Translation-rotation fitting for a furniture element, and furniture element

Abstract

A translation-rotation fitting (11) for a furniture element (1), in particular for seat furniture, room dividers, storage trays or shelves with at least one bearing plane, has a carrier plate (4, 15) and a bearing plate (3, 16), wherein the bearing plate (3, 16) and the carrier plate (4, 15) have planar bearing regions (31, 41, 151) facing each other, wherein the bearing plate (3, 16) is mounted so as to be rotatable relative to the carrier plate (4, 15) horizontally in one of two possible opposite directions of rotation (R1, R2) and displaceable in a plane parallel to the plane of the bearing regions (31, 41, 151), wherein the bearing regions (31, 41, 151) of the bearing plate (3, 16) and of the carrier plate (4, 15) have at least one running groove (32, 42, 152) and at least one guide element (7) protruding into the running groove (32, 42, 152) of the other of the bearing regions (31, 41, 151), wherein the running grooves (32, 42) are shaped in such a way that, when a force acts on the structure (2) in a horizontal direction defined by the planes of the bearing regions (31, 41, 151), the bearing plate (3, 16) is movable relative to the carrier plate (4, 15) in an at least partially forcibly guided, simultaneous rotational and translational movement in a first pivoting direction (R1) from a starting position to an end position, in which the bearing plate (3, 16) is pivoted relative to the carrier plate (4, 15) through a predetermined angle of 90° or a multiple thereof, and is pivotable back to the starting position in a pivoting direction (R2) counter to the first pivoting direction (R1), wherein at least one of the running grooves (32, 42, 152) has inserted and secured therein a catch component (5) with which the guide element (7) protruding into this running groove (32, 42, 151) can be reversibly caught in a predetermined position.

Description

[0001] Translation-rotation fitting for a furniture element and furniture element

[0002] The present invention relates to a translational-rotational fitting for a furniture element according to the preamble of claim 1.

[0003] The present invention further relates to a furniture element with a superstructure.

[0004] Translational-rotation fittings of this type and furniture elements using them are known, for example, from JP 10318669 or DE 10 2017 106 170 A1.

[0005] Especially when arranging several furniture elements side by side, which are equipped with the translational-rotation fittings described in the latter publication for their movement guidance, it is important to guide them into a predetermined end position to protect against collisions, as premature termination of the movement can lead to a collision with an adjacent furniture element.

[0006] The object of the present invention is to provide a translational-rotational fitting which, in a simplified manner, ensures that a desired position of the furniture element is reached after performing a translational-rotational movement and that the position of the furniture element is not unintentionally left.

[0007] The problem is solved by a translational-rotational fitting for a furniture element with the features of claim 1.

[0008] The problem is further solved by a furniture element with the features of claim 13.

[0009] The translational-rotational fitting according to the invention for a furniture element, such as, in particular, seating, room dividers, storage units or shelves with at least one storage level, household appliances, presentation surfaces, or room modules, comprises a support plate and a bearing plate, wherein the seating, room divider, storage unit or shelf with at least one storage level, presentation surface, room module, or similar form the structure. The bearing plate and the support plate have mutually facing, flat bearing areas.

[0010] The bearing plate is rotatable horizontally relative to the support plate in one of two possible opposite directions of rotation and is slidably mounted in a plane parallel to the plane of the bearing areas.

[0011] The bearing areas of the bearing plate and the support plate have at least one running groove as well as at least one guide element projecting into the running groove of the other bearing area.

[0012] Alternatively, only one of the two bearing areas has at least one running groove and the other bearing area has at least one guide element projecting into the first bearing area.

[0013] At least one running groove is shaped in such a way that, when force is applied to the structure in a direction defined in the plane of the bearing area, the structure can be moved relative to the support plate in an at least partially forced, simultaneous rotational and translational movement in a first pivoting direction from a starting position to an end position, in which the bearing plate is pivoted relative to the support plate by a predetermined angle of 90° or a multiple thereof and can be pivoted back to the starting position in a pivoting direction opposite to the first pivoting direction.

[0014] A catch component is inserted and attached in at least one of the running grooves, with which the guide element projecting into this running groove can be reversibly caught in a predetermined position.

[0015] By installing such a catch component in one of the running grooves, reliable feedback to the user of the furniture element is enabled, ensuring that the desired position of the furniture element has been achieved.

[0016] Advantageous embodiments of the invention are the subject of the dependent claims.

[0017] According to an advantageous embodiment, the catching component has a fixing frame, a catching area with at least one inlet ramp and a detent area designed as a recess adjoining the end of the inlet ramp in the inlet direction of the guide element, in which the guide element can be reversibly detented after reaching the detent area.

[0018] The ramped inlet ensures reliable entry of the guide element into the capture area.

[0019] The resting area following the inlet area provides haptic and / or acoustic feedback to the user that the guide element has reached the resting area and thus the furniture element has reached the desired position.

[0020] According to an advantageous further development, a recess is provided in at least one of the end areas of at least one of the running grooves, into which the catch component is inserted, which enables extremely simple assembly while simultaneously avoiding an increase in the structure of the translational-rotation fitting.

[0021] Advantageously, the catch component can be provided with damping, especially in the area that engages with the guide element, in order to guide the guide element quietly and gently into the end position.

[0022] The damping can be achieved, for example, through a buffer or a rubber coating.

[0023] According to an advantageous further development, a lifting-off device is arranged on at least one of the running grooves, securing the guide element projecting into this running groove against being lifted out.

[0024] In an advantageous embodiment, the anti-lift device is designed as a retaining element spanning the locking area of ​​the catch component, which, when the guide element is held in the locking area of ​​the catch component, at least partially covers a head piece of the guide element.

[0025] In a further advantageous design, the anti-lift device can be integrated with the catch component. Alternatively, the anti-lift device can be attached to the catch component or laterally to the bearing plate or support plate on which the bearing plate and catch component are mounted, adjacent to the running groove.

[0026] According to a further advantageous embodiment, at least one adjusting element is arranged on a side of the support plate facing away from the bearing plate, which is fixed to the support plate in a plane parallel to the plane of the bearing areas so as to be displaceable.

[0027] In a preferred embodiment of this adjusting element, a first adjusting element is designed as a first adjusting plate and a second adjusting plate is slidably arranged on the side of the first adjusting plate facing away from the carrier plate.

[0028] The first adjustment plate is movable in a first displacement direction relative to the carrier plate, and the second adjustment plate is fixed to the first adjustment plate and is movable in a second displacement direction relative to the carrier plate.

[0029] According to an advantageous embodiment, the first adjusting plate relative to the support plate and / or the second adjusting plate relative to the first adjusting plate can be guided in the first direction by means of bolts that are guided in elongated holes in one of the plates and attached to the other of the plates in order to guide the adjustment movement.

[0030] According to an alternative design variant, the adjusting element is designed as a control template with a countersunk screw protruding into a recess in the carrier plate, wherein the carrier plate is displaceable relative to the countersunk screws in a plane parallel to the plane of the bearing areas and can be fixed after tightening the countersunk screws.

[0031] According to one design variant, the control template is to be made in multiple parts in order to easily enable the support of carrier plates with different dimensions.

[0032] The furniture element according to the invention, in particular seating furniture, room divider, household appliance, storage unit or shelf with at least one storage level, presentation surface, room cell, has a structure with a base and a translational-rotation fitting arranged on the base, which is designed as described above.

[0033] In an advantageous design variant, the bearing plate is integrally formed with the base of the structure.

[0034] Preferred embodiments of the invention are explained in more detail below with reference to the accompanying drawings.

[0035] They show:

[0036] Fig. 1 shows a schematic isometric representation of an embodiment of a translational-rotational fitting according to the invention with a bearing plate arranged on the base of a furniture element.

[0037] Fig. 2 shows a partial exploded view of the translational-rotational fitting corresponding to Fig. 1, with the guide elements removed.

[0038] Fig. 3 shows a schematic isometric representation of a furniture element designed as a seat, with a seat and partition walls framing it from two sides, in a first open position in a corner of a room.

[0039] Fig. 4 is an isometric view of the seating furniture shown in Fig. 3 in a closed position and moved out of the corner of the room,

[0040] Fig. 5 shows a schematic isometric single view of an embodiment of a catch component according to the invention,

[0041] Fig. 6 shows a schematic isometric representation of a variant of a carrier plate with recesses for installing the catch component.

[0042] Fig. 7 shows a representation corresponding to Fig. 6 with a built-in catch component, Fig. 8 shows an isometric representation of a section of the carrier plate with a catch component installed in a recess at the end of a running groove and a guide element running into the catch component,

[0043] Fig. 9 shows a representation corresponding to Fig. 8 with the guide element retracted in the detent position of the catching element,

[0044] Fig. 10 shows a side view of the guide element retracted into the detent position in the position of the guide element shown in Fig. 9.

[0045] Fig. 11 shows a top view of the guide element retracted into the detent position of the catch component,

[0046] Fig. 12 isometric representation of a guide element secured in the detent position in the catch component by a variant of an anti-lift device,

[0047] Fig. 13 shows a representation corresponding to Fig. 12 before the guide element is inserted into the locking area of ​​the catch component,

[0048] Fig. 14 shows a sectional view through the guide element inserted into the locking area of ​​the catch component.

[0049] Fig. 15 shows a schematic isometric representation of a further embodiment of a carrier plate with an embodiment of an adjustment element consisting of two adjustment plates arranged below it.

[0050] Fig.

[0051] 16 - 18 Top views of the arrangement shown in Fig. 15 with adjustment elements arranged in different adjustment positions,

[0052] Fig. 19 shows another position of adjustment plates arranged on the carrier plate, corresponding to Fig. 15.

[0053] Fig. 20 is an exploded view of the arrangement shown in Fig. 19, Fig. 21 is an isometric partial exploded view of a further embodiment of a furniture base with a bearing plate arranged thereon and a separately shown support plate with retaining elements as well as an alternatively designed adjustment arrangement,

[0054] Fig. 22 is an exploded view of the arrangement shown in Fig. 21 with details of the alternatively designed adjustment arrangement,

[0055] Fig.

[0056] 23 - 24 Top views of the support plate in different adjustment positions,

[0057] Fig. 25 shows a side view of the arrangement according to Fig. 21 ,

[0058] Fig. 26 shows an isometric exploded view of another furniture element with a bearing plate arranged on the base and a support plate arranged below it with suction cups for fixing the support plate to a floor.

[0059] Fig. 27 shows a representation corresponding to Fig. 26 with a bearing plate fixed to the base of the furniture element and suction cups inserted into recesses in the support plate.

[0060] Fig.

[0061] 28 - 30 schematic isometric representations of another variant of a pair of furniture elements designed as seating furniture in different relative positions to each other,

[0062] Fig. 31 shows an isometric representation of a further embodiment of an adjustment arrangement with two template bodies mounted on a carrier plate.

[0063] Fig. 32 shows an isometric close-up view of the adjustment arrangement with template bodies arranged at a first distance from each other and

[0064] Fig. 33 shows an isometric close-up view of the adjustment arrangement with template bodies arranged at a second distance from each other. In the following figure descriptions, terms such as top, bottom, left, right, front, back, etc., refer exclusively to the exemplary representation and position of the translational-rotational fitting, the carrier plate, bearing plate, running groove, catch component, and the like as chosen in the respective figures. These terms are not to be understood as restrictive; that is, these references may change due to different working positions, mirror-symmetrical design, or the like.

[0065] In Figures 1 and 2, reference numeral 11 designates a total embodiment of a translational-rotation fitting according to the invention.

[0066] Figures 3 to 4 show a first embodiment of a furniture element 1, on which such a translational-rotational fitting 11 is attached to a base 23 of a superstructure 2 of the furniture element 1.

[0067] Another exemplary representation of a furniture element 1 in which such a translational-rotational fitting 11 can be installed is shown in Figures 28-30. Both furniture elements 1 are arranged relative to a wall 12.

[0068] Here, two furniture elements 1 designed as seating furniture with a bench-like seat 25 are shown. In front of this seat 25, a storage surface 24, here in the form of a table, is provided, which is attached to or projects from a superstructure wall 22 arranged to the side of the seat 25, as shown in Figure 30.

[0069] In these furniture elements 1 designed as seating furniture, a total of three partition sections are provided, which shield the seating furniture from three sides and thus enable separate seating in the arrangement shown in Figure 30, while in the positioning of the two furniture elements 1 to each other shown in Figure 28, there is a common seating area shielded to the outside by the partitions.

[0070] The movement of the furniture elements 1 between the representations shown in Figures 28 to 30 is effected in a simple manner by means of the translational-rotational fittings which are attached to the base 23 of a superstructure 2 of the respective furniture element 1. For the purposes of this application, a furniture element is understood to be, in particular, a piece of seating furniture, a room divider, a bed, a shelf or a cabinet with at least one storage level, a household appliance, or a presentation surface.

[0071] It is also conceivable to arrange and, in particular, to fasten an ensemble of furniture pieces, for example a workspace with office chair, desk and shelf, on the base 23 of the assembly 2 of the furniture element 1.

[0072] Several such furniture elements 1 can also be arranged adjacent to each other in ensembles of furniture.

[0073] For example, on the platform 23 of the assembly 2 of the first furniture element 1, the aforementioned furniture pieces can be arranged to furnish a workroom, and on the platform 23 of the assembly 2 of the adjacent second furniture element 1, furniture pieces can be arranged to furnish a rest area, whereby different orientations of the respective platform 23 can create a common large room section, or, depending on requirements, the office area can be turned away from the rest area or separated (by a partition wall on one side of one of the platform 23).

[0074] The translational-rotational fitting 11 shown in Figures 1 and 2 has a support plate 4 and a bearing plate 3. The bearing plate 3 and the support plate 4 have mutually facing flat bearing areas 31, 41. For additional support of the superstructure 2, sliding or rolling elements 21 are arranged in the corner areas of the superstructure base 23.

[0075] The bearing plate 3 is rotatable relative to the support plate 4 horizontally in one of two possible opposite directions of rotation Ri , R2, for example shown in Figures 3 and 28, and is displaceable in a plane parallel to the plane of the bearing areas 31 , 41.

[0076] To guide the translational-rotational movement, the bearing areas 31, 41 of the bearing plate 3 and the support plate 4 each have at least one raceway 32, 42 and at least one guide element 7 projecting into the raceway 32, 42 of the other bearing area 31, 41. Alternatively, only one of the two bearing areas has at least one raceway and the other bearing area has at least one guide element projecting into the first bearing area.

[0077] The guide element 7 is, as shown in Figures 1, 2 and 8 to 10, essentially bolt-shaped, with a head piece 71 that can be guided in the respective running groove 32, 42, a neck piece 72 for fixing in a bore of the bearing plate 3 or the support plate 4 and a fastening collar 73 for vertically fixing the guide element 7 to the bearing plate 3 or the support plate 4.

[0078] The running grooves 32, 42 are shaped such that, when force is applied to the structure 2 in a horizontal direction defined by the planes of the bearing areas 31, 41, the bearing plate 3 is movable relative to the support plate 4 in a at least partially forced, simultaneous rotational and translational movement in a first pivoting direction Ri from a starting position to an end position, in which the bearing plate 3 is pivoted relative to the support plate 4 by a predetermined angle of 90° or a multiple thereof and can be pivoted back to the starting position in a pivoting direction R2 opposite to the first pivoting direction Ri.

[0079] As further illustrated by way of example in Figures 1, 2 and 7, a catch element 5 is inserted and fastened in at least one of the running grooves 32, 42. This catch element 5 allows the guide element 7 projecting into this running groove 32, 42 to be reversibly captured in a predetermined position.

[0080] In the embodiment shown in Figures 1 and 2, the catch component 5 is inserted into a recess at the end of one running groove 32.

[0081] In the embodiment shown in Figures 6, 7 and 21 to 24, the catch component 5 is inserted in a recess 43 of the carrier plate 4 and is fixed, for example, by means of screws.

[0082] The catching component 5, as shown in a detailed illustration in Figure 5, preferably has a fixing frame 51, a catching area 52 with at least one inlet ramp 53 and a detent area 54, designed as a return step, adjoining the end of the inlet ramp 53 in the inlet direction of the guide element 7, in which the guide element 7 can be reversibly detented after reaching the detent area 54.

[0083] The fixing frame 51 rests, as shown by way of example in Figure 7, on the bearing area 41 of the support plate 4 or on the bearing area 31 of the bearing plate 3, as shown in Figures 1 and 2. The fixing frame 51 can then have bores, as shown by way of example in Figure 5, which serve to receive a screw for fixing the catch component 5 to the support plate 4 or the bearing plate 3. Alternatively, the catch component 5 can also be fixed in or on the bearing area 31, 41.

[0084] The catch component 5 is inserted into a recess 43 at at least one of the running grooves 32, 42 in an end region. A corresponding recess is also provided analogously when the catch component 5 is fixed to the bearing plate 3.

[0085] The two inlet ramps 53 narrow a channel forming the trapping area 52, into which the guide element 7 enters.

[0086] A stop 55 of the catch component 5 limits the inlet path. For example, damping in the form of a buffer or rubber lining can be provided in the area of ​​the stop 55 or in the area of ​​the channel.

[0087] Behind the inlet ramps 53 begins the resting area 54, which rusts the respective guide element 7.

[0088] The inlet chamfers 53 are designed here as edges of the catch component 5, which can be pushed apart when the guide element 7 enters and spring back to their initial position after the guide element 7 has passed through, thus holding the guide element 7 in its detent position in the detent area 54.

[0089] Figures 8 and 9 illustrate the entry of the guide element 7, with in Figure 8 the guide element 7 having entered the catch area 52 and after passing through the entry ramps 53 reaching the resting area 54, as shown in Figure 9.

[0090] Figure 10 shows again the detent position of the guide element 7 in the detent area 54 of the catch component 5 in a side view. Figure 11 shows the guide element 7 in the position in the detent area 54 in a top view. In this figure it is also clearly visible that the guide element 7 rests against the stop 55 of the catch component 5.

[0091] As further shown in Figures 12 to 14, a lifting-protection device 6 is arranged on at least one of the running grooves 32, 42, securing the guide element 7 projecting into these running grooves 32, 42 against lifting out.

[0092] The anti-lift device 6 is preferably designed as a retaining element spanning the locking area 54 of the catch component 5, which, when the guide element 7 is held in the locking area 54 of the catch component 5, at least partially covers a head piece 71 of the guide element 7, as shown by way of example in Figure 12.

[0093] The anti-lift device 6 has, as further shown in Figures 12 and 13, a fixing area 61 which serves to fix the anti-lift device 6 to the catch component 5 and / or to the support plate 4 or the bearing plate 3.

[0094] The anti-lift device 6 prevents lifting in a vertical direction by means of a contact surface 62 in the central area of ​​the anti-lift device 6.

[0095] To reach the resting area 54 in the catch component 5, a neck piece 72 of the guide element 7 runs into an inlet groove 63 of the anti-lift device 6, wherein the neck piece 72 of the guide element 7 has a smaller diameter than the head piece 71 of the guide element 7.

[0096] While the anti-lift device 6 is attached to the catch component 5 or laterally to the running rails 32, 42 on the bearing plate 3 or the support plate 4 as shown in Figures 12 to 14, it is also conceivable to form the anti-lift device 6 integrally with the catch component 5.

[0097] As further illustrated in Figures 15 to 20, at least one adjustment unit is preferably arranged on one side of the support plate 4 facing away from the bearing plate 3. This adjustment unit is slidably fixed to the support plate 4 in a plane parallel to the plane of the bearing areas 31, 41. The adjustment unit preferably consists of a first adjustment plate 8 and a second adjustment plate 9, as can be clearly seen in Figures 19 and 20, wherein the second adjustment plate 9 is slidably arranged on the side of the first adjustment plate 8 facing away from the support plate 4.

[0098] The first adjustment plate 8 is displaceable in a first displacement direction x relative to the support plate 4 and the second adjustment plate 9 is displaceable in a second displacement direction y relative to the support plate 4 and is fixed to the first adjustment plate 8.

[0099] Both the carrier plate 4 and the first adjustment plate 8 have at least one elongated hole 47, 82 in which a guide pin 81, 91 can be moved in the x or y direction.

[0100] The guide pin 81 is attached to the first adjusting plate 8 in a pin receptacle 83. The guide pin 91 is also attached to the second adjusting plate 9 in a pin receptacle 93.

[0101] Preferably, both the first and the second adjusting plate 8, 9 have two such guide pins 81, 91.

[0102] To make the guide pin 91 of the second adjusting plate 9 accessible, a slot 47 is provided in the carrier plate 4, the width of which is such that the guide pin 91 is accessible in the adjusting plate 8.

[0103] Figures 21 to 25 show an alternative embodiment of such an adjustment unit. Here, the adjustment unit is designed as a control template 10, with countersunk screws 101 projecting into a recess 48 of the carrier plate 4.

[0104] The support plate 4 is displaceable relative to the countersunk screws 101 in a plane parallel to the plane of the bearing areas 31, 41 and can be fixed after tightening the countersunk screws 101, after adjustment has been made.

[0105] As illustrated by way of example in Figure 22, the control template 10 has, in addition to the countersunk screws 101, a template body 102 with laterally bent support surfaces 103 with bores 104 in which the countersunk screws 101 are fixedly fixed. Further fixing beams 105 are provided as additional support surfaces for the carrier plate 4, from which bolts 106 protrude from the underside, serving to fix the control template 10 to a floor.

[0106] The countersunk screws 101 are received in a corresponding recess 48 of the carrier plate 4, the diameter of which is larger than the screw neck of the countersunk screws 101, in order to allow the carrier plate 4 to be moved relative to the control template 10 in the xy-plane.

[0107] Figures 23 and 24 show exemplary orientations of the carrier plate 4 relative to the control template 10.

[0108] Figure 25 shows a base 23 with a bearing plate 3 attached to it and a support plate 4 arranged below it with a control template 10 attached to it and bolts 106 protruding downwards from the control template 10.

[0109] It is also conceivable to design the control template 10 in multiple parts. In the embodiment shown in Figures 31 to 33, the control template 10 has two template bodies 102 which can be positioned at variable distances di, d2 from each other, depending on the dimensions of the support plate 4. This allows for the simple support of support plates with different dimensions.

[0110] For further stabilization, the bearing surfaces 103 of the template bodies 102 are connected to each other via a connecting plate 107, as shown in Figures 32 and 33. The connecting plate 107 is designed to be wide according to the distance di, d2 between the template bodies 102.

[0111] Figures 26 and 27 show another structure 2 with base 23, side walls 22 and storage area 24, with a bearing plate 16 attached to the base 23.

[0112] Several guide elements 7 are attached to this bearing plate 16, which protrude into running grooves 152 of a carrier plate 15.

[0113] A bearing area 151 of this support plate 15 faces the underside of the bearing plate 16, which also forms a bearing area. The support plate 15 is fixed to the floor of a room here by means of suction cups 14.

[0114] Each of the suction cups 14 has a suction element 141 for fixed attachment to a floor.

[0115] A rotatably mounted locking arm 142 is fixed to this suction element 141, which can be pushed onto a support surface 153 of the carrier plate 15 by rotating it, thus fixing the carrier plate 16 to the floor of the room.

[0116] The suction parts 141 of the suction cups 14 are received in recesses 154 of the carrier plate 15.

[0117] Reference symbol list

[0118] 1 furniture element

[0119] 2. Structure

[0120] 21 Sliding or rolling element

[0121] 22 Wall assembly

[0122] 23 Construction floor

[0123] 24 storage spaces

[0124] 25 Seating area

[0125] 3 bearing plates

[0126] 31 Storage area

[0127] 32 running groove

[0128] 33 recess

[0129] 4 Carrier plate

[0130] 41 Storage area

[0131] 42 running groove

[0132] 43 recess

[0133] 47 Slotted hole

[0134] 48 Exclusion

[0135] 5 Catching component

[0136] 51 fixing frames

[0137] 52 Catching area

[0138] 53 Inlet slope

[0139] 54 Rest area

[0140] 55 stop

[0141] 6. Lift-off protection

[0142] 61 Fixing area

[0143] 62 site area

[0144] 63 Inlet groove

[0145] 7 Guide element

[0146] 71 Headpiece

[0147] 72 Neck piece

[0148] 73 Mounting collar 8 First adjustment plate

[0149] 81 guide pins

[0150] 82 Slotted hole

[0151] 83 bolt holder

[0152] 9 second adjustment plate

[0153] 91 guide pins

[0154] 93 bolt holder

[0155] 10 Tax template

[0156] 101 Pan head screw

[0157] 102 template bodies

[0158] 103 Contact area

[0159] 104 bore

[0160] 105 fixing bars

[0161] 106 bolts

[0162] 107 Connecting plate

[0163] 11 Translation-rotation fitting

[0164] 12 Wall

[0165] 14 suction cups

[0166] 141 Suction part

[0167] 142 locking arm

[0168] 15 Carrier plate

[0169] 151 Storage area

[0170] 152 Running groove

[0171] 153 Support surface

[0172] 154 Exclusion

[0173] 16 Bearing plate x direction y direction z direction

[0174] Direction of rotation

[0175] R2 Direction of rotation

Claims

Claims 1. Translational-rotational fitting (11) for a furniture element (1), in particular seating furniture, room divider, household appliance, storage unit or shelf with at least one storage level, presentation area, room module, comprising - a carrier plate (4, 15) and a bearing plate (3, 16), - wherein the bearing plate (3, 16) and the support plate (4, 15) have mutually facing planar bearing areas (31 , 41 , 151 ), - wherein the bearing plate (3, 16) is rotatable horizontally relative to the support plate (4, 15) in one of two possible opposite directions of rotation (Ri , R2) and displaceable in a plane parallel to the plane of the bearing areas (31 , 41 ), - wherein the bearing areas (31 , 41 , 151 ) of the bearing plate (3, 16) and the support plate (4, 15) have at least one running groove (32, 42, 152) and / or at least one guide element (7) projecting into the running groove (32, 42, 152) of the other of the bearing areas (31 , 41 , 151 ), - wherein the running grooves (32, 42, 152) are shaped such that, when force is applied to the structure (2) in a horizontal direction defined by the planes of the bearing areas (31, 41, 151), the bearing plate (3, 16) is movable relative to the support plate (4, 15) in an at least partially guided, simultaneous rotational and translational movement in a first pivoting direction (Ri) from an initial position to an end position, in which the bearing plate (3, 16) is pivoted relative to the support plate (4, 15) by a predetermined angle of 90° or a multiple thereof and can be pivoted back to the initial position in a pivoting direction (R2) opposite to the first pivoting direction (Ri), characterized in that - in at least one of the running grooves (32, 42, 151) a catch component (5) is inserted and fastened, with which the guide element (7) projecting into this running groove (32, 42, 151) can be reversibly caught in a predetermined position.

2. Translational-rotational fitting (11) according to claim 1, characterized in that the catch component (5) has a fixing frame (51), a catch area (52) with at least one lead-in ramp (53) and a detent area (54) designed as a return step adjoining the end of the lead-in ramp (53) in the lead-in direction of the guide element (7), in which the guide element (7) can be reversibly locked after reaching the detent area (54).

3. Translational-rotational fitting (11 ) according to claim 1 or 2, characterized in that in at least one end region at least one of the running grooves (32, 42, 151 ) a recess (33, 43) is provided into which the catch component (5) is inserted.

4. Translational-rotational fitting (11) according to one of the preceding claims, characterized in that the catch component (5) is provided with a damping element.

5. Translational-rotational fitting (11) according to one of the preceding claims, characterized in that a lifting-protection device (6) is arranged on at least one of the running grooves (32, 42, 151) which secures the guide element (7) projecting into this running groove (32, 42, 151) against being lifted out.

6. Translational-rotational fitting (11 ) according to claim 5, characterized in that the anti-lift device (6) is designed as a retaining element spanning the detent area (54) of the catch component (5) which at least partially covers a head piece (71 ) of the guide element (7) when the guide element (7) is held in the detent area (54) of the catch component (5).

7. Translational-rotational fitting (11 ) according to claim 5 or 6, characterized in that the anti-lift device (6) is integrally formed with the catch component (5).

8. Translational-rotational fitting (11) according to claim 5 or 6, characterized in that the anti-lift device (6) is attached to the catch component (5) or laterally to the running rail (32, 42, 151) on the bearing plate (3, 16) or carrier plate (4, 15) on which the running rail (32, 42, 151) is arranged with the catch component (5).

9. Translational-rotational fitting (11) according to one of the preceding claims, characterized in that at least one adjustment unit is provided on one side of the support plate (4) facing away from the bearing plate (3). is arranged in a plane parallel to the plane of the bearing areas (31 , 41 ) and is fixed to the support plate (4) so ​​as to be displaceable.

10. Translational-rotational fitting (11) according to claim 9, characterized in that a first adjusting element of the adjusting unit is designed as a first adjusting plate (8) and a second adjusting plate (9) is slidably arranged on the side of the first adjusting plate (8) facing away from the carrier plate (4), wherein the first adjusting plate (8) is slidable in a first displacement direction (x) relative to the carrier plate (4) and the second adjusting plate (9) is slidably fixed to the first adjusting plate (8) in a second displacement direction (y) relative to the carrier plate (4).

11. Translational-rotational fitting (11 ) according to claim 9 or 10, characterized in that the first adjusting plate (8) relative to the carrier plate (4) and / or the second adjusting plate (9) relative to the first adjusting plate (8) can be guided in the first direction via guide bolts (81 , 91 ) guided in elongated holes (47, 82) in one of the plates and attached to the other of the plates.

12. Translational-rotational fitting (11 ) according to claim 9, characterized in that the adjusting element is designed as a control template (10), with countersunk screws (101) projecting into a recess (48) of the carrier plate (4), wherein the carrier plate (4) is displaceable relative to the countersunk screws (101 ) in a plane parallel to the plane of the bearing areas (31 , 41 ) and can be fixed after tightening the countersunk screws (101 ).

13. Translation-rotation fitting (11 ) according to claim 12, characterized in that the control template (10) is designed in multiple parts, with two template bodies (2) which can be positioned at variable distances (di, d?) from each other depending on the dimensions of the carrier plate (4).

14. Furniture element (1), in particular seating furniture, room divider, household appliance, storage unit or shelf with at least one storage level, presentation area, room cell comprising a structure (2) with a base (23) and a translation-rotation fitting (11) arranged on the base (23), characterized in that the translation-rotation fitting (11) is designed according to one of the preceding claims.

15. Furniture element (1 ) according to claim 14, characterized in that the bearing plate (3,16) is integrally formed with the base (23). 5

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