FURNITURE DRIVE

Abstract

A furniture drive includes a carrier to be fixed a furniture carcass, an actuating arm for moving the movably-supported furniture part relative to the carrier, the actuating arm being pivotable about a first pivoting axis, and an interface for fixing a synchronization shaft, and configured to synchronize a pivotal movement of the actuating arm with a pivotal movement of an actuating arm of a further actuating drive. The interface includes a component pivotable about a second pivoting axis, the second pivoting axis being arranged laterally offset to the first pivoting axis of the actuating arm. The carrier has an upper side which, in a mounted condition of the furniture drive on the furniture carcass, faces towards a top panel of the furniture carcass, and the first pivoting axis has a larger perpendicular distance to the upper side than the second pivoting axis.

Description

The present invention relates to a furniture drive for moving a movably-supported furniture part, the furniture drive comprising: a carrier configured to be fixed to a furniture carcass,

• • at least one actuating arm for moving the movably-supported furniture part relative to the carrier, the at least one actuating arm being pivotable about at least one first pivoting axis,
  • an interface for fixing a synchronization shaft, the synchronization shaft being configured to synchronize a pivotal movement of the at least one actuating arm with a pivotal movement of at least one actuating arm of at least one further actuating drive,
  • wherein the interface includes at least one component pivotable about a second pivoting axis, the second pivoting axis being arranged laterally offset to the first pivoting axis of the actuating arm.

Moreover, the invention relates to an arrangement comprising two furniture drives of the type to be described, the first furniture drive being configured to be fixed to a first sidewall of the furniture carcass and the second furniture drive being configured to be fixed to a second sidewall of the furniture carcass, the second sidewall opposing the first sidewall, and a pivotal movement of the at least one actuating arm of the first furniture drive can be synchronized with a movement of the at least one actuating arm of the second furniture drive by the synchronization shaft.

WO 2006/113953 A1 discloses an item of furniture with a furniture carcass, and two furniture drives are fixed to opposing sidewalls of the furniture carcass. Each of the furniture drives includes a rotatable member configured to be connected in a movement-coupled manner to an actuating arm for moving a furniture flap. By a synchronization rod, a pivotal movement of the rotatable members of the furniture drives can be synchronized with one another. As a result, the furniture flap can be uniformly elevated and lowered by the two furniture drives, without being tilted thereby. The synchronization rod can also be connected to the rotatable members when the two furniture drives have already been pre-mounted to the furniture carcass. A drawback of this construction is the fact that the synchronization rod, in a mounted condition, can impede the storing and removal of storage goods into and from the furniture carcass. Moreover, the synchronization rod, in a mounted condition, is located adjacent to a front face of the furniture carcass, which can be visually disturbing.

CN 106639718 A discloses an item of furniture with a furniture flap which can be driven relative to the furniture carcass by two furniture drives arranged on the furniture carcass. Each of the furniture drives includes a pivotable actuating arm for moving the furniture flap. For synchronizing a pivotal movement of the two actuating arms, a synchronization rod is provided. In a mounted condition, the synchronization rod is connected on both sides with a pivotable synchronization element of the furniture drives. The pivoting axis of the synchronization rod is arranged laterally offset to the pivoting axes of the actuating arms. A drawback of this construction is the fact that the synchronization rod, in a mounted condition, considerably impedes the storage and removal of storage goods into or from the furniture carcass.

It is an object of the present invention to propose a furniture drive mentioned in the introductory part, thereby avoiding the above-discussed drawbacks.

This is accomplished by the features as recited in claim 1. Further advantageous embodiments of the present invention are defined in the dependent claims.

According to the invention, it is provided that the carrier has at least one upper side which, in a mounted condition of the furniture drive on the furniture carcass, is facing towards a top panel of the furniture carcass, and the first pivoting axis has a larger perpendicular distance to the at least one upper side than the second pivoting axis.

In other words, the first pivoting axis of the actuating arm and the second pivoting axis of the pivotable component configured to be connected to the synchronization shaft are arranged offset relative to one another.

In this way, several constructive advantages can be provided. For example, the pivotable component, in mounted condition of the furniture drive on the furniture carcass, can be arranged on a position as high as possible within the furniture carcass. As a result, the synchronization shaft coupled to the pivotable component does hardly impede the storage and removal of storage items.

Thereby, it can be provided that the carrier includes at least one front face through which the at least one actuating arm at least partially projects in at least one relative position corresponding to an open position of the movable furniture part, and the first pivoting axis has a smaller perpendicular distance to the at least one front face than the second pivoting axis.

Moreover, it can be provided that the pivotable component, in a mounted condition of the furniture drive on the furniture carcass, is arranged on a position as deep as possible in a direction extending in the depth of the furniture carcass, and the synchronization shaft coupled to the pivotable component—also due to a shadowing caused by the furniture carcass—barely appears from a visual point of view.

According to an embodiment, it can be provided that at least one coupling device is provided, the at least one coupling device being configured to couple a pivoting movement of the at least one actuating arm to a pivoting movement of the at least one pivotable component of the interface. The coupling device can include, for example, co-operating tooth arrangements and/or at least one cable pulley.

The at least one coupling device can include at least one tooth arrangement, and the at least one tooth arrangement includes at least one tooth segment.

Further details and advantages of the present invention result from the following description of figures.

FIG. 1a, 1b show an item of furniture comprising a movable furniture part and two furniture drives for moving the furniture part, and the item of furniture with the furniture part removed,

FIG. 2a-2c show the mounting operation of the synchronization shaft to the pivotable component of the furniture drive,

FIG. 3a, 3b show the synchronization shaft in an exploded view and in an assembled condition,

FIG. 4a, 4b show the furniture drive in a side view and an enlarged detail view thereof,

FIG. 5a, 5b show the pivotable component of the interface in a perspective view and the co-operating tooth arrangements in an exploded view,

FIG. 6a, 6b show the actuating arm to be connected to the carrier in a released condition and in a connected condition with the carrier.

FIG. 1a shows an item of furniture 1 comprising a furniture carcass 2 and a movable furniture part 3 in the form of a furniture flap 3a which can be elevated relative to the furniture carcass 2. On each of the opposing sidewalls of the furniture carcass 2, a furniture drive 4 is fixed for moving the movable furniture part 3. Each of the furniture drives 4 includes a pivotally supported actuating arm 5, and a pivotal movement of the two actuating arms 5 of the furniture drives 4 can be synchronized with one another via a synchronization shaft 6.

FIG. 1b shows the item of furniture 1 according to FIG. 1a with the furniture part 3 removed. The two furniture drives 4 can be configured to be identical in construction. Therefore, the explanations provided here are valid for both furniture drives 4.

The furniture drive 4 includes a, preferably substantially cuboidal, carrier 9 configured to be fixed to the furniture carcass 2. At least one lever 5a of the actuating arm 5 is pivotally supported about a first pivoting axis 7a on the carrier 9. In contrast, the synchronization shaft 6 is rotatably supported about a second pivoting axis 7b, and the first pivoting axis 7a of the lever 5a and the second pivoting axis 7b of the synchronization shaft 6 are arranged laterally offset to one another, preferably mutually spaced from each other in a parallel relationship.

The offset arrangement between the first pivoting axis 7a of the lever 5a of the actuating arm 5 and the second pivoting axis 7b of the synchronization shaft 6 has the particular advantage that the synchronization shaft 6 can be arranged, for example, on a high location within the furniture carcass 2, that is to say close to a top panel 2a of the furniture carcass 2.

Further, it can be provided that the second pivoting axis 7b, in a mounted condition of the furniture drive 4, can be arranged deeper in a direction extending in the depth of the furniture carcass 2, compared with a known coaxial arrangement between the first pivoting axis 7a and the second pivoting axis 7b.

The lever 5a of the actuating arm 5 includes a fitting portion 8 configured to be releasably connected to a fitting body (not shown) to be arranged on the furniture part 3. The fitting portion 8 can be hingedly connected to the lever 5a of the actuating arm 5, and can be configured such that the fitting portion 8 is connectable to the fitting body to be fixed to the furniture part 3 without the use of a tool.

FIG. 2a-2c show the mounting operation of the synchronization shaft 6 on the furniture drive 4. The actuating arm 5 can include a plurality of levers 5a, 5b hingedly connected to one another, preferably wherein

• • at least two of the provided levers 5a, 5b of the actuating arm 5, in at least one pivoting position, preferably in each pivoting position, of the actuating arm 5 are nested relative to one another, so that the two levers 5a, 5b are arranged substantially in a gap-free manner relative to one another in a view from the side, and/or
  • at least one lever 5b is configured to be U-shaped in a cross-section, and a further lever 5a is at least partially arranged or can be arranged between the vertical limbs of the U-form, and/or
  • the actuating arm 5 is configured to be symmetrical relative to a notional middle plane, and/or
  • at least one, preferably at least two, of the levers 5a, 5b of the actuating arm 5 can be releasably connected to the carrier 9 of the furniture drive 4.

In the shown embodiment, the first lever 5a is pivotally supported about a first pivoting axis 7a and the other lever 5b is pivotally supported about a further pivoting axis 10.

The carrier 9 has at least one upper side 31 which, in a mounted condition of the furniture drive 4 on the furniture carcass 2, faces towards the top panel 2a of the furniture carcass 2, and the first pivoting axis 7a has a larger perpendicular distance to the at least one upper side 31 than the second pivoting axis 7b (FIG. 1b).

The furniture drive 4 includes an interface 21 for fixing the synchronization shaft 6 by which a pivotal movement of the at least one actuating arm 5 can be synchronized with a pivotal movement of the at least one actuating arm 5 of at least one further furniture drive 4.

The interface 21 includes a component 11 pivotally supported about the second pivoting axis 7b, the component 11 being configured to be releasably connected to the synchronization shaft 6. It can be seen that the first pivoting axis 7a of the lever 5a and the second pivoting axis 7b of the component 11 are mutually spaced from one another in a parallel relationship.

The component 11 pivotable about the second pivoting axis 7b includes a receiving device 11a for receiving the synchronization shaft 6. Preferably, it can be provided that the receiving device 11a includes a non-circular cross-section for receiving the synchronization shaft 6. It can be particularly preferred that the synchronization shaft 6 can be connected to the receiving device 11 a only in one single pivoting position within a pivoting angle range of 360°.

The synchronization shaft 6 includes a shaft journal 6a, and an outer contour of the shaft journal 6a substantially corresponds to an inner contour of the receiving device 11a. In this way, a form-locking connection for transmitting a torque between the pivotable component 11a and the synchronization shaft 6a can be established.

Starting from FIG. 2a, the shaft journal 6a of the synchronization shaft 6 is to be introduced into the receiving device 11a of the pivotable component 11 (FIG. 2b). Subsequently, a cover 6b configured to be moved in a direction of the longitudinal axis (L) is pushed into the receiving device 11a so as to cover the shaft journal 6a (FIG. 2c).

The first furniture drive 4 is to be fixed to a first sidewall of the furniture carcass 2 and the second furniture drive 4 is to be fixed to a second sidewall of the furniture carcass 2, the second sidewall opposing the first sidewall.

In a mounted condition, the synchronization shaft 6 is connected in a torque-proof manner to the two pivotably-supported components 11 of the furniture drives 4, and a pivotal movement of the at least one actuating arm 5 of the first furniture drive 4 can be synchronized with a pivotal movement of at least one actuating arm 5 of the second furniture drive 4 by virtue of the synchronization shaft 6.

FIG. 3a shows the synchronization shaft 6 in an exploded view. The synchronization shaft 6 includes a central shaft journal 6g which can have a non-rotationally symmetrical cross-section.

A connecting portion 6f can be connected to a first end portion of the central shaft journal 6g, and the connecting portion 6f is configured to receive a spring element 6d. The shaft journal 6a is arranged on a portion 6c configured to be pressurized by the spring element 6d. The shaft journal 6a, in a mounted condition of the synchronization shaft 6, is pressed against the pivotable component 11 by the spring element 6d.

By a limiting element 6e, it can be prevented that the portion 6c can be detached from the connecting portion 6f. By a, preferably sleeve-shaped, cover 6b, at least the shaft journal 6a can be covered.

On the second end of the synchronization shaft 6, it can be preferably provided that there is no spring element 6d present. Here, a form-locking connection is provided on a connecting portion 6h, the form-locking connection being provided to connect the synchronization shaft 6 to the pivotable component 11 of the opposing furniture drive 4 in a form-locking manner, and a displaceable cover 6i is also provided.

FIG. 3b shows the synchronization shaft 6 in an assembled condition.

FIG. 4a shows the furniture drive 4 in a side view. The furniture drive 4 includes at least one force storage member 12, the force storage member 12 being preferably supported on the carrier 9. The force storage member 12 preferably includes a spring element 12a for applying a force to the actuating arm 5 (not shown here) so as to compensate for a weight of the furniture part 3 to be connected to the actuating arm 5.

By a transmission mechanism 17, a force which can be stored in the force storage member 12 can be transmitted to the actuating arm 5, preferably wherein the transmission mechanism 17

• • includes at least one intermediate lever 13 pivotable about a pivoting axis 13a, preferably wherein the at least one force storage member 12 is connected to the at least one intermediate lever 13 via an, preferably adjustable, engagement location 14, and/or
  • includes at least one pressure portion 15, preferably a rotatable pressure roller, and at least one setting contour 16 on which the at least one pressure portion 15 can be displaceably supported upon a movement of the actuating arm 5, preferably wherein the at least one pressure portion 15 is arranged on the at least one intermediate lever 13 of the transmission mechanism 17 and the at least one setting contour 16 is arranged or can be arranged on the actuating arm 5, or vice versa.

The interface 21 includes the component 11 rotatable about the pivoting axis 7b, the rotatable component 11 being provided with a receiving device 11a configured to releasably receive the synchronization shaft 6.

The furniture drive 4 includes at least one coupling device 18 configured to couple a pivoting movement of the at least one actuating arm 5 with a pivoting movement of the at least one component 11 of the interface 21. It can be seen that the pivoting axis 7a of the actuating arm 5 and the pivoting axis 7b of the pivotable component 11 are arranged offset relative to one another.

According to an embodiment, it can be provided that the at least one coupling device 18 includes an eccentric transmission.

The coupling device 18 can include at least one tooth arrangement 19, 20. Preferably, the at least one tooth arrangement 19, 20 includes at least one tooth segment 19a, 20a (FIG. 5a, FIG. 5b).

FIG. 4b shows the framed region of FIG. 4a in an enlarged view, in which the coupling device 18 for the coupling between the actuating arm 5 and the pivotable component 11 emerges in greater detail.

FIG. 5a shows the interface 21 for releasably coupling the synchronization shaft 6.

According to an embodiment, it can be provided that the at least one tooth arrangement 19, 20 includes at least two tooth segments 19a, 20a, wherein one of the two tooth segments 19a is connected or is configured to be connected to the at least one actuating arm 5, and the other of the two tooth segments 20a is connected or is configured to be connected to the interface 21, and/or at least two tooth segments 19a, 20a bear in layers against one another in a direction extending in the first or second pivoting axis 7a, 7b.

In the shown figure, the at least two tooth segments 19a, 20a bear in layers against one another in a direction extending in the first or second pivoting axis 7a, 7b. One of the at least two tooth segments 19a, 20a consists of a first material and the other of the tooth segments 19a, 20a consists of a second material, the second material having a lower hardness than the first material. Preferably, the first material is steel and/or the second material is plastic.

According to a preferred embodiment of the invention, it can be provided that at least two tooth segments 20a, 20b bear in layers against one another in a direction extending in the first or second pivoting axis 7a, 7b. One of the at least two tooth segments 20a, 20b protrudes over the other of the tooth segments 20a in a radial direction relative to the first or second pivoting axis 7a, 7b.

In FIG. 5a, in other words, at least one central tooth segment 20a, preferably of elastic plastic, is received between two outer tooth segments 20a, preferably of steel. The central tooth segment 20a protrudes over the two outer tooth segments 20a in a radial direction. In this way, the occurring play between the tooth arrangements 19, 20 of the coupling device 18 can be reduced, and the synchronization between the two pivotable components 11 of the furniture drives 4 can be significantly improved.

FIG. 5b shows an exploded view of the tooth arrangements 19, 20 co-operating with one another.

The tooth arrangement 20 is arranged on the pivoting axis 7b of the pivotable component 11, the tooth arrangement 20 including a plurality of tooth segments 20a bearing against one another. The tooth segments 20a are substantially disc-shaped and are arranged on the pivoting axis 7b of the pivotable component 11 via spacer members 22.

The other tooth arrangement 19, on the contrary, is arranged on the first pivoting axis 7a of the actuating arm 5.

According to an embodiment, it can be provided that the at least one tooth arrangement 19 includes at least one tooth segment 19a. At least one pre-stressing element 23 is provided, and at least one tooth segment 19a can be urged in a radial direction relative to the first or second pivoting axis 7a, 7b by the at least one pre-stressing element 23, preferably wherein

• • the at least one pre-stressing element 23 is elastically resilient or is configured as a mechanical spring element, and/or
  • the at least one pre-stressing element 23 is configured substantially ring-shaped, and/or
  • the at least one pre-stressing element 23 is supported on the first or second pivoting axis 7a, 7b, and/or
  • at least one guide 26 is provided, and the at least one tooth segment 19a is movably, preferably linearly displaceably, supported along the guide 26.

In FIG. 5b, in other words, at least one central tooth segment 19a or a plurality of central tooth segments 19a is received between two outer tooth segments 19a. The central tooth segments 19a are radially urged towards the outside by the pre-stressing element 23 so that the central tooth segments 19a slightly project over the two outer tooth segments 19a in a radial direction. In this way, the occurring play between the tooth arrangements 19, of the coupling device 18 can be reduced, and the synchronization between the two pivotable components 11 of the two furniture drives 4 can be improved.

At least one of the outer tooth segments 19a can have a guide 26 for movably supporting a central tooth segment 19a.

For example, it can be provided that the at least one central tooth segment 19a, 20a projects over the two outer tooth segments 19a, 20a between 0.01 mm and 0.1 mm, preferably between 0.03 mm and 0.07 mm.

At least one tooth arrangement 19, 20 can include a connection device 27 configured to releasably connect a lever 5a, 5b of the actuating arm 5. The connection device 27 can include, for example, at least one recess 27a for partially receiving a lever 5a, 5b of the actuating arm 5.

By an unlocking element 24 pre-stressed by a spring 25, a lever 5a, 5b of the actuating arm 5 can be unlocked from a connected condition with the carrier 9, preferably from a connected condition with a tooth arrangement 19, 20. In this way, the actuating arm 5 can be separated from the carrier 9. Upon an actuation of the unlocking element 24 against a force of the spring 25, the locking between the actuating arm 5 and the tooth arrangement 19, 20 can be released.

FIG. 6a shows the lever 5a of the actuating arm 5, the lever 5a being configured to be connected to the carrier 9. The tooth arrangement 19, preferably the tooth segment 19a, includes at least one, preferably funnel-shaped, recess 27a for partially receiving the lever 5a. It can be seen that a contour of the recess 27a is at least partially adapted to a contour of the lever 5a. The lever 5a, in a connected condition, engages into the recess 27a in a form-locking manner.

The lever 5a is to be hung into a first locking element arranged on the first pivoting axis 7a via a first notch 28a. Upon inserting the lever 5a into the recess 27a, a second locking element 29 is moved along a guide track 30 against a force of the spring 25 due to the co-operation with the lever 5a. A locking element 29a, for example a peg protruding laterally from the lever 5a, is arranged on the lever 5a. The locking element 29a, in a connected condition of the lever 5a, engages into a further recess 29b. The locking of the lever 5a can be established by the locking element 29, and the locking element 29 is configured to lock into the second notch 28b of the lever 5a by a force of the spring 25 (FIG. 6b).

By the three-point locking (that is to say due to the notch 28a on the pivoting axis 7a, the locking element 29a in the recess 27b, and the locking element 29 in the notch 28b), a particularly tilting-proof connection of the lever 5a relative to the carrier 9 can be established.

The recess 27a of the tooth arrangement 19 can form an insertion funnel for introducing the lever 5a of the actuating arm 5. Therefore, the lever 5a, upon mounting, can be centered in a direction of the pivoting axis 7a.

For releasing the locking between the lever 5a and the carrier 9, the unlocking element 24 is moved against a force of the spring 25, until the second locking element 29 can be unlocked from the second notch 28b of the lever 5a.

Claims

1. A furniture drive for moving a movably-supported furniture part the furniture drive comprising: a carrier configured to be fixed a furniture carcass,at least one actuating arm for moving the movably-supported furniture part relative to the carrier, the at least one actuating arm being pivotable about at least one first pivoting axis,an interface for fixing a synchronization shaft, the synchronization shaft being configured to synchronize a pivotal movement of the at least one actuating arm with a pivotal movement of at least one actuating arm of at least one further actuating drive,wherein the interface includes at least one component, pivotable about a second pivoting axis, the second pivoting axis being arranged laterally offset to the first pivoting axis of the actuating arm,

2. The furniture drive according to claim 1, wherein the carrier has at least one front face, and the at least one actuating arm, in at least one relative position corresponding to an open position of the movable furniture part, projects through the at least one front face of the carrier, wherein the first pivoting axis has a smaller perpendicular distance to the at least one front face than the second pivoting axis.

3. The furniture drive according to claim 1, wherein at least one coupling device is provided, the at least one coupling device being configured to couple a pivotal movement of the at least one actuating arm to a pivotal movement of the at least one component of the interface.

4. The furniture drive according to claim 3, wherein the at least one coupling device includes an eccentric transmission.

5. The furniture drive according to claim 3, wherein the at least one coupling device includes at least one tooth arrangement preferably wherein the at least one tooth arrangement includes at least one tooth segment.

6. The furniture drive according to claim 5, wherein the at least one tooth arrangement includes at least one tooth segment, the tooth segment having a connection device configured to be releasably connected to a lever of the actuating arm preferably wherein the connection device includes at least one recess for partially receiving a lever of the actuating arm.

7. The furniture drive according to claim 5, wherein the at least one tooth arrangement includes at least two tooth segments wherein one of the two tooth segments is connected or is configured to be connected to the at least one actuating arm, and the other of the two tooth segments is connected or is configured to be connected to the interface, and/orat least two tooth segments bear in layer against one another in a direction extending in the first or second pivoting axis.

8. The furniture drive according to claim 5, wherein the at least one tooth arrangement includes at least one tooth segment, wherein at least one pre-stressing element is provided for urging at least one tooth segment in a radial direction relative to the first or second pivoting axis preferably wherein the at least one pre-stressing element, is elastically resilient or is configured as a mechanical spring element, and/orthe at least one pre-stressing element is substantially ring-shaped, and/orthe at least one pre-stressing element is supported on the first or second pivoting axis, and/orat least one guide is provided, wherein the at least one tooth segment is movably, preferably linearly displaceably, supported along the guide.

9. The furniture drive according to claim wherein at least two tooth segments bear in layers against one another in a direction extending in the first or second pivoting axis, wherein one of the that at least two tooth segments consists of a first material and the other of the tooth segments consists of a second material, the second material having a lower hardness than the first material, preferably wherein the first material is steel and/or the second material is plastic.

10. The furniture drive according to claim 7, wherein at least two tooth segments are arranged in layers bearing against one another in a direction extending in the first or second pivoting axis wherein one of the at least two tooth segments projects over the other of the tooth segments in a radial direction relative to the first or second pivoting axis.

11. The furniture drive according to claim 1, wherein the component pivotable about the second pivoting axis includes a receiving device configured to receive the synchronization shaft, preferably wherein the receiving device includes a non-circular cross-section for receiving the synchronization shaft, wherein it is particularly preferred that the synchronization shaft can be connected to the receiving device only in one single pivoting position within a pivoting angle range of 360°.

12. The furniture drive according to claim 1, wherein the actuating arm includes a plurality of levers hingedly connected to one another, preferably wherein at least two of the provided levers of the actuating arm, in at least one pivoting position, preferably in each pivoting position, of the actuating arm are nested into one another, so that the two levers are arranged substantially in a gap-free manner relative to one another in a view from the side, and/orat least one lever is configured to be U-shaped in a cross-section, and a further lever is at least partially arranged or can be arranged between the vertical limbs of the U-form, and/orthe actuating arm configured to be symmetrical relative to a notional middle plane, and/orat least one, preferably at least two, of the levers of the actuating arm can be releasably connected to the carrier of the furniture drive.

13. The furniture drive according claim 1, wherein the furniture drive includes at least one force storage member, the at least one force storage member preferably being supported on the carrier and preferably having at least one spring element the at least one force storage member being configured to pressurize the actuating arm so as to compensate for a weight of the furniture part to be fixed to the actuating arm.

14. The furniture drive according to claim 13, where a transmission mechanism is provided for transmitting a force that can be stored in the at least one force storage member to the actuating arm, preferably wherein the transmission mechanism includes at least one intermediate lever, pivotable about a pivoting axis, preferably wherein the at least one force storage member is connected to the at least one intermediate lever via an, preferably adjustable, engagement location, and/orincludes at least one pressure portion preferably a rotatable pressure roller, and at least one setting contour on which the at least one pressure portion can be displaceably supported upon a movement of the actuating arm, preferably wherein the at least one pressure portion is arranged on the at least one intermediate lever of the transmission mechanism, and the at least one setting contour is arranged or can be arranged on the actuating arm, or vice versa.

15. An arrangement comprising at least two furniture drives, each of the at least two furniture drives being configured according to claim 1, and a synchronization shaft, wherein a first one of the at least two furniture drive is to be fixed to a first sidewall of the furniture carcass and a second one of the at least two furniture drives is to be fixed to a second sidewall of the furniture carcass, the second sidewall of the furniture carcass opposing the first sidewall, wherein the synchronization shaft, in a mounted condition, is connected to the two pivotable portions of the at least two furniture drives in a torque-proof manner, wherein a pivotal movement of the at least one actuating arm of the first one of the at least two furniture drives can be synchronized with a pivotal movement of the at least one actuating arm of the second one of the at least two furniture drives by the synchronization shaft.

16. The arrangement according to claim 15, wherein the synchronization shaft, on at least one end portion, includes a resilient portion configured to bear against the pivotably supported component of one the at least two furniture drives.