In the region of the opening 207, a groove 208 can also be formed in the bottom 206A. The recess 206 can extend along the vertical direction V. In general, the recess 206 can extend elongately, and the opening 207 can be arranged in an end region of the bottom 206A with respect to the longitudinal extent of the recess 206. The peripheral portion 206B extends transversely to the base 206A and connects it to a region of the inner surface 205a of the inner container 204 surrounding the recess 206. The peripheral portion 206B can, for example, define a substantially rectangular shape of the recess 206. As shown in Figs.As further shown in Figures 3 and 9, the peripheral portion 206B can have a plurality of pockets 216 that define undercuts in a direction extending transversely to the inner surface 205a. The pockets 216 serve to receive locking hooks 16 of the light 100 in order to fix them in the recess 206, as shown purely by way of example in Figure 9.
[0062] As already mentioned above, the luminaire 100 is electrically operated. A cable 240 for supplying the luminaire 100, which runs along the outside of the inner container 204, e.g., in the thermal insulation, can be inserted through the opening 207 into the recess 206. As shown by way of example in Fig. 3, a backing part 230 can be arranged for this purpose at the opening 207 on the outer surface 205b of the inner container 204. The backing part 230 is shown in detail in Figs. 4 and 5.
[0063] As shown by way of example in Figs. 4 and 5, the backing part 230 can have a plate-shaped base body, also referred to as a base plate 231, a cable fixation in the form of cable holding parts 232, and a cable feedthrough opening 236. As also shown in Figs. 4 and 5, the backing part 230 can optionally have one or more hooks 234 for fixing the backing part 230 to the inner container 204. Purely by way of example, Fig. 4 also shows that the backing part can have a plug holder 233 for holding a plug 241 that may be provided at the end of the cable.
[0064] As shown in Fig. 4, the base plate 231 has a flat contact surface 231a. The base plate 231 can further have a platform section 238, which forms a region protruding from the contact surface 231a. The cable feedthrough opening 236 can optionally be formed in the platform section 238. As shown by way of example in Figs. 4 and 5, the cable feedthrough opening 236 can, for example, be rectangular.
[0065] The cable holding parts 232 can be formed by hooks, which can be oriented facing away from one another and protrude from the front side of the base plate 231 defined by the contact surface 231a. As shown by way of example in Fig. 4, the cable holding parts 232 can protrude from the pedestal section 238. For example, two cable holding parts 232 can be provided. The cable holding parts 232 serve to releasably fix the cable 240. For example, the cable 240 guided through the cable feedthrough opening 236 can be wound once around both cable holding parts 232, as schematically shown in Fig. 3. The cable feedthrough opening 236 can optionally be arranged between the cable holding parts 232.
[0066] As further shown by way of example in Fig. 4, two hooks 234 oriented in the same direction can be provided on the front side of the base plate 231, which are positioned on opposite sides of the pedestal section 238.
[0067] The connector holder 233 can also be attached to the front of the base plate 231, e.g. between the pedestal section 238 and one of the hooks 238.
[0068] As shown by way of example in Fig. 5, a rib 237A can be formed on an outer surface 231b of the base plate 231, which orientates opposite the contact surface 231a and protrudes from the outer surface 231b. The rib 237A can be positioned, for example, adjacent to the cable feedthrough opening 236. Alternatively or additionally, a recess 237B can be formed in the outer surface 231b, which can be positioned, for example, in an end region of the base plate 231, as shown by way of example in Fig. 5.
[0069] Fig. 3 shows the backing part 230 mounted on the recess 206 of the inner container 204, in which it covers the opening 207 at the bottom 206A of the recess 206. The contact surface 231a of the base plate 231 rests against the outer surface 205b of the inner container 204, and the pedestal section 238 projects into the opening 207. Since the contact surface 231a is flat and the base plate 231 is plate-shaped overall, a space-saving, flat structure is achieved. The platform section 238 also advantageously ensures lateral centering of the backing part 230 in the opening 207. The hooks 234 can protrude through the opening 207 and an optional adjacent additional opening 207Z and engage behind the bottom 206A of the recess 206 on the inner surface 205a.The optional rib 237A and / or the optional recess 237B on the back of the backing part 230 serve as a grip structure for sliding the backing part 230 when it is mounted to the inner container 204, which simplifies the assembly.
[0070] Fig. 6 shows the luminaire 100 in a perspective view, looking toward a front or light-emitting side facing the interior 210 of the inner container 204 when the luminaire 100 is mounted in the recess 206. Fig. 7 shows a sectional view of the luminaire 100. Fig. 8 shows a partial perspective view of the luminaire 100, looking toward a rear side of the luminaire 100 facing the bottom 206A of the recess when the luminaire 100 is mounted in the recess 206. Fig. 9 shows a sectional view of the luminaire 100 in a state mounted in the recess 206.
[0071] As shown by way of example in Figs. 6 to 9, the luminaire 100 may comprise a housing 1, a lighting device 2, and a translucent disc in the form of a diffuser 3. The translucent disc is described as diffuser 3 in the exemplary embodiments.
[0072] The housing 1 can extend overall in a longitudinal direction L1 or have an elongated shape. As shown in Figs. 6 and 7, the housing 1 can have a longitudinal wall 10 and an optional frame 11. Likewise optionally, the housing 1 can have locking hooks 16 for securing the light 100 in the recess 206.
[0073] As shown in Fig. 6, the longitudinal wall 10 extends in the longitudinal direction L1 and has a reflector surface 10a. The longitudinal wall 10 also extends in a transverse direction C1 running transversely to the longitudinal direction L1. A vertical direction H1, which will also be referred to below, runs transversely to the longitudinal direction L1 and the transverse direction C1.
[0074] As can be clearly seen in particular in Fig. 7, the reflector surface 10a can be curved. In particular, the reflector surface 10a can have a first reflector region 10C, in which the reflector surface 10a is concavely curved, and a second reflector region 10D, in which the reflector surface 10a is convexly curved. The first and second reflector regions 10C, 10D are located directly next to one another or border one another with respect to the transverse direction C1. Optionally, the reflector regions 10C, 10D can extend in the transverse direction C1 to the opposite ends of the longitudinal wall 10. With respect to the longitudinal direction L1, the reflector regions 10C, 10D can extend, in particular, over the entire length of the longitudinal wall 10.
[0075] Optionally, the reflector surface 10a can have a surface structure. For example, the reflector surface 10a can have a surface roughness according to VDI 3400 Ref. 20. This gives the reflector surface 10a a pleasantly matte appearance when exposed to light.
[0076] The frame 11 defines a light exit opening 1A, through which the reflector surface 10a reflects light emitted by the lighting device 2. As shown by way of example in Fig. 6, the frame 11 can, for example, be substantially rectangular. The frame 11 can have a first strip 11A and a second strip 11B, which each extend in the longitudinal direction L1 and are arranged at a distance from one another in the transverse direction C1. Thus, the first and second strips 11A, 11B each delimit the light exit opening 1A with respect to the transverse direction C1. Optionally, the frame 11 can additionally have a first and a second transverse strip 11C, 11D, which each extend in the transverse direction C1 between the first and second strips 11A, 11B. The transverse strips 11C, 11D thus limit the light exit opening 1A with respect to the longitudinal direction L1.
[0077] The first strip 11A has an end surface 11e oriented in the vertical direction H1, which can in particular be flat. As further shown in Fig. 6, the end surface 11e can extend continuously with end surfaces 11g, 11h of the transverse strips 11C, 11D. In other words, the end surfaces 11e, 11g, 11h can lie in a plane or define a plane.
[0078] The second strip 11B can have a second end face 11f, which can be flat, for example. As shown purely by way of example in Fig. 6, it can be provided that the second end face 11f has a greater width with respect to the transverse direction C1 than the first end face 11e. As shown by way of example in Fig. 7, the second end face 11f can be raised with respect to the vertical direction H1 relative to the first end face 11e, and thus also relative to the end faces 11g, 11h, e.g. by a height d11, which can be in a range between 0.3 mm and 1 mm, in particular between 0.5 mm and 0.7 mm. Optionally, a coating film 4 can be applied to the second end face 11f. For example, a film 4 can be laminated, glued, or applied to the second end face 11f using a hot-pressing process. By means of the film, a visually appealing effect can be created in a simple and inexpensive manner.The optionally raised position of the second end surface 11f compared to the end surfaces 11e, 11g, 11h facilitates the application of the film 4, since an edge of the second strip 11B facing the first strip 11A forms a cutting edge along which the film 4 can be cut cleanly and easily.
[0079] As shown in Fig. 7, it can be provided that the first end surface 11e continuously continues the reflector surface 10a. For example, the first end surface 11e can continuously continue the reflector surface 10a at the end of the second reflector region 10D. The second reflector region 10C can be spaced apart from the first end surface 11e with respect to the vertical direction H1 and can be located remote from it with respect to the transverse direction C1. For example, the first reflector region 10C can end in the region of the second strip 11B with respect to the transverse direction C1. With respect to the vertical direction H1, one end of the first reflector region 10C can be located, in particular, on a side of the second strip 11B remote from the second end surface 11f.
[0080] As shown in Figs. 6 and 7, the reflector surface 10a may be particularly exposed through the light exit opening 1A. That is, preferably, no additional cover is provided to cover the light exit opening 1A.
[0081] The locking hooks 16 can be arranged in opposite end regions of the housing 1 with respect to the transverse direction C1. For example, a plurality of locking hooks 16 can be arranged distributed along the longitudinal direction L1 in the region of the first strip 11A and in the region of the second strip 11B. As shown by way of example in Figs. 7 and 8, the locking hooks 16 can each have an elastically deformable shaft extending along the vertical direction H1, at the end of which an engagement head is formed. This results in a simple and compact design of the locking hooks 16. The shafts of the locking hooks 16 can, for example, be connected to the first strip 11A or the second strip 11B, as shown purely by way of example in Fig. 7. As shown in Fig. 9, the locking hooks 16 can be locked to the pockets 216 to fix the lamp 100 in the recess 206. The engagement head of a respective locking hook 16 engages in a respective pocket 216.However, the invention is not limited thereto. Generally, the housing may have latching structures configured to engage with complementary engagement structures of the recess 206. The light 100 may generally be received in the recess 206 such that the longitudinal direction L1 of the light 100 is aligned along the vertical direction V of the household appliance 100. If the recess 206, as shown by way of example in Figs. 1 and 2, is formed in one of the side walls 205C, 205D, the first strip 11 may, in particular, be located facing the rear wall 205E.
[0082] The lighting device 2 can, in particular, have a carrier plate 20 extending in the longitudinal direction L1, e.g., in the form of a circuit board, on which a lighting means 21, e.g., in the form of an LED or a plurality of LEDs adjacent or spaced apart along the longitudinal direction L1, is arranged. The lighting means 21 is oriented toward the reflector surface 10a with respect to the transverse direction C1 in order to emit light in the direction of the reflector surface 10a. As shown by way of example in Figs. 7 and 8, the lighting device 2 can be arranged on a side of the second strip 11B facing away from the second end face 11f.
[0083] The lighting device 2 can be attached to the housing 1 or to the diffuser 3. For this purpose, a plurality of ribs 14 extending in the transverse direction C1 and in the vertical direction H1 can be provided, which are arranged at a distance from one another in the longitudinal direction L1, as shown by way of example in Fig. 8. The ribs 14 can protrude in the vertical direction H1 from an inner surface 11i of the second strip 11B, which is oriented opposite its second end surface 11f. In the transverse direction C1, the ribs 14 can protrude from the diffuser 3. The ribs 14 can be formed in one piece or integrally with the diffuser 3 and / or with the housing 1, in particular the second strip 11B. As further schematically shown in Fig. 8, the ribs 14 can each have a receiving slot 15 open in the vertical direction H1, in which the carrier plate 20 is received. As shown in Fig.8, an elastic hook 17 can be provided which projects from the inner surface 11 i of the second strip 11 B and engages around an edge region of the support plate 20 in order to fix it with respect to the vertical direction H1.
[0084] For the electrical supply of the lighting device 2, an electrical connection 5 can be provided, e.g., in the form of a socket into which the plug 241 of the cable 240 can be inserted in order to establish an electrical connection to a voltage source through the cable 240. The electrical connection 5 can be provided, e.g., on the housing 1, e.g., at one end of the housing 1 with respect to the longitudinal direction L1, as shown by way of example in Fig. 6. With respect to the transverse direction C1, the electrical connection 5 can be located in the region of the second strip 11B.
[0085] As can be seen in Fig. 9, only a very narrow gap exists between the bottom 206A of the recess 206 and the housing 1 of the luminaire 100 when the luminaire 100 is received in the recess 206. The groove 208 optionally provided in the bottom 206A of the recess 206 provides additional space in which the cable 240 can be guided between the housing 1 and the bottom 206A, in particular past the longitudinal wall 10, to the connection 5. In Fig. 3, a possible routing of the cable 240 in the groove 208 is shown by the dashed line K. The diffuser 3 is formed from a material that is partially transparent to visible light, e.g. a plastic material, and is designed to scatter the light emitted by the illuminant 21. In general, the diffuser 3 extends along the longitudinal direction L1 and can be designed, for example, as a substantially plate-shaped component, as shown in Figs. 6 to 8.Thus, the diffuser can also have a certain extent in the transverse direction C1 and extend, for example, between end regions 31, 32 which lie opposite one another in the vertical direction H1. As can be seen in particular in Fig. 7, the diffuser 3 can be arranged between the lighting device 2 and the reflector surface 10a with respect to the transverse direction C1. The diffuser 3 thus ensures that only scattered light strikes the reflector surface 10a. This prevents the formation of so-called hot spots on the reflector surface 10a. This phenomenon of locally hot surface areas occurs in particular when illuminants 21 with point-shaped or highly directional radiation characteristics are used. In addition, a more uniform light distribution can be achieved even when the light exit opening 1A is open.
[0086] The diffuser 3 can extend in particular between the second strip 11B and an end region of the longitudinal wall 10, as shown, for example, in Figs. 7 and 8. If the reflector surface 10a, as shown purely by way of example in Figs. 6 to 9, is formed with a concavely curved first reflector region 10C and a convexly curved second reflector region 10D, the first reflector region 10C can be located facing the diffuser 3 with respect to the transverse direction C1, and the second reflector region 10D can be located facing away from the diffuser 3 with respect to the transverse direction C1.
[0087] As further shown by way of example in Fig. 7, the diffuser 3 can be inclined by an angle a3 relative to the vertical direction H1, in particular in the direction of the light exit opening 1A. Thus, an angle a3 can be formed between a surface normal N to the first end surface 11e and the diffuser 3. The angle a3 can, for example, be in a range between 15 degrees and 25 degrees. The inclined arrangement of the diffuser 3 reduces its space requirement with respect to the vertical direction H1 and thus ensures an even more compact design of the luminaire 100. Regardless of the specific orientation of the diffuser 3, it can be advantageous if an optical axis A21 of the illuminant 21 is perpendicular to the diffuser 3, as is shown purely by way of example in Fig. 7. Optionally, the support plate 20 can extend parallel to the diffuser 3. If the support plate 20 is as shown in Fig.7 is inclined in the same way as the diffuser 3, the space required by the support plate 20 in the vertical direction H1 is also advantageously reduced. Furthermore, the light distribution of the light emitted by the luminaire 100 is improved, as will be explained below.
[0088] If the recess 206, as shown by way of example in Figs. 1 and 2, is formed in one of the side walls 205C, 205D, and the luminaire 100 is aligned with its longitudinal direction L1 along the vertical direction V, the diffuser 3 and the lighting device 2 can each be oriented facing the rear wall 205E. Thus, light can be emitted through the light exit opening 1A in the direction of the rear wall 205E and this can be illuminated, as schematically shown in Fig. 2. As a result, and advantageously in combination with the concavely and convexly curved reflector regions 10C, 10D, a very flat light exit angle from the light exit opening 1A can be achieved in this way, so that the luminaire can illuminate a very wide area. For example, the second reflector region 10D may be located facing the rear wall 205E with respect to the depth direction T, as shown in Fig. 2. In Fig.Figure 2 also schematically illustrates the light distribution LD generated by the luminaire 100. As can be seen in Figure 2, the luminaire 100 can illuminate the rear wall 205E relatively uniformly across almost its entire width, with light being emitted particularly close to a corner formed by the side wall 205C and the rear wall 205E.
[0089] It can be provided that the diffuser 3 is formed integrally with the housing 1. For example, the housing 1 and the diffuser 3 can be manufactured successively in a two-component molding process from a respective plastic material. For example, the diffuser 3 can be injection-molded first, optionally together with the ribs 14. Subsequently, the housing 1 can be injection-molded onto the already manufactured diffuser 3 and, if appropriate, the ribs 14, preferably from a different plastic material. As already mentioned, the ribs 14 can also be injection-molded together with the housing 1. In general, all parts of the housing 1, for example the longitudinal wall 10, frame 11, locking hooks 16 and, if they are part of the housing 1, the ribs 14, can be designed as a single piece. This applies regardless of the manufacture of the diffuser 3 and its connection to the housing 1.The one-piece design of diffuser 3 and housing 1 offers the advantage of allowing for an extremely compact design of the luminaire 100, since no additional mechanical connecting structures are required. Furthermore, handling and assembly of the luminaire 100 are simplified.
[0090] In order to connect the diffuser 3 to the housing 1 even more reliably, the diffuser 3 can be surrounded by material of the housing 1 at its end regions 31, 32 lying opposite one another in the vertical direction H1. As shown by way of example in Fig. 7, one end region 31 of the diffuser 3 can, for example, protrude into the cross-section of the longitudinal wall 10, and the opposite end region 32 can protrude into the cross-section of the second strip 11B. Optionally, the diffuser 3 can have an engagement profile 33 in at least one of the end regions 31, 32, which is surrounded by the material of the housing 1. Thus, Fig. 7 shows purely by way of example that the end region 32 of the diffuser 3 is provided with a step as the engagement profile 33. However, the invention is not limited to this form; rather, the engagement profile 33 can be designed in different ways.In general, the engagement profile 33 serves to form an undercut with respect to at least one direction in order to further stabilize the position of the diffuser 3.
[0091] With reference to Fig. 9, the compact design of recess 206 and luminaire 100 with respect to the vertical direction H1 is clearly visible. The compact, flat design of luminaire 100 results particularly advantageously from the combination of the measures explained above. However, the various measures also contribute to a compact design on their own. For example, the one-piece design of diffuser 3 and housing 1 eliminates the need for additional connecting structures. The inclined arrangement of diffuser 3 and / or lighting device 2 ensures a reduction in the dimensions of luminaire 100 in the vertical direction H1.
[0092] Likewise, the dimensions of the luminaire 100 in the vertical direction H1 can be reduced by designing the reflector surface 10a with a concavely curved first reflector region 10C and a convexly curved second reflector region 10D. Fig. 2 also shows, purely by way of example, the advantage that an optional insulating panel 220 without
[0093] Space conflict can be combined with the lamp 100.
[0094] Although the present invention has been explained above using exemplary embodiments, it is not limited thereto, but can be modified in a variety of ways. In particular, combinations of the above embodiments are also conceivable.
[0095] REFERENCE SYMBOL
[0096] 1 housing
[0097] 1A light exit opening
[0098] 2 lighting device
[0099] 3 Diffuser
[0100] 4 slides
[0101] 5 electrical connection
[0102] 10 Longitudinal wall
[0103] 10a Reflector surface
[0104] 10C first reflector area
[0105] 10D second reflector area
[0106] 11 frames
[0107] 11A first bar
[0108] 11 B second bar
[0109] 11C first cross bar
[0110] 11 D second cross bar
[0111] 11 e first end face
[0112] 11g, 11h End surfaces of the cross bars
[0113] 11f second end face
[0114] 11 i Inner surface of the second strip
[0115] 14 rib
[0116] 15 Recording slot
[0117] 16 locking hooks
[0118] 17 elastic hook
[0119] 20 carrier plate
[0120] 21 light bulbs
[0121] 31, 32 end areas of the diffuser
[0122] 33 Diffuser engagement profile
[0123] 100 lights
[0124] 200 household appliances
[0125] 202 Corpus
[0126] 203 Door
[0127] 204 Inner container 205 Walls
[0128] 205a Inner surface of the inner container
[0129] 205A Bottom of the inner container
[0130] 205b Outer surface of the inner container
[0131] 205B Inner container ceiling
[0132] 205C, 205D Side walls of the inner container
[0133] 205E Rear wall of the inner container
[0134] 206 Deepening of the wall of the inner container
[0135] 206A Bottom of the depression
[0136] 206B Peripheral section of the depression
[0137] 207 Opening
[0138] 208 groove
[0139] 210 Interior
[0140] 211 Access opening
[0141] 215 foam material
[0142] 216 pockets
[0143] 220 insulation panel
[0144] 230 backing part
[0145] 231 Base plate of the backing part
[0146] 231a Contact surface of the base plate
[0147] 231 b Outer surface of the base plate
[0148] 232 cable retaining parts
[0149] 233 Plug holder
[0150] 234 hooks
[0151] 236 Cable entry opening
[0152] 237A Base plate rib
[0153] 237B Base plate recess
[0154] 238 podium section
[0155] 240 cables
[0156] 241 plugs
Claims
PATENT CLAIMS 1. A luminaire (100) for mounting in a recess (206) of a wall (205) of a household appliance (200), comprising: a housing (1) with a longitudinal wall (10) extending in a longitudinal direction (L1) and having a reflector surface (10a); a lighting device (2) extending in the longitudinal direction (L1) and having a lighting means (21) facing the reflector surface (10a) with respect to a transverse direction (C1) in order to emit light in the direction of the reflector surface (10a); and a translucent disc extending in the longitudinal direction (L1) for transmitting the light emitted by the lighting means (21), which is arranged between the lighting device (2) and the reflector surface (10a) with respect to the transverse direction (C1); characterized in that the translucent disc is formed integrally with the housing (1).
2. Luminaire (100) according to claim 1, wherein the translucent pane and the housing (1) are each made of different plastics in a 2-component casting process.
3. Luminaire (100) according to claim 1 or 2, wherein the light-transmitting disc is surrounded by material of the housing (1) at end regions (31, 32) opposite one another in a vertical direction (H1).
4. Luminaire according to claim 3, wherein the translucent disc has an engagement profile (33) in at least one of the end regions (31, 32) which is surrounded by the material of the housing (1).
5. Luminaire (100) according to one of the preceding claims, wherein an optical axis (A21) of the illuminant (21) is perpendicular to the translucent disc.
6. Luminaire (100) according to one of the preceding claims, wherein the lighting device (2) has a support plate (20) extending in the longitudinal direction (L1), which preferably extends parallel to the translucent pane.
7. Luminaire (100) according to claim 6, additionally comprising: a plurality of ribs (14) extending in the transverse direction (C1) and in a vertical direction (H1), which ribs are arranged spaced apart from one another in the longitudinal direction (L1), wherein the ribs (14) each have a receiving slot (15) open in the vertical direction (H1), in which the carrier plate (20) is received.
8. Luminaire (100) according to claim 7, wherein the ribs (14) are formed integrally with the housing (1) and / or with the translucent pane.
9. Luminaire (100) according to one of the preceding claims, wherein the reflector surface (10a) has a first reflector region (10C) facing the light-transmitting disc with respect to the transverse direction (C1), in which the reflector surface (10a) is concavely curved, and a second reflector region (10D) facing away from the light-transmitting disc with respect to the transverse direction (C1), in which the reflector surface (10a) is convexly curved.
10. Luminaire (100) according to one of the preceding claims, wherein the housing (10) has a frame (11) which defines a light exit opening (1A), and the reflector surface (10a) is exposed through the light exit opening (1A), and wherein the frame (11) has a strip (11B) extending along the longitudinal direction (L1) which delimits the light exit opening (1A) in the transverse direction (C1), wherein the light-transmissive pane extends between the strip (11B) and an end region of the longitudinal wall (10) located in the region of the strip (11B).
11. Household appliance (200), in particular a household refrigeration appliance, comprising: an inner container (204) with a plurality of walls (205A-205E) which together define an interior space (210) for receiving objects, wherein a recess (206) is formed in one of the walls (205A-205E); and a luminaire (100) according to one of the preceding claims, which is received in the recess (206) such that the reflector surface (10a) faces the interior space (210).
12. Household appliance (200) according to claim 11, additionally comprising: an insulating panel (220) which is arranged on an outer side of the inner container (204) facing away from the interior space (210) and runs in the region of the recess (206).
13. Household appliance (200) according to claim 11 or 12, wherein an opening (207) is formed in a bottom (206A) of the recess (206), which opening is covered by a backing part (230) arranged on an outer surface (205b) of the inner container (204), wherein the backing part (230) has a cable feedthrough opening (236) through which a cable (240) connected to the lighting device (2) of the light (100) runs.
14. Household appliance (200) according to claim 13, wherein a groove (208) is formed in the bottom (206A) of the recess (206), in which groove the cable (240) is guided past the longitudinal wall (10) of the lamp (100).
15. Household appliance (200) according to one of claims 11 to 14, wherein the inner container (204) has two side walls (205C, 205D) each extending in a vertical direction (V), which are opposite to each other in a width direction (B), and a rear wall (205E) which extends in the width direction (B) between the side walls (205C, 205D) and delimits the interior space (210) with respect to a depth direction (T), wherein the recess (206) is formed in one of the side walls (205C, 205D), and wherein the longitudinal direction (L1) of the lamp (100) is aligned in the vertical direction (V).
Citation Information
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