ITEM OF FURNITURE

Abstract

A piece of furniture includes a furniture body with an upper floor, a flap, and least one flap fitting arranged on the upper floor in order to hold the flap movably between a position closing a storage space of the furniture body and an opening position. The flap fitting includes a housing, on which a support arm is rotatably mounted, which includes a retaining element for fixing the flap, and an energy store for applying a force to the support arm. A damper is provided for braking a movement of the support arm in the closing direction shortly before the closing position is reached. The damper can be moved via an actuating element mounted in the housing and the support arm can be braked via the actuating element when the flap is moved in the closing direction shortly before reaching the closing position.

Description

The present invention relates to a piece of furniture having a furniture body with an upper floor and a flap, wherein at least one flap fitting is arranged on the upper floor in order to hold the flap movably between a position closing a storage space of the furniture body and an opening position, wherein the flap fitting comprises a housing on which a support arm is rotatably mounted, which includes a retaining element for fixing the flap, and comprises an energy store, by means of which a force can be applied to the support arm, and a damper is provided, by means of which a movement of the support arm in the closing direction can be braked shortly before the closing position is reached.

DE 203 07 958 U1 discloses a furniture fitting for guiding a pivotable flap, which can be mounted on a top side of a furniture body. The furniture fitting includes a support arm for holding the flap and a separate damping element, which is fixed to the upper floor and interacts with a projection on a support arm when the flap is closed. Due to this arrangement, the fitting builds up very high and damping energy is introduced directly into the upper floor, which can guide deformation of the upper floor.

It is therefore the problem to be solved by the present invention to create a piece of furniture which has an improved introduction of damping energy when a flap is moved in the furniture.

This problem is solved with a flap fitting with the features of claim 1.

The furniture according to the invention comprises a furniture body with an upper floor and a flap, at least one flap fitting being arranged on the upper floor in order to hold the flap movably between a position closing a storage space of the furniture body and an opening position, the flap fitting comprising a housing on which a support arm is rotatably mounted, which comprises a retaining element for fixing the flap, and an energy store, by means of which the support arm can be subjected to a force, and a damper is provided, by means of which a movement of the support arm in the closing direction can be braked shortly before the closing position is reached, the damper being movable by means of an actuating element mounted in the housing. The damper can thus be used for closing damping of the flap, whereby the damping energy is optimally introduced into the piece of furniture. The flap fitting can be compactly formed.

To avoid hard impact noise, the support arm can be braked shortly before reaching the closing position when moving in the closing direction.

The support arm is preferably aligned essentially parallel to the upper floor in its longitudinal direction when the flap is in the closed position. This allows the flap fitting to be formed compactly in the vertical height direction in the closing position.

The actuating element is preferably formed as a rotary lever, which is rotatable about an axle on the housing. A curve guide can be formed on the actuating element, along which a roller or a sliding element can be moved to actuate the damper. This allows the force transmission to be optimally adjusted to the position of the flap on the support arm. Instead of being designed as a rotary lever, the actuating element can also be formed by a guide, for example a linear guide.

In a further embodiment, a projection is provided on the support arm, by means of which the actuating element can be moved shortly before reaching the closing position. A roller can be rotatably mounted on the free end of the projection, which acts on the actuating element so that low frictional forces are present during the movement. Alternatively, a sliding surface can also be provided on the projection, which acts on the actuating element. The sliding surface can be an integral part of the projection or arranged as a separate sliding piece on the projection.

To achieve high damping forces, the damper can be formed as a linear damper with a damper housing and a piston rod that can be moved relative to the damper housing, in particular as a fluid damper, whereby the damper is preloaded into an extended position by a spring. The damper can be fixed to the housing of the flap fitting and can be moved directly or indirectly via the actuating element. Advantageously, the linear damper is arranged relatively horizontally aligned in the housing. As a result, the damping energy is better introduced into the upper floor, so that deflection of the upper floor due to the reduction of the damping energy is avoided. Preferably, the damper is arranged in the housing and one direction of action of the damper, which is designed as a linear damper, is aligned essentially parallel to the upper floor when the flap fitting is mounted on the piece of furniture.

The damper and the energy store can counteract the closing damping of the flap, while the weight of the flap supports the closing movement. It is also possible for the damper to dampen the movement of the flap in the opening direction via the actuating element shortly before reaching the opening position.

The damper and the weight of the flap can then counteract the opening movement of the flap by means of opening damping, while the energy store supports the opening movement.

The support arm is preferably articulatedly connected to a drive lever, which is articulatedly connected to a deflection lever, by means of which the actuating element can be operated before reaching the maximum opening position. The deflection lever can be rotatable about an axle on the housing, with the opening damping being effected by the movement of the deflection lever.

The retaining element for fixing the flap is preferably arranged at the free end on the support arm. The retaining element can comprise a latching mechanism for fixing the flap for tool-free assembly.

For a compact design, the actuating element is unactuated in the opening and closing direction at least in a central section of the swivel range of the flap, so that movement of the actuating element is only necessary in a range of movement before an end position of the support arm.

The energy store preferably includes at least one spring, which is formed in particular as a compression spring and is held with one end on a housing and with an opposite end on a spring holder. A pulling element is fixed to the spring holder. This allows the flap fitting to be formed particularly compactly and can provide high forces. For example, one to six springs can be arranged parallel to each other between the housing and the spring holder. The springs can be guided on pins to ensure linear movement. However, other energy stores can also be used, for example with tension springs or other spring elements.

Preferably, the support arm is connected to a drive lever, which in turn is articulated to a deflection lever. Preferably, the articulation of the drive lever is provided in a central portion of the support arm, preferably in a range between 25% and 75% of the length of the support arm.

For improved handling, an opening limiter can be provided between two components that can be moved relative to each other, for example the drive lever and the deflection lever, by means of which the maximum opening position of the support arm can be adjusted. This can prevent the flap from being arranged too high when it is raised to the maximum opening position that would make it difficult for the user to grip. In addition, the maximum opening position can be adjusted depending on the installation position. For this purpose, the opening limiter can be adjusted using an adjustment element, such as a threaded pin. Optionally, a damper, in particular a linear damper, can be provided on the opening limiter, which can be actuated when the support arm is moved in the opening direction shortly before the maximum opening position is reached.

The energy store is preferably connected to the deflection lever via a connection that can be adjusted in position, so that the effect of the energy store can be changed by adjusting the connection. By adjusting the connection, the working stroke of the energy store and the effect of the energy store can be changed depending on the position of the support arm. This allows increased flexibility when adjusting the energy store to adapt to the weight of the flap.

Preferably, the connection is held on an adjustment means by which the position of the connection relative to the deflection lever can be adjusted. This allows the point at which the energy store applies force to be changed, which changes the effective leverage effect when the support arm is moved. The energy store acts on the deflection lever via the connection, so that the effective lever length can be changed via the distance between the axis of rotation and the connection.

The adjustment means for the connection preferably includes a linear guide, although alternatively a curve guide or a pivoting lever can also be provided to change the position of the connection. If a linear guide is inserted, a rotatable spindle can be provided, for example, which can be adjusted by simple means and enables a compact design. Other linear guides can also be used, for example a toothed rack or latching mechanism with different mounting positions.

Preferably, the adjustment means forms a unit with the deflection lever, which is articulated to the drive lever on the one hand and articulated to the housing on the other. As a result, the connection remains essentially adjacent to the housing, as the drive lever covers a greater distance via the support arm. The adjustment means can be fixed to the deflection lever or can be mounted rotatable around the two axes together with the deflection lever.

In a further embodiment, the energy store is coupled to the adjustable connection via a lever. This allows the energy store to be guided essentially linearly, while a connection between the connection and the energy store is established via the lever or a pulling element.

The piece of furniture can be formed as a wall unit in a kitchen, for example. Preferably, the flap is held on several flap fittings, in particular on opposite sides. The flap fitting can be arranged to lie concealed on the upper floor, for example if the side walls are raised at least to the height of the flap fitting. The flap fitting can be attached to the raised side walls and/or to the upper floor.

In a further embodiment, the depth, side, height and/or inclination of the flap can be adjustable. The adjusting device can be provided on the housing of the flap fitting and or on the fastening interface between the retaining element and the flap. Eccentrics, worm gears, slotted holes and/or molded parts with threads or screws can be used here as adjusting means for setting the relative position in a spatial direction of the flap to the piece of furniture.

The invention is explained in more detail below with reference to several embodiments with reference to the accompanying drawings. It is shown in:

FIG. 1 a perspective view of a piece of furniture with a flap fitting;

FIG. 2 a perspective view of the piece of furniture in FIG. 1 with the flap open;

FIGS. 3A to 3C several sectional views of the piece of furniture in

FIG. 1 in different positions;

FIG. 4 a view of the flap fitting without the piece of furniture;

FIG. 5 a view of the flap fitting of FIG. 4, partially in section;

FIG. 6 a view of the flap fitting of FIG. 4 in different positions to show a minimum working stroke;

FIG. 7 a view of the flap fitting of FIG. 4 in different positions to show a maximum working stroke;

FIG. 8 a view of the flap fitting of FIG. 4 with different spring bias,

FIGS. 9A and 9B two views of the flap fitting to show the closing damping;

FIGS. 10A and 10B two views of the flap fitting of FIG. 4 to show the opening damping;

FIGS. 11A to 11C several views of the flap fitting of FIG. 4 to show an opening limiter;

FIG. 12 is a detailed view of the opening limiter;

FIGS. 13A and 13B two views of a modified opening limiter with a linear damper;

FIG. 14 is a perspective view of the flap fitting in a middle opening position;

FIGS. 15A and 15B two views of a modified piece of furniture with a flap fitting according to the invention, and

FIGS. 16A and 16B two sectional views of the piece of furniture of FIG. 15 in different positions.

A piece of furniture 1 includes a furniture body 2, on which a flap 3 is pivotably held via two flap fittings 10. The piece of furniture 1 can be formed as a wall unit or other piece of cabinet furniture. The flap 3 is essentially plate-shaped and is held pivotable via a support arm 11 of the flap fitting 10, as can be seen in FIG. 2. The flap fitting 10 is arranged on an upper floor 4 and positioned in a free space 70 between two side walls of the furniture body, with the side walls optionally projecting beyond the upper floor 4. In the open position of the flap 3, a storage space 80 is accessible from a front side of the furniture body 2.

As shown in FIGS. 3A and 3B, the furniture body 2 comprises a floor 5 and the upper floor 4, wherein optionally one or more shelf floors 6 can be arranged in the furniture body 2. On one top side of the upper floor 4, a flap fitting 10 is fixed on opposite sides, which includes a housing 12 on which a support arm 11 is rotatable about a horizontal axle 41. The side walls of the furniture body 2 project beyond the upper floor 4, so that the flap fitting 10 is not visible in the horizontal direction.

FIG. 3B shows a maximum opened position of the flap fitting 10, where the flap 3 is arranged with a lower edge below the upper floor 4. The maximum opening position can be set via an adjustable opening limiter, as shown in FIG. 3C. The maximum opening position is now arranged so that the lower edge of the flap 3 is essentially on a horizontal plane with a bottom side of the upper floor 4.

FIG. 4 shows the flap fitting 10 without a piece of furniture. The flap fitting 10 includes the support arm 11 rotatably mounted on the housing 12 on a support element 42, to which a retaining element 13 is fixed at the free end, which serves to fasten the flap 3.

In FIG. 5, the flap fitting 10 is shown in a pivoted position of the support arm 11 and partially in section. A rotary catch 14 is rotatably mounted on the support arm 11 on the retaining element 13. The rotary catch 14 serves to lock the retaining element 13 to the support arm 11, in particular for tool-free assembly of the flap 3. When the flap 3 is assembled, the rotary catch 14 engages and fixes the retaining element 13 and the support arm 11 to each other. The rotary catch 14 is thereby pretensioned into an end position via a spring element 15 and is mounted on the support arm 11 about an axis of rotation 16, although optionally such a mounting can also be dispensed with and the retaining element 13 can be firmly fixed to the support arm 11 or formed integrally therewith.

In a central portion of the support arm 11, preferably in a range between 25% and 75% of the length of the support arm 11, there is an axle 44 to which a drive lever 17 is articulated. The drive lever 17 is articulated about an axle 23 in connection with a deflection lever 18. The deflection lever 18 is rotatable about an axle 39 on the housing 12. The support arm 11 is rotatably mounted on the housing 12 about an axle 41.

The flap fitting 10 includes an energy store 30 with at least one spring, in particular a coil spring, which is arranged between a support 35 on the housing 12 and a spring holder 32. The at least one spring or the springs of the energy store 30 are each arranged around a guide pin 31, which can optionally be telescoped and thus ensures axial alignment of the springs of the energy store. The springs of the energy store 30 are loaded in compression.

The spring holder 32 is connected via a pulling element 33, in particular a tension rod, to a pin 61, which forms a hinge axle for a lever 22. The lever 22 is thus articulated on one side to the pulling element 33 and articulated on the opposite side via a further axle 21 to a connection 19 in the shape of a carriage. The carriage includes a threaded bushing for a spindle 20, which is rotatably mounted on the deflection lever 18 or a component connected thereto. The spindle 20 is rotatable via a drive element in order to be able to adjust the connection 19 in the longitudinal direction of the spindle 20.

An adjustment element 24 for adjusting the position of an opening limiter 26, which is rotatable on an insert 25, is arranged on the deflection lever 18 adjacent to the axle 23. The opening limiter 26 can interact with a linear damper 27, which is held in a damper holder 28 on the drive lever 17. Alternatively, the linear damper 27 can also be provided on the deflection lever 18 and the opening limiter 26 on the drive lever 17. Optionally, the linear damper 27 can also be omitted.

A further damper 37 is arranged in the housing 12 and can be actuated via a damper guide 38, in particular by pressing a piston rod into a damper housing, which is preloaded into the extended position by a spring. The damper guide 38 can be moved via an actuating element 40.

A projection 43 with a roller 45 is arranged in a central portion on the support arm 11, which can be pressed against the actuating element 40 for closing damping.

In FIG. 6, the flap fitting 10 is shown in two different positions, namely once with the support arm 11 in a closing position and once in a maximum opening position, in which the support arm 11 has been pivoted by essentially 90°. As a result of the movement of the support arm 11, the drive lever 17, the deflection lever 18 and the lever 22 were also pivoted, so that the energy store 30 was able to relax slightly during the movement from the closing position to the maximum opening position, as shown by the working stroke Amin. Because of the small movement of the energy store 30, only a small force acts in the opening direction during the entire pivot path, which is advantageous for lightweight flaps 3. An effective lever length between the joint axis between the lever 22 and the deflection lever 18 and the effective direction of the energy store 30 is small. Optionally, a dead center can also be passed through when the support arm 11 is lowered, so that the energy store 30 ensures that the flap 3 is tightened against the furniture body 2.

FIG. 7 shows a modified setting in which the adjustment means with the rotatable spindle 20 has been adjusted so that the axle 21 for mounting the lever 22 is no longer arranged adjacent to the axle 39 of the deflection lever 18 on the housing 12, but rather in a central portion of the deflection lever 18. This increases the effective lever length and also results in the working stroke A_max of the maximum stroke of the energy store 30 being significantly greater than in the adjustment shown in FIG. 6. Due to the pivoting arrangement of the lever 22 on the connection 19 and the energy store 30, the work length S_max of the lever 22 is greater than the working stroke A_max of the energy store 30. The further the connection 19 is from the axle 39, the greater the difference between the work length S and the working stroke A. In the range of the minimum working stroke A_min, it can be provided that the working length S is smaller than the working stroke A. In the range of the minimum working stroke A_min, it can therefore also be provided that the working length S corresponds to the working stroke A in one setting.

In FIG. 8, the flap fitting 10 is shown in the closing position, whereby different positions of the adjustment means are shown. In the upper illustration, the lever 22 has been moved to a first end position via the adjustment means, in which the axle 21 is adjacent to the axle 39 of the deflection lever 18, so that the spring bias F_min is as low as possible, as the springs of the energy store 30 have been relaxed by the adjustment. If, on the other hand, a stronger force is required when moving the support arm 11, the lever 22 is adjusted to the right via the adjustment means, at most up to a second end position, so that the springs of the energy store 30, which are designed in particular as compression springs, are compressed and exert a greater force F_max on the spring holder 32. In the illustrated embodiment example, only one adjustment means is provided in order to adjust both the effective lever length of the lever 22 and the force of the energy store 30. It is also possible that a further adjustment device is provided on the spring holder 32 so that the position of the lever 22 on the deflection lever 18 can be adjusted separately from the spring force of the energy store 30, for example if the bias of the springs can be changed via an adjustment element on the spring holder 32.

FIGS. 9A and 9B show the closing damping of the support arm 11. In FIG. 9A, the support arm 11 is located shortly before the closing position, for example in an angle range between 10° and 40°. In this range, the roller 45 on the projection 43 reaches a curve guide on the actuating element 40, which is formed as a rotary lever and is rotatable about an axle 46 in the housing 12. If the support arm 11 is now moved further in the closing direction, the roller 45 presses against the curve guide on the actuating element 40, which presses against the damper 37 with one arm. The damper 37 is formed as a linear damper and includes a damping cylinder in which a piston with a piston rod is displaceable. Pressing in the piston rod brakes the actuating element 40 and thus also the support arm 11. A spring in the damper 37 automatically moves the piston rod into the extended position.

FIGS. 10A and 10B show an opening damping for the support arm 11, which is effected via the same damper 37 as for the closing damping. When the support arm 11 is moved in the opening direction, a roller 48 on a cantilever 47 of the deflection lever 18 comes into engagement with the actuating element 40, which has been moved back into the starting position due to the spring in the damper 37. If the support arm 11 is now moved further in the opening direction, as shown in FIG. 10B, the roller 48 on the cantilever 47 presses against the actuating element 40, which compresses the damper 37 and thus brakes the support arm 11 before reaching the maximum opening position.

FIGS. 11A to 11C show several views of the flap fitting 10, in which the support arm 11 is arranged in a maximum opening position in each case. The maximum opening position is predetermined by an opening limiter 26, which is formed as a rotatable stop and is adjustable via an adjustment element 24 in the shape of a grub screw. The adjustment element 24 can be adjusted on the insert 25.

FIG. 11A shows the maximum opening position of the support arm 11 with a short pivot path, and it can be seen that the opening limiter 26 has been adjusted counterclockwise by the adjustment element 24, so that the opening limiter 26 stops against a contact surface of the drive lever 17, which limits the pivot path of the support arm 11. If the adjustment element 24 is now adjusted on the insert 25, as shown in FIG. 11B, the opening limiter 26 rotates clockwise and thus enables further movement of the support arm 11 in the opening direction. In FIG. 11C, the adjustment element 24 has been rotated even further out of the insert 25 in order to adjust the opening limiter 26, which allows the support arm 11 to be opened by a further swivel range. In the working range of the opening angle limiter, a variable adjustment of the stop is possible beyond the positions shown by way of example, so that any opening angle can be set.

FIG. 12 shows the adjustment element 24 with the opening limiter 26 in detail, which is rotatable about an axle on the insert 25. The opening limiter 26, which is designed as a lever, lies on one side on the adjustment element 24 and on the opposite side on a contact surface of the drive lever 17 in order to predetermine the end position when the support arm 11 is opened. In addition, the enlarged view shows the drive wheels 50 and 51, both of which are rotatably mounted on the insert 25. The drive wheel 50 is non-rotatably connected to the spindle 20. The drive wheel 51 is coupled to the drive wheel 50 via a gear mesh and can be rotated via a tool insert 53. In this arrangement, the tool insert 53 is arranged rotatable on the deflection lever 18.

FIGS. 13A and 13B show a modified embodiment compared to FIG. 11, in which the opening limiter 26 does not rest directly on a contact surface of the drive lever 17, but on a linear damper 27, which is fixed to the drive lever 17 via the damper mount 28, as is also shown in FIG. 5. In FIG. 13A, the opening limiter 26 is in contact with a piston rod of the linear damper 27, and the braking process of the support arm 11 begins. In FIG. 13B, the support arm 11 has reached the maximum opening position and the opening limiter 26 has pressed in the linear damper 27. During a closing movement, the linear damper 27 can extend the piston rod again, which is preloaded into the extended position via a spring. In this embodiment, the maximum opening position can also be adjusted via the adjustment element 24, which acts on the opening limiter 26.

In FIG. 14, the flap fitting 10 is shown in a central opening position, in which the drive lever 17 and the deflection lever 18 can be seen, which are formed U-shaped in cross section. The deflection lever 18 comprises an elongated hole in which the axle 21 of the lever 22 is guided. The lever 22 includes two arms which embrace the deflection lever 18 and the housing 12. An elongated hole is also formed in the housing 12, in which a pin 61 of the lever 22 is guided.

FIGS. 15A and 15B show a modified piece of furniture 1′ which includes a furniture body 2 on which a flap 3′ is pivotably held via two flap fittings 10. The flap 3′ is connected on the bottom side to a panel 7 via hinges 8, which are pivotable relative to the flap 3′ when it is opened. The flap 3′ and panel 7 form a foldable unit.

As shown in FIGS. 16A and 16B, the panel 7 is connected to the flap 3′ by hinges 8, and a lever 9 is rotatably mounted in the furniture body 2 to guide the lower panel 7. The lever 9 is rotatable about an axle 90 on a side wall of the furniture body 2 and includes two lever parts 92 and 93, which are telescopic and are fixed to each other at the set length. The lever 9 can thus be adjusted in length and is fixed at the end to the panel 7 via a connection element 94. The flap fitting 10 can thus be used not only for one-piece flaps 3, but also for multi-piece foldable flaps 3′, 7.

In the embodiment example shown, the position of the lever 22 can be adjusted via a spindle 20 which is rotatable on the deflection lever 18. Other adjustment mechanisms can also be used, for example linear guides or latching mechanisms, to lock one end of the lever 22 in the desired position on the deflection lever 18.

LIST OF REFERENCE SYMBOLS

• • 1, 1′ Furniture
  • 2 Furniture body
  • 3, 3′ flap
  • 4 Upper floor
  • 5 Floor
  • 6 Shelf floor
  • 7 Panel
  • 8 Hinge
  • 9 Lever
  • 10 Flap fitting
  • 11 Support arm
  • 12 Housing
  • 13 Retaining element
  • 14 Rotary catch
  • 15 Spring element
  • 16 Axis of rotation
  • 17 Drive lever
  • 18 Deflection lever
  • 19 Connection
  • 20 Spindle
  • 21 Axle
  • 22 Lever
  • 23 Axle
  • 24 Adjustment element
  • 25 Insert
  • 26 Opening limiter
  • 27 Linear damper
  • 28 Damper receptable
  • 29 Tool receptable
  • 30 Energy store
  • 31 Guide pin
  • 32 Spring holder
  • 33 Pulling element
  • 35 Support
  • 37 Damper
  • 38 Damper guide
  • 39 Axle
  • 40 Actuating element
  • 41 Axle
  • 42 Support element
  • 43 Projection
  • 44 Axle
  • 45 Roller
  • 46 Axle
  • 47 Cantilever
  • 48 Roller
  • 50 Drive wheel
  • 51 Drive wheel
  • 53 Tool insert
  • 61 Axie
  • 70 Free space
  • 80 Storage space
  • 90 Axle
  • 92 Lever part
  • 93 Lever part
  • 94 Connecting element
  • A_min Working stroke
  • A_max Working stroke
  • S_min Work length
  • S_max Work length
  • F_min Force
  • F_max Force

Claims

1. A piece of furniture comprising: an upper floor (4),a flap (3, 3′), andat least one flap fitting (10) is arranged on the upper floor (4) in order to hold the flap (3, 3′) movably between a position closing a storage space (80) of the furniture body and an opening position,wherein the flap fitting (10) comprises a housing (12) on which a support arm (11) is rotatably mounted, wherein the support arm includes a retaining element (13) configured for fixing the flap (3, 3′), and comprises an energy store (30), by means of which a force can be applied to the support arm (11), and a damper (37), by means of which a movement of the support arm (11) in a closing direction can be braked shortly before the closing position is reached, wherein the damper (37) is configured to be moved via an actuating element (40) mounted in the housing (12) and the support arm (11) is configured to be braked via the actuating element (40) during a movement of the flap (3, 3′) in the closing direction before the closing position is reached.

2. The piece of furniture according to claim 1, wherein the support arm (11), in the closed position of the flap (3, 3′), is aligned essentially parallel to the upper floor (4) in a longitudinal direction of extension (100).

3. The piece of furniture according to claim 1, wherein the actuating element (40) is formed as a rotary lever which is rotatable about an axle (46) on the housing (12).

4. Piece The piece of furniture according to claim 3, wherein a curve guide is formed on the actuating element (40), along which a roller (45, 48) or a sliding element configured for actuating the damper (37) can be moved.

5. The piece of furniture according to claim 1, wherein a projection (43) is provided on the support arm (11), the projection being configured for moving the actuating element (40) before reaching the closing position.

6. The piece of furniture according to claim 1, wherein the damper (37) is formed as a linear damper with a damper housing and a piston rod movable relative to the damper housing, and the damper (37) is preloaded into an extended position by a spring.

7. The piece of furniture according to claim 1, wherein the damper (37) and the energy store (30) counteract a closing damping of the flap (3, 3′), while a weight of the flap (3, 3′) supports the closing movement.

8. The piece of furniture according to claim 1, wherein the damper (37) dampens a movement of the flap (3, 3′) in the opening direction via the actuating element (40) before the opening position is reached.

9. The piece of furniture according to claim 8, wherein the damper (37) and a weight of the flap (3, 3′) counteract the opening movement of the flap (3, 3′) by means of opening damping, while the energy store (30) supports the opening movement.

10. The piece of furniture according to claim 1, wherein the support arm (11) is articulatedly connected to a drive lever (17), which is articulatedly connected to a pivotably mounted deflection lever (18), by means of which the actuating element (40) can be actuated before reaching a maximum opening position.

11. The piece of furniture according to claim 10, wherein a cantilever (47) is provided on the deflection lever (18), the cantilever being configured for moving the actuating element (40) before the opening position of the flap (3, 3′) is reached.

12. The piece of furniture according to claim 1, wherein the actuating element (40) is unactuated in the opening and closing direction at least in a central section of a swivel range of the flap (3, 3′).

13. The piece of furniture according to claim 10, wherein the energy store (30) is coupled to an adjustable connection (19) via an articulation element (22) and the adjustable connection (19) is connected to the deflection lever (18).

14. The piece of furniture according to claim 10, wherein the connection (19) is held on an adjustment means that is configured to change a position of the connection (19) relative to the deflection lever (18).

15. The piece of furniture according to claim 14, wherein the adjustment means forms a unit with the deflection lever (18), which is articulatedly connected to the drive lever (17) and articulatedly connected to the housing (12).

16. The piece of furniture according to claim 6, wherein the damper (37) is arranged in the housing (12) and an effective direction of the damper (37), which is designed as a linear damper, is aligned substantially parallel to the upper floor (4) when the flap fitting (10) is mounted on the piece of furniture (1).