Exercise device

Abstract

This invention relates to a motion device (10), particularly for drawers, sliding doors, hinged doors, flaps, or similar movable furniture components. The motion device (10) has an ejection mechanism comprising a guide element (40), an accumulator (90) acting on the guide element (40), and the guide element (40) being guided on or in a mating portion, particularly on or in a housing (30). The accumulator (90) is capable of displacing the guide element (40) from a resting position to an ejected position, the guide element (40) driving a slider (70) at least along a portion of its travel path from the resting position to the ejected position. To personalize such a motion device (10) in a simple manner relative to its ejection path, according to the invention, the guide element (40) is configured to be directly connected to the slider (70) in the resting position or to the slider (70) via a detachable connection through at least one adapter (77).

Description

Technical Field

[0001] The present invention relates to a motion device, particularly for drawers, sliding doors, hinged doors, flaps, or similar movable furniture components, the motion device having an ejection device comprising a guide element, an energy accumulator acting on the guide element, and the guide element being guided on or within a mating portion, particularly on or within a housing, wherein the energy accumulator is used to move the guide element from a stationary position to an ejected position, and wherein the guide element actuates a slider at least along a portion of its travel path from the stationary position to the ejected position.

[0002] The motion devices according to the invention combine a pushing device with a pulling device. For this purpose, the pulling device moves a furniture component (e.g., a drawer) from an open position to a closed position. During this operation, a spring accumulator in the pulling device releases to move the furniture component. The pushing device moves the furniture component from a closed position to an open position. This motion device significantly increases the usability of the furniture. Background Technology

[0003] Such a motion device is known from WO2018 / 185311. This known motion device can be used to move furniture parts from a closed position to an open position via an opening area.

[0004] Different furniture manufacturers have different requirements for motion control systems. For example, one manufacturer might need a motion control system that provides the longest possible pop-out path for a furniture component. Another manufacturer, on the other hand, might prefer a shorter pop-out path. Ultimately, the requirements for the motion control system are determined by the design of the specific furniture piece to be moved. This necessitates offering different motion control systems to meet these requirements. Summary of the Invention

[0005] The present invention solves the problem of providing the type of motion device mentioned above, which can significantly reduce the number of parts and assembly work in furniture manufacturing.

[0006] The solution to this problem is that the guide element is directly connected to the slider in the stationary position, or connected to the slider via a detachable connection through at least one adapter.

[0007] Adapters can be used to adapt the movement of motion equipment to various applications. For example, an adapter can be used to change the spatial distribution between the slider and the guide element. It is conceivable that, when an adapter is installed, the slider and guide element are spaced further apart in the guiding direction of the slider compared to the case without an adapter. In this way, a shorter ejection path is possible when the adapter is installed compared to the case without an adapter. In this invention, a kit-style design is also conceivable. Various adapters can be provided in the kit. Depending on the requirements of the furniture manufacturer, a suitable adapter is selected from several adapters and installed together with the motion equipment.

[0008] As part of the kit's design, the slider can also be directly connected to the guide element in the stationary position without the use of an adapter.

[0009] The connection between the guide element and the adapter or slider is a structural measure that guarantees and always ensures the operational safety of the moving equipment, because reliable component distribution is always guaranteed in the resting position of the guide element.

[0010] Therefore, the present invention provides options for realizing motion devices that can be easily personalized and adapted to desired applications using very little assembly work and few parts.

[0011] In this invention, the adapter can be integrally formed, or it is conceivable that the adapter comprises multiple adapter components. In particular, the adapter components can be used to scale the total length of the adapter in the direction of adjustment movement of the slider.

[0012] According to a preferred design variation of the invention, a detachable connection can be configured to function between the adapter and the guide element, the detachable connection being formed by at least one first retaining element and an attachment receiving portion. The detachable connection allows for easy installation or removal of the adapter. The detachable connection defines a precise allocation of the adapter to the guide element, particularly in the stop position of the slider. If the connection is configured to be detachable in the direction of movement of the adapter, the slider can carry the adapter during its adjustment from the stop position to the pop-out position, wherein, in a possible design variation of the invention, the adapter is separated from the guide element via the detachable connection.

[0013] In this invention, the detachable connection can also be configured such that the first retaining element forms a snap-fit ​​element, which engages with a snap-fit ​​receiving portion formed by the retaining receiving portion to form a snap-fit ​​connection, and / or the detachable connection can be configured such that the first retaining element forms a friction element, which engages with a friction receiving portion formed by the attachment receiving portion to form a friction-fit connection. In this way, the detachable connection can be easily engaged and / or disengaged.

[0014] A possible variation of the invention may also involve a connection (preferably a detachable connection) functioning between the adapter and the slider, the connection being formed by at least one second retaining element and a retaining receptacle, wherein preferably the connection may also be configured such that it is detachable in the direction of movement of the adapter. Similarly, components of the motion device can be easily installed. If the slider is detachably coupled to the adapter in the direction of movement, the slider can, for example, detach from the adapter during adjustment from the stop position to the pop-out position, and then reconnect accordingly to the adapter via the detachable connection during the return movement. In this way, a reliable and reproducible sequence of movements is generated. In the stop position, the slider is always reliably assigned to the adapter, safely preventing any malfunction. In the invention, it is also conceivable, as described above, that there is no detachable connection between the adapter and the slider. A detachable connection should be understood to mean a connection that, for example, can generally be released when the motion device is disassembled, but cannot be released during operation when the motion device is intended for use.

[0015] These functions can be achieved particularly easily if the connection is configured such that the second retaining element forms a snap-fit ​​element that engages with a snap-fit ​​portion formed by the retaining receiving portion to form a snap-fit ​​connection, and / or the connection is configured such that the second retaining element forms a friction element that engages with a friction receiving portion formed by the retaining receiving portion to form a friction fit connection.

[0016] If a non-detachable connection is to be provided (e.g., falling under the above definition), it can be specifically designed such that the adapter is held rotatably relative to the slider about a rotation axis, preferably formed by at least one second retaining element and a retaining receptacle, wherein the rotation axis extends laterally relative to the guiding direction of the slider; in such a device, the slider can rotate relative to the adapter, particularly when the slider rotates from the pop-out position to a downward tilting position and the adapter does not rotate or only partially rotates relative to the slider.

[0017] A particularly preferred variant of the invention may be that the adapter includes at least one guide, which is guided in or on a guide segment within or on the housing, preferably linearly. This ensures that the adapter can safely interact with the guide and the slider even under heavy loads. Through the forced guidance of the adapter formed in this way, the adapter is reproducibly assigned to the guide or the slider at each position of motion of the moving device. For example, if a strong force acts on the moving device, if the guide is designed accordingly, these forces can be dissipated into the housing via the guide of the adapter.

[0018] Based on this design, the present invention can also be configured such that the slider has at least one guide, and the guide is guided in or on a guide segment, with the adapter's guide also mounted in or on the guide segment. This reduces the number of required components. Furthermore, it facilitates precise matching of the movement sequence of the slider and the adapter.

[0019] If the adapter is configured to have a connecting segment between its connection point with the guide element and its connection point with the slider, and this connecting segment is integrally interconnected with the connection point, then a particularly simple and inexpensive design is achieved for the adapter.

[0020] The motion device according to the invention can be such that, in a first usage mode with an adapter installed, the slider can be detachably connected to the guide element via the adapter in its resting position, and in a second usage mode of the motion device without an adapter installed, the guide element is detachably connected to the slider in its resting position. Therefore, in both types of use, the slider is securely fixed in its resting position, thus preventing malfunctions.

[0021] The motion device according to the invention may include a slider comprising a base portion, two stops disposed separately on the base portion such that a transmission member receiving portion is disposed between the stops. The transmission member may be captured in the transmission member receiving portion to enable the permanent connection of two furniture components via the motion device, the two furniture components being movable relative to each other. For example, the motion device may be mounted to a furniture body, and the transmission member may be mounted on a furniture component movably attached to the furniture body, or vice versa.

[0022] If at least one of the stop elements is connected to the base portion via a spring element, misalignment of the transmission element can be easily compensated.

[0023] For example, when the slider is in its stationary position, the transmission component must be captured in the transmission component receptacle as intended. If the slider is currently in its stationary position and the transmission component is not captured in the transmission component receptacle as intended, then there is an incorrect position.

[0024] If the transmission member now moves along the direction of the slider to bring it into the transmission member receiving portion, the transmission member can deflect the stop, which is spring-loaded to the base portion via a spring element. The transmission member then moves into the transmission member receiving portion. The spring element then returns the stop to its initial position. The transmission member is then received in the transmission member receiving portion again as intended.

[0025] Preferably, the spring element allows the stop to deflect in the direction of the sliding member's movement. In this way, the transmission member can easily pass over the stop when the spring element is in its deflected, stationary position.

[0026] A variation of the invention may be: the guide element movably receives the first contact, wherein the first contact is locked to the guide neck at the holding section in the stopped position, the lock being unlocked by applying overtravel to the guide element, and in the unlocked position, the spring element causes the guide element to accelerate toward the pop-out position.

[0027] The first contact element can be connected to the guide element for direct or indirect mobility. The movable connection may include or form a slewing bearing and / or a linearly adjustable guide element.

[0028] The retaining section for locking the guide neck can be part of the guide curve for the guide neck. In particular, the retaining section can be part of the heart curve of the overtravel mechanism. The retaining section can be part of a separate displacement module built into the housing, either alone or in conjunction with the guide curve. However, it is also conceivable that the retaining section and / or the guide cam are integrally formed with the housing, particularly integrally formed with the housing components.

[0029] Preferably, the locking of the guide neck to the retaining section causes the accumulator acting on the guide element to preload the guide neck against the retaining section and hold the guide neck on the retaining section. To achieve the overtravel position, the guide element can move from its retaining position on the retaining section into the overtravel position against the spring force of the accumulator.

[0030] According to the invention, the guide element can also be configured to movably accommodate a second contact, wherein the second contact is guided from a stationary position to a pop-out position in the return guide, at least in a portion of the path region of the guide element.

[0031] The second contact can be connected to the guide element to move it directly or indirectly. The movable connection may include or form a slewing bearing and / or a linearly adjustable guide.

[0032] Preferably, the return guide is part of the housing of the motion device, particularly incorporated into the housing portion of the housing.

[0033] Specifically, the return guide can be part of a recirculation guide, wherein the second contact is guided in a recirculation manner.

[0034] A preferred variation of the invention is that the return guide is transferred to the longitudinal guide via a first transition section, such that an actuator is disposed in the region of the first transition section, the actuator preferably being preloaded by a deflection spring, and the actuator moves the second contact from the return guide to the longitudinal guide via the transition section, wherein the actuator is adjusted during the transfer of the second contact from the return guide to the longitudinal guide.

[0035] The longitudinal guide can be used, for example, to guide the second contact during adjustment from the pop-up position to the stop position.

[0036] An actuator is provided to ensure a safe transition of the second contact from the return guide to the longitudinal guide. When the second contact is in the pop-out position, the actuator, under the action of a deflection spring, safely moves the second contact into or holds it in the longitudinal guide.

[0037] In one design variation of the invention, in the pop-out position of the slider, the second contact may rest against the actuator, and / or in the pop-out position of the slider, the actuator in the transition section may at least partially block the transition from the longitudinal guide to the return guide in the transition section to prevent the second contact from passing from the longitudinal guide to the return guide.

[0038] According to the invention, the longitudinal guide can be further configured to transfer to the return guide via a second transition section, wherein an abutment surface is provided in a region of the second transition section, and the abutment surface includes a surface area preferably configured such that the second contact abuts against the surface area in a self-locking displacement position, wherein the surface area also preferably extends perpendicular to or substantially perpendicular to the effective direction of the spring. During the transition from the longitudinal guide to the return guide, the second contact in the second transition section can be guided across the surface area of ​​its adjusted path on the abutment surface and then into an intermediate stopping position. When the slider adjusts from the pop-up position toward the stopping position, the guide element moves to the intermediate stopping position. For example, this is within the range of motion where the accumulator has been partially charged by the kinetic energy of the furniture moving member, but the pulling device is not yet effective. An intermediate stopping position is needed to ensure that the pulling device reliably engages in such an operating position and that the accumulator does not unintentionally release energy again and move the slider into the pop-up position. Here, the second contact is held against the abutment surface. In this invention, the abutment surface can also be configured to extend along the direction of the spring, guiding the second contact member past the abutment surface to move it to the intermediate stopping position. This should be configured so that the second contact member does not unintentionally slip off the abutment surface due to the action of the accumulator.

[0039] According to the invention, if the second contact is configured to mate with the abutment surface such that the two moving parts self-lock, this measure also reduces any unwanted noise generation. Due to the self-locking effect, the second contact must then be pushed through at least a portion of the area of ​​the second transition section (e.g., by means of a slider) without forcefully striking the intermediate stopping position.

[0040] In the motion device according to the invention, if detachable connections are provided both between the adapter and the guide element and between the adapter and the slider, the retaining force included in the detachable connection formed between the adapter and the guide element in the direction of movement of the slider from the stationary position to the pop-out position can be set lower than the connecting force of the detachable connection between the adapter and the slider. This ensures that, in order to make adaptive adjustments from the stationary position, the adapter first separates from the guide element. This ensures a clearly reproducible motion sequence that is conducive to low noise emissions.

[0041] The motion device according to the invention may further include: a second contact member comprising a mating stop that abuts against a stop of an adjustable fixing element in a displaced position, wherein the stop is preferably formed by a surface that preferably extends parallel to or substantially in the direction of action of the accumulator, or the surface is configured such that the mating stop is held on the fixing element in a self-locking manner.

[0042] For example, in the shifted position of the contact element corresponding to the aforementioned intermediate stopping position, the mating stop can be opposite to, and particularly rest upon, the stop of the adjustable fixing element. As described above, in this intermediate stopping position, the accumulator preloaded on the guide element is partially charged. The surface on the adjustable fixing element where the stop is formed is arranged in the manner described above relative to the effective direction of the accumulator, preventing the fixing element from being unintentionally adjusted via a wedge effect. Attached Figure Description

[0043] The invention will now be explained in more detail with reference to the exemplary embodiments shown in the accompanying drawings. In the drawings:

[0044] Figure 1 A perspective view of a first motion device with a transmission component is shown.

[0045] Figure 2 It shows Figure 1 The decomposition diagram representing the representation;

[0046] Figure 3 and Figure 4 The basis in the first construction is shown. Figure 1 and Figure 2 Details of the sports equipment;

[0047] Figure 5 It shows from Figure 9A magnified view of the captured details;

[0048] Figure 6 It shows Figure 5 The top view shown;

[0049] Figure 7 and Figure 8 They are shown respectively Figure 6 Detailed design of details marked VII and VIII;

[0050] Figures 10 to 16 It shows Figure 1 and Figure 2 Various views and operating positions of the motion equipment;

[0051] Figure 17 It shows from Figure 15 A magnified view of the captured details;

[0052] Figure 18 It shows Figure 17 A magnified view of the details marked XVIII;

[0053] Figure 19 A perspective view of an alternative embodiment of the motion device according to the present invention is shown. Detailed Implementation

[0054] Figure 1 A motion device 10, such as that for a drawer, is shown. It is also conceivable to use it for other components to be moved, such as doors, flaps, etc. The motion device 10 includes a pulling device 100 and a pushing device.

[0055] For example, the pull mechanism 100 can be mounted on the drawer, and the ejection device can be mounted on the furniture body in which the drawer is housed. Alternatively, the pull mechanism 100 can be attached to the furniture body, and the ejection device to the drawer. Furthermore, the pull mechanism 100 or the ejection device can be indirectly attached to furniture components, such as indirectly attached to a guide member of the pull-out guide that is movable relative to each other. It is also conceivable that the pull mechanism 100 and the ejection device can be arranged together, indirectly or directly, on furniture components, such as on the drawer or the furniture body. It is also conceivable that these two units can be combined in a uniformly manageable manner.

[0056] like Figure 1 and Figure 2 As shown, the pulling device 100 has a housing 101 that supports a receiving portion at each of its longitudinal ends. Fasteners may all include screw receptacles. The screw receptacles can be used to attach the pulling device 100 to individual furniture components, such as drawers.

[0057] The housing 101 of the traction device 100 has two spaced-apart and parallel panels, in which guides 109 are incorporated. In this case, the guides 109 have slotted holes forming guide sections 109.1. The guide sections 109.1 merge into a bent or angled locking section 109.2. The guides 109 of the two walls 14 are aligned with each other. It is also conceivable to use only one guide 109. However, when two guides 109 are used, a more stable guidance of the connecting element 107 in the guides 109 is achieved.

[0058] The damping device 103 is housed in the housing 101. The damping device 103 has a damping housing 104, such as a cylinder, in which a piston is adjustably housed. The piston is coupled to a piston rod 105. The piston rod 105 has a connecting member 106 at its longitudinal end.

[0059] The damping device 103 can be designed as a fluid damper. For example, an air damper can be used. Of course, a liquid damper, such as an oil damper, can also be used. The advantage of using an air damper is that, in the event of damage, no liquid can escape and contaminate the contents of the drawer.

[0060] Figure 2 The damping device 103 is shown in its extended position. From... Figure 1 During the return motion from the extended position to the retracted position shown, the piston works against an air cushion or oil volume, where the air pressure or oil pressure continuously decreases. For this purpose, for example, at least one small opening may be present in the damper housing 104 and / or the piston. This allows compressed air to escape in a controlled manner or allows the oil pressure to decrease continuously.

[0061] Connector 106 and connecting element 107 together form a slewing bearing. The axis of rotation of this slewing bearing extends transversely to the longitudinal direction of the guide section 109.1. For this purpose, connecting element 107 is equipped with a bearing housing, to which the connecting member 106 of piston rod 105 can be rotatably connected.

[0062] The connecting element 107 has a base portion. A neck, for example in the form of a cantilever, extends from the base portion. At its end away from the base portion, the neck is spring-elastically connected to a deflection portion via a spring 107.3. The deflection portion forms a first stop 107.1. A second stop 107.2 is provided on the base portion. The two stops 107.1 and 107.2 are spaced apart from each other, such that a mounting space in the form of a transmission member receiving portion is formed between them.

[0063] The connecting element 107 carries guide elements 107.4 on the base portion at its opposite ends. These guide elements 107.4 are inserted into two opposing guides 109 such that they are preferably guided linearly in a displaceable manner therein. Simultaneously, the two guide elements 107.4 form an axis of rotation about which the connecting element 107 can rotate. Furthermore, the connecting element 107 may include at least one additional guide element 107.4 that projects laterally and is spaced apart from the first guide element 107.4. This additional guide element 107.4 is also inserted into the guides 109 to stabilize the positioning of the connecting element 107. In this exemplary embodiment, the additional guide element 107.4 is disposed in the end region of the base portion of the support spring 107.3.

[0064] It is conceivable that the guide elements 107.4 are not located at both ends of the connecting element 107, but they may also be located at only one end.

[0065] Finally, the connecting element 107 advantageously also has a spring retainer 108. The mounting section 102.2 is used to attach the tension spring 102 to the spring retainer 108. Opposite to this first attachment section, the tension spring 102 has a second attachment section 102.1. This second attachment section 102.1 attaches the spring 102 to the spring retainer of the housing 101.

[0066] When assembled, the spring 102, damping device 103, and connecting element 107 are housed within the housing 101 of the traction device 100. It is also conceivable that the spring 102 and / or damping device 103 are partially or completely retained outside the housing 101.

[0067] The traction device 100 can be connected to the transmission component 110. The transmission component 110 has at least one trigger 112, 113, such as Figure 2 As shown in the exemplary embodiment, the first trigger 112 and the second trigger 113 are advantageously interconnected integrally via a connection portion 111.

[0068] The following is for reference. Figure 2 Explain the structure of the launching device of the sports equipment in more detail.

[0069] As shown in the figure, the ejection device has a housing 30 having two housing portions 31 and 32. The housing 30 has a slot 33 along a dividing plane between the two housing portions 31 and 32, the slot being disposed on the upper end of the housing 30, and a slider 70 protruding at least partially from the interior of the housing through the slot. The two housing portions 31 and 32 may have an elongated shape.

[0070] The housing 30 can be made of plastic. For example, a mounting portion 20 made of steel sheet blank can be used to reinforce the housing 30. The mounting portion 20 has two spaced-apart side panels 21, which are integrally interconnected by a connecting portion 22. The housing 30 can be disposed within the mounting portion 20 such that the longitudinal ends of the housing 30 abut against the side panels 21 on their inner sides. The bottom of the housing 30 is supported on the connecting portion 22. To secure the mounting portion 20 to the housing 30, a stamped retaining element 23 can be integrally provided on the side panel 21, which engages with a receiving portion in the housing 30.

[0071] like Figure 9 , Figure 10 and Figure 11 As shown, housing 30 has a shift module 34 formed by two housing portions 31, 32. Alternatively, a separate shift module 34 can be formed and incorporated into housing 30. It is also conceivable that only one of housing portions 31, 32 forms the shift module 34.

[0072] The shifting module 71 has an opening 34.1. Downstream of the opening 34.1, the shifting module 34 forms a sliding surface that is transferred into a ramp 34.2. The ramp 34.2 rises to a guide section 34.3. The guide section 34.3 carries a neck 34.4 that rises from the planar guide section 34.3. In the region of the guide section 34.3, a retaining section 34.6 is provided at a protrusion. A step 34.5 is provided between the retaining section 34.6 and the neck 34.4. The step 34.5 extends from the guide section 34.3 to the region of the surface section 34.7 (which is set slightly lower than the guide section 34.3). An overtravel position 34.8 is formed in the region of the cantilever 34.7. The surface section 34.7 is guided around the neck 34.4, which forms the retaining section 34.6. In the region of exit area 34.9, surface segment 34.7 is transferred to the surface region facing opening 34.1. In this case, transition segment 34.10 is provided, which returns exit area 34.9 to the region forming opening 34.1. Final guide area 34.11 is adjacent to transition segment 34.10.

[0073] As described above, the shift module 34 can be inserted into the housing portion 32 as a separate component. It is also conceivable that, as shown in this exemplary embodiment, the shift module 34 is integrally formed on the housing portion 31, resulting in fewer parts and less assembly work.

[0074] In the assembled state, Figure 11 The open end of the shift module 34 shown is covered by another housing portion 32, thereby achieving low component cost and allowing access to the interior of the shift module 34 through the opening 34.1. It is also conceivable to provide a separate cover to cover the shift module 34.

[0075] like Figure 9 As shown, housing portion 31 has guide 35. Guide 35 may, for example, be in the form of a groove in housing portion 31.

[0076] Guides 35 having the same or substantially the same design may be disposed on another housing portion 32, wherein the guides 35 face each other when the housing 30 is assembled. The guide 35 has a preferably linear guide segment 35.2 that transitions into an angled stopping segment 35.1.

[0077] The housing 30 may also include, for example, a guide rail 36 in the housing portion 31. The guide rail 36 may be formed as a recirculation guide. The guide rail 36 is preferably a groove in the housing portion 31. Guide rails 36 of the same or substantially the same design may be provided on another housing portion 32, wherein the guide rails 36 face each other when the housing 30 is assembled.

[0078] The guide rail 36 has a longitudinal guide 36.1 and a return guide 36.2 extending in the opposite direction.

[0079] The longitudinal guide 36.1 can be transferred to the return guide 36.2 via the first transition section 36.4 and the second transition section 36.5. In this way, a recirculation guide is created.

[0080] Figure 17 and Figure 18 The guide rail 36 is shown to form an abutment surface 36.6 in the region of the second transition section 36.5. Preferably, the abutment surface 36.6 is planar. More preferably, the abutment surface 36.6 may extend perpendicular to or substantially perpendicular to the direction of the force of the accumulator 90, and / or may be configured such that the abutment surface 36.6 and the guide element 63.2 of the second contact 60 are dimensionally matched to each other, thereby creating a self-locking mechanism between the two moving parts.

[0081] like Figure 2 As shown, the guide element 40 may optionally be mounted in the housing 30. The guide element 40 has a base 45 which is connected to the connecting section 42. The connecting section 42 carries the spring retainer 41.

[0082] like Figure 2 As further shown, the guide element 40 may include a retaining portion 43, which is preferably located on the base 45. A bearing 44 is formed at the retaining portion 43. A first contact 50 having a bearing region 51 can be rotatably attached to the bearing 44. Figure 9In this configuration, the axis of rotation is perpendicular to the image plane. The first contact 50 includes a rod 52 having a guide neck 53 spaced apart from the bearing region 51. Advantageously, the guide necks 53 are laterally projecting at both ends of the first contact 50.

[0083] The guide element 40 can also be configured to indirectly or directly support the bearing 46 for the second contact 60 on the base 45.

[0084] like Figure 1 As shown, the second contact 60 can be configured to be rotatably attached to the bearing 46 via the bearing region 61. Figure 9 The axis of rotation can be perpendicular or substantially perpendicular to the image plane. The second contact may include a rod 62 that supports at least one guide element 63.2 spaced apart from the bearing region 61. In particular, two guide elements 63.2 may be disposed on opposite ends of the second contact 60, for example, on the head 63.

[0085] The guide element 40 is provided with laterally protruding guide members 47.1 and 47.2. The guide members 47.1 and 47.2 preferably protrude from both ends of the guide element 40. A guide surface may be formed on the underside of the guide element 40. For example... Figure 2 As shown, the front guide 47.1 is integrally formed on the extension arm 47, which can be integrally connected to the base 45. The extension arm 47 can be used to hold the front guide 47.1 at a wide distance from the rear guide 47.2. This results in a large support distance to support the stable guidance of the guide element 40 within the housing 30.

[0086] Figure 2 It is also shown that a fixing element 49 is provided, wherein the fixing element 49 is adjustable relative to the guide element 40. Preferably, the fixing element 49 is guided in a linearly adjustable manner, for example, in or on the guide receiving portion of the guide element 40.

[0087] The fixed element 49 has an actuator 49.1, which in Figure 2 It is integrally formed in a protruding manner. At its end opposite to the actuator 49.1, the retaining element 49 has at least one laterally protruding guide neck 49.2. Preferably, as Figure 2 As shown, at least one guide neck 49.2 protrudes from both ends of the fixing element 49. In the transition region between the guide neck 49.2 and the actuator 49.1, a stop 49.3 is provided on the fixing element 49. This stop 49.3 can preferably be designed as a flat surface.

[0088] To install the guide element 40, first install the bearing regions 51 and 61 of the two contacts 50 and 60 onto the bearings 44 and 46 of the guide element 40. Then insert the retaining element 49 into the guide receiving portion of the guide element 40.

[0089] The cover 48 can then be attached (preferably snap-fit) to the guide element 40. The neck 48.1 of the cover 48 covers the retaining portion 43, such that the first contact is captured and secured to the guide element 40. Furthermore, the body region of the cover 48 can be configured to cover the region of the bearing 46, such that the second contact 60 is also captured and held. Finally, the cover 48 can also be configured to retain the retaining element 49, such that it is displaceably held within the guide element 40.

[0090] One or more guides 47.1, 47.2 at one end of the guide element 40 can be inserted into a groove in the housing 30 (e.g., housing portions 31, 32). If necessary, the lower guide surface of the guide element 40 can additionally rest on a designated guide surface of the housing 30.

[0091] In this way, a longitudinal guide is formed. Figure 9 In the image plane, the guide element 40 can move inside the longitudinal guide. When the two housing parts 31 and 32 are interconnected, Figure 2 Two opposing guides 47.1 and 47.2, visible in the image, engage with matching grooves in another housing portion 32. In this way, secure housing of the guide element 40 is ensured.

[0092] With the guide element 40 assembled, the first contact 50 of the guide neck 53 engages with the guide of the shifting module 34 of the housing portion 31. The guide elements 63.2 protruding at both ends of the second contact 60 engage with the guide rails 36 of the housing portions 30 and 31.

[0093] Accumulator 90 is used to preload guide element 40. Accumulator 90 can be designed as a tension spring, particularly a helical spring, as in this case. Accumulator 90 is secured to spring retainer of housing 30 via first connector 91, as... Figure 9 As shown in the diagram, the energy storage device 90 has a second connector 92 opposite to the first connector 91. The second connector 92 is attached to the spring retainer 41 of the guide element 40.

[0094] The guides 103.4 protruding at both ends of the fixed element 49 can be guided on the guides of the housing portions 31 and 32 to obtain stable sliding guidance.

[0095] like Figure 2 As further shown, the slider 70 can be mounted in the housing 30. The slider 70 has a base portion 71. (As shown...) Figure 3As shown, the slider 70 has two stops 72 and 73 spaced apart from each other. A transmission member receiving portion 76 is formed in the region of the stops 72 and 73. The slider 70 is designed such that at least one of the stops 72 and 73 (stop 73 in this exemplary embodiment) is connected to the base portion 71 by means of a spring element 74. The slider 70 has guides 75.1 and 75.2 at both ends. The two guides 75.1 and 75.2 may be provided at each end of the slider 70.

[0096] Figure 3 The slider 70 is also shown to include a deflection profile 71.1, which is preferably convex.

[0097] Figure 4 The slider 70 is shown to include a retaining receptacle 79. This retaining receptacle 79 may be designed, for example, as a snap-fit ​​receptacle. The retaining receptacle 79 is configured and intended to interact with a first retaining receptacle 78 of the guide element 40.

[0098] like Figure 3 and Figure 4 As shown, in the stopped position of the slider 70, the first retaining element 78 can interact with the retaining receiving portion 79, thereby establishing a detachable connection between the guide element 40 and the slider 70. In particular, this detachable connection is designed to be detachable and recombinable in the direction of adjustment of the slider 70 (e.g., in the longitudinal extension direction of the guide segment 35.2).

[0099] Figure 3 and Figure 4 The configuration shown illustrates a first design variant of the launch device.

[0100] Figure 1 , Figure 2 and Figures 5 to 19 A second design variant of the ejection device is shown. Adapter 77 is used for this purpose. The design of adapter 77 is as follows: Figure 1 As seen in the figure, the adapter 77 has a connecting section 77.1. An attachment receiving portion 77.2 is provided at one end of the connecting section 77.1, and a second retaining element 77.3 is provided at the opposite end, as shown in the figure. Figures 5 to 8 As clearly shown in the diagram. Furthermore, the adapter 77 preferably has guides 77.4 on the opposite ends, such as a protruding neck or a molded guide receptacle, which can also be... Figures 5 to 8 As seen in the image, these guides 77.4 are inserted into the guide segments 35.2 of the guides 35 of the two housing portions 31 and 32 to form longitudinal guides.

[0101] Figures 5 to 8The stopped position of the slider 70 is shown. In this stopped position, the slider 70 is engaged with its latching receiving portion 79. Figure 8 It is detachably connected to the adapter 77. Therefore, the second retaining element of the adapter 77 is locked, in particular snapped into the retaining receiving portion 79.

[0102] Furthermore, in the stopped position of the slider 70, the adapter 77 is detachably connected to the guide element 40. For this purpose, the first retaining element 78 engages with the attachment receiving portion 77.2 of the adapter 77, and preferably snaps into place there (see...). Figure 7 ).

[0103] The adapter 77 is configured to include a mounting area that is positioned to rest against the actuator 49.1 of the fixing element 49. Preferably, the mounting area may be integrally formed as a recessed receiving portion in the adapter 77.

[0104] Figure 1 It is also shown that the actuator 80 can be installed inside the housing. The actuator 80 can be installed in the guide of the housing 30 in a linearly adjustable manner. Figure 9 As shown, actuator 80 can be held within housing 30 against preload of spring 93. Spring 93 can be designed, for example, as a torsion spring having two spring legs that can be adjusted relative to each other. Actuator 82 of actuator 80 rests against spring 93 (e.g., spring legs) to be held in a pre-tensioned state by spring 93. A second end of spring 93 (e.g., a second leg) can be supported relative to housing 30.

[0105] The actuator 80 has a ramp 81 that extends at an angle to the guiding direction of the return guide 36.2.

[0106] Figure 9 and 10 A deflection spring 94 is also shown disposed within the housing 30. The deflection spring 94 has two spring ends, specifically two spring legs 94.1 and 94.2, wherein the spring ends are adjustable relative to each other. One spring end (spring leg 94.2) is supported against the housing 30, while the other spring end (spring leg 94.1) is designed to spring-load the slider 70 in the pop-out position (see [reference]). Figure 13 ).

[0107] The following is for reference. Figures 3 to 18 Explain the functions of the sports equipment in more detail.

[0108] Figure 9The image shows a movable furniture component in its retracted position, such as a drawer in the closed position. In this position, the slider 70 is in its resting position. The guide neck 53 of the first contact 50 is locked to the retaining section 34.6. The adapter 77 is locked to the guide element 40, and the slider 70 is locked to the adapter 77. The guide element 63.2 of the second contact 60 is positioned in the return guide 36.2. The guide element 40 is under preload of the accumulator 90.

[0109] In the stopped position, the second trigger 113 is mounted in the transmission member receiving portion 76 of the slider 70. The first trigger 112 is located in the receiving portion formed between the two stops 107.1, 107.2. The tension spring 102 of the pulling device 100 is in the unloaded position and still has residual tension to keep the connecting element 107 preloaded, thereby holding the movable furniture part in the closed position.

[0110] When an overtravel is applied to the slider 70, the second trigger 113 presses against the stop 72, causing the slider 70 to... Figure 9 The overtravel is executed from right to left. For example... Figure 10 As shown, the guide neck 53 disengages from the retaining segment 34.6 and reaches as... Figure 10 The overtravel position shown is 34.8. From... Figures 9 to 10 During the movement, for this purpose, the guide element 40 moves against the preload of the accumulator 90.

[0111] If the transmission component 110 is now released from its load, the accumulator 90 can release its spring energy. For example... Figure 11 As shown, the guide element 40 is in Figure 11 The image moves from left to right in a guided manner within the image plane.

[0112] By adjusting the guide element 40, the guide neck 53 of the first contact 50 is adjusted in the outlet region 34.9 of the shift module 34. The guide element 40 pushes the slider 70 onto the adapter 77 and drives the slider 70 in this way. The sliding movement of the slider 70 is transmitted to the transmission element 110. The connecting element 107 is adjusted via the connection of two triggers 113, 112. Because the spring force of the accumulator 90 is greater than the force of the tension spring 102, the tension spring 102 is tensioned and charged by means of the accumulator 90.

[0113] In doing so, the guide element 107.4 of the connecting element 107 is adjusted in the linear guide section 109.1 of the guide 109.

[0114] Once the connecting element 107 and its two guide elements 107.4 at its front in the direction of movement (which may be located in the area of ​​the spring 107.3) enter the angled or curved area of ​​the guide 109 formed by the guide section 109.2, the connecting element 107 tilts. The axis of rotation around which the connecting element 107 tilts is formed by the two rear guide elements 107.4.

[0115] In the tilted state, the connecting element 107 (see, for example, see...) Figures 12 to 13 The first trigger 112 of the release transmission 110 is activated. The tension spring 102 is fully tensioned in the inclined position of the connecting element 107. Furthermore, the piston rod 105 extends as the connecting element moves toward the inclined position.

[0116] During its movement, the guide element 40 drives the first contact 50, which is guided in the shift module 34 through the exit region 34.9 and moves to the transition section 34.10. The guide neck 53 then enters the guide region 34.11 from there.

[0117] The guide element 40 moves the guide element 63.2 of the second contact 60 within the return guide 36.2 until the second contact 60 strikes the actuator 80 (see...). Figure 11 and Figure 12 (in sequence). The accumulator 90 resists the actuator 80 and pulls the second contact 60 of the guide element 40. The actuator 80 then resists the preload displacement of the spring 93 (see... Figure 12 Simultaneously, the second contact 60 (e.g., using its head 63) slides on the ramp 81 of the actuator 80 until it reaches the area of ​​the longitudinal guide 36.1. According to... Figure 13 In this operating position, the guide element 40 is preferably held against the stop, wherein the spring 90 pulls the guide element 40 against the stop of the housing 30 and holds it there.

[0118] like Figure 12 As shown, adapter 77 is separated from guide element 40. For this purpose, the detachable connection between adapter 77 and guide element 40 is released by kinetic energy acting on slider 70. Slider 77 then moves relative to guide element 40 in a free-rotation manner.

[0119] like Figure 13 As shown, when the slider 70 has traveled past the second contact 63, the actuator 80 pushes the head 63 of the second contact 60 from the return guide 36.2 through the first transition section 36.4 into the region of the longitudinal guide 36.1. The spring 93 pushes the actuator 80 back to its initial position, which is preferably restricted by a stop of the housing abutting the actuator 80.

[0120] like Figure 13 As shown, the slider 70 moves to an inclined position. To achieve this inclined position, the guide 75.2 of the slider 70 retracts into the stopping section 35.1 of the guide 35. The guide 75.1 is disposed in the longitudinal guide 36.1. The axis of rotation around which the slider 70 is inclined is formed by the two guides 75.1.

[0121] In order to safely reach the tilted position, it is preferable that the detachable connection between the slider 70 and the adapter 77 is designed to allow for rotational adjustment between the slider 70 and the adapter 77.

[0122] Figure 13 The diagram shows the slider 70 supported in its tilted position relative to the deflection spring 94. In this configuration, the slider 70 can move beyond the preload of the deflection spring 94. Figure 13 The pop-out position shown is shifted into another tilted position relative to the pop-out position. This is to protect the ejector from damage in the event that the second trigger 113 is misaligned relative to the slider 70. Figure 13 The diagram shows the opposite scenario: if the second trigger 113 is not in its expected position, but rather in... Figure 13 If the second trigger 113 is located to the left of the slider 70, it can move beyond the slider 70. When the second trigger portion 113 moves from left to right, it strikes the stop 72. Because the stop 72 is spaced apart from the axis of rotation of the slider 70, a tilting moment is generated, which causes the slider 70 to move beyond the preload of the deflection spring 94. Figure 13 The second trigger 113 then moves from the pop-up position shown to the deflection position. Then, the second trigger 113 can move beyond the slider 70. Therefore, the second trigger 113 reaches its intended position.

[0123] exist Figure 13 In this configuration, the transmission component 110 is separated from the motion component and is in a free-rotation mode. The energy storage device 90 has introduced kinetic energy into the second trigger 113, which can now be used to automatically adjust two furniture components that can be adjusted relative to each other, for example, to move a drawer to an open or partially open position.

[0124] exist Figures 14 to 16 The sequence shown now illustrates how a drawer can be moved from the open position to the closed position.

[0125] When the drawer is closed, the second trigger 113 strikes the stop 72. In this way, a force is applied to the slider 70, which is eccentric relative to the axis of rotation of the slider 70. The slider then... Figure 13 The tilted position shown is disengaged and moved to Figure 14The position shown. During this process, the guide 75.2 of the slider 70 re-enters the area of ​​the longitudinal guide 36.1.

[0126] When the drawer is closed, the main contour of the slider 70 strikes the second contact 60 and actuates it. In this way, the guide element 40 is also adjusted, and thus the accumulator 90 is tensioned.

[0127] When the slider 70 moves from the pop-up position ( Figure 13 As it moves toward the stopping position, the first contact 50 also moves toward the opening 34.1 of the shift module 34.

[0128] As the slider 70 moves from the pop-out position toward the parking position, the retaining element 49 strikes the locking element 37 at the housing, for example in... Figure 11 As you can see. Figure 14 The moment when the locking element 37 is held by the retaining element 49 is shown. During this process, the guide neck 49.2 impacts the locking element. Therefore, the retaining element 49 remains in the locking position while the guide element 40 continues to move. In other words, the retaining element 49 is adjusted relative to the guide element 40 and enters into the extended position. Therefore, the actuator 49.1 of the retaining element 49 moves, as in the case of... Figures 13 to 14 As can be seen in the transition.

[0129] As from Figure 15 As can be seen, when the movable furniture parts gradually move relative to each other, the first trigger 112 strikes the connecting element 107. Specifically, the first trigger 112 applies a force to the stop 107.1 (which is eccentric to the axis of rotation of the connecting element). In this way, the connecting element 107 moves out of its tilted position and into a position where all the guide elements 107.4 of the connecting element 107 reach the area of ​​the guide section 109.1. Now, the tension spring 102 can be unloaded and its spring force released. This spring force is introduced into the second trigger 113 via the first trigger 112 to support the closing movement of the furniture parts that can move relative to each other. In addition, the kinetic energy of the furniture parts moving relative to each other is effective. In this way, the furniture parts moving relative to each other move to their closed positions. At the same time, the damping device 103 acts and brakes the closing movement, making low-noise or noiseless closing possible.

[0130] like Figure 15 As shown, the guide element 63.2 of the second contact 60 moves into the second transition section 36.5 within the longitudinal guide 36.1. The slider 70 has a deflection profile 71.1. This deflection profile 71.1 slides along the deflector 63.3 of the second contact 60, thereby pressing the second contact 60 into the region of the second transition section 36.5. This process occurs in... Figure 17 and Figure 18 It is shown in more detail below.

[0131] These illustrations also show the abutment surface 36.6 disposed in the region of the second transition section 36.5. Advantageously, the abutment surface is aligned perpendicular to or substantially perpendicular to the direction of the spring force of the accumulator 90, and / or configured such that the abutment surface 36.6 is dimensionally matched with the guide element 63.2, enabling self-locking between the two moving mating parts.

[0132] The abutment surface 36.6 is adjacent to the guide ramp 36.7. In this way, the guide element 63.2 of the second contact can be guided initially along the abutment surface 36.6 with low noise, and then reliably temporarily rest on the abutment surface 36.6 in the region of the guide ramp 36.7 without worrying that the second contact 60 will unintentionally swing upward from the temporary resting position when the slider 70 has passed the head 63. If self-locking is implemented as described above, the guide element 63.2 must be pushed past the abutment surface 36.6 until it reaches the region of the guide ramp 36.7. Therefore, the abutment surface 36.6 prevents the second contact from moving uncontrollably along a portion of its range of motion and prevents violent impacts at the intermediate resting position. In this way, noise reduction is achieved.

[0133] Figure 18 It is also shown that, according to a variation of the invention, the second contact 60 preferably includes a mating stop 63.1 in the region of the head 63. When the second contact 60 is in the intermediate resting position, the mating stop 63.1 abuts against the stop 49.3 of the fixing element 49.

[0134] Advantageously, the stop 49.3 is formed as a surface, preferably extending in such a way that the mating stop 63.1 is held in a self-locking manner on the stop 49.3, wherein the stop 49.3 is preferably configured to extend parallel to or substantially parallel to the direction of force of the accumulator 90. This prevents such force from being introduced from the accumulator 90 into the second contact 60 via the guide element 40 and instead into the fixing element 49 (which would cause unintentional adjustment of the fixing element 49 or require excessive force to adjust the fixed element 49).

[0135] when Figure 18 The slider 70 has already traveled on the second contact (see...) Figure 16 When the guide element 40 is in the overtravel position, the guide neck 53 of the first contact 50 is located in the region of the guide segment 34.3 of the shift module 34. (See above reference.) Figure 18As explained, the guide element 40 is then not locked to the holding section 34.6 of the shift module 34, but remains firmly supported on the guide ramp 36.7 and on the fixing element 49 in the housing 30, thereby preventing failure.

[0136] In a further sequence of motion, the adapter 77 connected to the slider 70 strikes the actuator 49.1 of the fixing element 49 (see...). Figure 16 As a result, during further closing movements, the actuator 49.1 and the fixing element 49 therewith... Figure 16 The image plane is displaced from right to left. In doing so, the retaining element 49 is continuously pulled away from the mating stop 63.1 of the second contact 60. This releases the second contact 60, and it moves along the guide ramp 36.7 supported by the force of the spring 90 (see...). Figure 18 Slide it into the area of ​​the return guide 36.2. Pulling away from the fixing element 49 will not cause any interfering displacement noise.

[0137] When the fixing element 49 is pulled away from the second contact 60, the energy storage device 60 causes the first contact 50 to... Figure 16 The image plane moves from left to right. Then, the guide neck 53 engages with the holding section 34.6 of the shift module 34. Therefore, it reaches again... Figure 9 The starting position is shown. Therefore, the adapter 77 is locked to the guide element 40 and the slider 70 again.

[0138] If the ejector now requires a longer ejection path, this can be easily achieved by removing adapter 77. Therefore, slider 70 then locks directly into guide element 40 in the resting position (see...). Figure 3 and Figure 4 In all other respects, the operation of the extension device remains unchanged.

[0139] Figure 19 An alternative design variant of the invention is shown. In that case, the ejection device is designed to... Figures 1 to 18 The ejection device is the same.

[0140] exist Figure 1 In a variation of the embodiment, the pulling device 100, together with the ejection device, can be assigned to a first furniture component. The transmission member 110 is then assigned to a second furniture component that will move relative to the first furniture component.

[0141] exist Figure 19In a variation of the embodiment, the pop-out device is assigned to one furniture component, while the pulling device 100 is assigned to another furniture component. For this purpose, a transmission member 110 is assigned to, for example, the furniture component that supports the pulling device 100. Advantageously, the transmission member 110 can be connected to the pulling device 100.

[0142] According to the present invention, the exemplary embodiments shown in the accompanying drawings illustrate a motion device 10 having an ejection mechanism, particularly for drawers, sliding doors, hinged doors, flaps, or similar movable furniture components, wherein the ejection mechanism includes a guide element 40. An accumulator 90 acts on the guide element 40. The guide element 40 is guided within a housing 30 and can be adjusted from a resting position to a pop-out position by the accumulator 90. The guide element 40 actuates a slider 70 at least along a portion of its travel path from the resting position to the pop-out position. In this case, the guide element 40 moves the slider on an adapter 77, wherein the adapter 77 is designed as a separate component.

Claims

1. A motion device (10) having a launching device, wherein the launching device includes a guide element (40), an energy storage device (90) acting on the guide element (40) and the guide element (40) being guided on or in a mating portion, wherein the energy storage device (90) is capable of displacing the guide element (40) from a stationary position to a pop-out position, and wherein the guide element (40) drives a slider (70) at least along a portion of its travel path from the stationary position to the pop-out position. Its features are: The guide element (40) is directly connected to the slider (70) in the stopped position, or is connected to the slider (70) via at least one adapter (77) through a detachable connection, the detachable connection between the adapter (77) and the guide element (40) being formed by at least one first retaining element (78) and an attachment receiving portion (77.2), and In the first usage mode with the adapter (77) installed, the slider (70) can be detachably connected to the guide element (40) via the adapter (77), and in the second usage mode of the motion device without the adapter (77) installed, the guide element (40) can be detachably connected to the slider (70).

2. The motion device (10) according to claim 1, characterized in that, The detachable connection is configured such that the first retaining element (78) forms a snap-fit ​​element, which engages with a snap-fit ​​receiving portion formed by the attachment receiving portion (77.2) to form a snap-fit ​​connection, and / or the detachable connection is configured such that the first retaining element (78) forms a friction element, which engages with a friction receiving portion formed by the attachment receiving portion (77.2) to form a friction fit connection.

3. The motion device (10) according to claim 1 or 2, characterized in that, A connection is formed between the adapter (77) and the slider (70), the connection being formed by at least one second retaining element (77.3) and a retaining receptacle (79).

4. The sports device (10) according to claim 3, characterized in that, The detachable connection is configured such that the second retaining element (77.3) forms a snap-fit ​​element, which engages with the snap-fit ​​receiving portion formed by the retaining receiving portion (79) to form a snap-fit ​​connection, and / or the detachable connection is configured such that the second retaining element (77.3) forms a friction element, which engages with the friction receiving portion formed by the retaining receiving portion (79) to form a friction fit connection.

5. The sports equipment according to claim 1 or 2, characterized in that, The adapter (77) is held in a rotatable manner relative to the slider (70) about a rotation axis, wherein the rotation axis extends laterally relative to the guiding direction of the slider (70).

6. The sports device according to claim 1 or 2, characterized in that, The detachable connection formed between the adapter (77) and the guide element (40) has a holding force in the direction of movement of the slider (70) from the stationary position to the pop-out position that is less than the connection force of the detachable connection between the adapter (77) and the slider (70).

7. The sports equipment according to claim 1 or 2, characterized in that, The adapter (77) includes at least one guide (77.4) which is guided in or on a guide segment (35.2) on or in the housing (30).

8. The motion device (10) according to claim 7, characterized in that, The slider (70) includes at least one guide (75), and the guide (75) is guided in or on the guide section (35.2), and the guide (77.4) of the adapter (77) is also mounted in or on the guide section (35.2).

9. The motion device (10) according to claim 1 or 2, characterized in that, The adapter (77) includes a connecting section (77.1) between its connection point with the guide element (40) and its connection point with the slider (70), the connecting section (77.1) integrally interconnecting the connection points.

10. The motion device (10) according to claim 1 or 2, characterized in that, The sliding member (70) includes a base portion (71) and two stops (72, 73) are disposed on the base portion (71) spaced apart from each other, such that the transmission member receiving portion (76) is disposed between the stops (72, 73).

11. The sports device according to claim 1 or 2, characterized in that, The guide element (40) is movably received by a first contact (50), wherein the first contact (50) is locked to the guide neck (53) at the holding section (34.6) in the resting position, wherein the lock is unlockable by applying overtravel to the guide element (40), and in the unlocked position, the spring element (90) causes the guide element (40) to accelerate toward the pop-out position.

12. The sports device according to claim 1 or 2, characterized in that, The guide element (40) is movably accommodated by a second contact (60), wherein the second contact is guided in the return guide (36.2) at least in a portion of the path region of the guide element (40) from the stop position to the pop-out position.

13. The sports device according to claim 12, characterized in that, The return guide (36.2) is transferred to the longitudinal guide (36.1) via a first transition section (36.4), and an actuator (80) is disposed in the region of the first transition section (36.4). The actuator (80) moves the second contact (60) from the return guide (36.2) to the longitudinal guide (36.1) via the transition section (36.4), wherein the actuator (80) moves during the transfer of the second contact (60) from the return guide (36.2) to the longitudinal guide (36.1).

14. The sports device according to claim 13, characterized in that, The longitudinal guide (36.1) is transferred into the return guide (36.2) via the second transition section (36.5), and an abutment surface (36.6) is provided in the region of the second transition section (36.5).

15. The sports device according to claim 12, characterized in that, The second contact (60) includes a mating stop (63.1) which abuts against a stop (49.3) of an adjustable fixing element (49) in a displaced position.

16. The sports device according to claim 1 or 2, characterized in that, The pushing device and pulling device (100) are integrated on furniture components that can be uniformly managed, and / or the pushing device and pulling device (100) are arranged together on furniture components.

17. The sports device according to claim 16, characterized in that, The pushing device is associated with one furniture component, and the pulling device (100) is associated with another furniture component.

18. The sports device (10) according to claim 1, characterized in that, The motion device (10) is used for drawers, sliding doors, hinged doors, and flaps.

19. The sports device (10) according to claim 1, characterized in that, The guiding element (40) is guided on or within the housing (30).

20. The motion device (10) according to claim 1, characterized in that, The connection is detachable in the direction of movement of the adapter (77).

21. The motion device (10) according to claim 3, characterized in that, A detachable connection is provided between the adapter (77) and the slider (70).

22. The sports device (10) according to claim 3, characterized in that, The connection is detachable in the direction of movement of the adapter (77).

23. The sports device (10) according to claim 5, characterized in that, The rotation axis is formed by at least one second retaining element (77.3) and a retaining housing (79).

24. The motion device (10) according to claim 7, characterized in that, The guide is guided linearly.

25. The motion device (10) according to claim 10, characterized in that, At least one of the stops (72, 73) is connected to the base portion (71) via a spring element (74).

26. The motion device (10) according to claim 13, characterized in that, The actuator (80) is preloaded by a deflection spring (94).

27. The motion device (10) according to claim 14, characterized in that, The abutting surface (36.6) is configured such that the second contact (60) abuts against the abutting surface (36.6) in the self-locking displacement position.

28. The motion device (10) according to claim 27, characterized in that, The contact surface (36.6) extends perpendicular to the direction of action of the spring (90).

29. The motion device (10) according to claim 15, characterized in that, The stop (49.3) is formed of a surface, and the mating stop (63.1) abuts against the surface in a self-locking manner in the displaced position of the second contact (69).

30. The motion device (10) according to claim 29, characterized in that, The surface extends parallel to the direction of action of the accumulator (90).

31. The motion device (10) according to claim 17, characterized in that, The transmission component (110) is related to the furniture component that carries the traction device (100).

32. The motion device (10) according to claim 17, characterized in that, The transmission component (110) is connected to the traction device (100).

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