Device for attaching a slat of a slatted base, slatted base, bed, and methods for manufacturing and using it
The device simplifies slatted base height adjustment with a spring-connected slat holder and adjusting screw, enhancing ease and precision for personalized support, addressing the challenges of current mechanisms.
Patent Information
- Authority / Receiving Office
- EP · EP
- Patent Type
- Applications
- Current Assignee / Owner
- LS BEDDING
- Filing Date
- 2025-12-08
- Publication Date
- 2026-06-10
AI Technical Summary
Existing slatted bases face challenges in achieving easy and convenient height adjustment of slats, which is crucial for personalized support and comfort, as current mechanisms are difficult to access or use.
A device with a spring-connected slat holder and height adjuster, featuring an adjusting screw and sleeve, allows for easy height adjustment by leveraging tools like screwdrivers, with a simplified mechanism that reduces the need for disassembly and protects against damage.
The device simplifies and speeds up the height adjustment process, enhances accuracy, and reduces the risk of damage, enabling faster and more precise setting according to personalized profiles like Ergosleep ®< Sleep DNA ®< , while maintaining accessibility and ease of use.
Smart Images

Figure IMGAF001_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to a device for attaching a slat of a slatted base for supporting a person or an object on a support surface, to a slatted base frame.Background art
[0002] Slatted bases are widely used in beds and / or seating furniture to provide a comfortable and supportive basis for mattresses, cushions, or other surfaces for lying or sitting on. An essential part of a slatted base is the attachment of the slats to the edge of the slatted base. Traditionally, these slats are often fixed with rigid connections, which can lead to limitations in the flexibility and adjustability of the slatted base.
[0003] There is a growing need for systems that not only ensure a solid attachment of the slats, but also adjustability in the height of the slats. Such height adjustability is desired per individual slat or per group of slats. This particularly important for adapting the support to the individual needs of the user. In this way, sleeping comfort can be improved.
[0004] Adapting the support of a slatted base to the body shape and characteristics of the user, in order to provide personalized sleep solutions, is done in the prior art, for example, by means of a setting recommendation for zones in a support surface formed by slats of a slatted base. This setting recommendation comprises a specific height setting per zone of the support surface formed by the slats of the slatted base. A slatted base height profile contains a value per zone of the support surface, preferably encoded, which corresponds to the height setting for the respective zone. The Ergosleep ®< Sleep DNA ®< of a user is a slatted base height profile based on a three-dimensional body scan of the user, in combination with anthropometric data, such as height and body weight. Scan and data are processed via a scientifically grounded algorithm into a setting recommendation for twelve zones of a support surface that can be adjusted in an Ergosleep ®< sleep system. The twelve zones divide the length of the support surface into twelve equal parts. In this way, the most important ergonomic zones (head, shoulder, waist, hip, upper and lower legs) can each individually receive the support they need. This setting recommendation is stored in the Ergosleep ®< Sleep DNA ®< of the user as twelve values, with one value per zone. The value for a zone represents one of four standard height settings used in an Ergosleep ®< Sleep DNA ®< . The same height difference separates every two successive height settings. In an Ergosleep ®< Sleep DNA ®< , the value per zone is recorded with a color coding, called the Ergosleep ®< Sleep DNA ®< color coding. Each color thus corresponds to a height setting.
[0005] Devices for attaching a slat of a slatted base to a slatted base frame with the possibility of height adjustment are known in the prior art. For instance, patent publication EP1013200 A1 describes a device for attaching a slat of a slatted base for supporting a person or an object on a support surface formed by the slats of the slatted base, to a slatted base frame, comprising a spring extending between a first spring end and a second spring end, configured in use to resiliently connect the support surface to the slatted base frame in a height direction transverse to the support surface, a connecting means at the first spring end configured in use to connect the spring to the slatted base frame, at least one slat holder configured in use to receive the slat, a height adjuster, configured in use to adjust a distance between the slat and the slatted base frame according to the height direction.
[0006] It is a disadvantage of the prior art that setting the height of a slat on a slatted base frame is difficult, because the mechanism is not easy to reach or because the mechanism is not convenient to use.Description of the invention
[0007] It is an object of the present invention to solve at least a part of the problems of the prior art.
[0008] The present invention provides a device for attaching a slat of a slatted base for supporting a person or an object on a support surface formed by the slats of the slatted base, to a slatted base frame. A slatted base frame is a load-bearing, preferably rigid, construction of a slatted base, as known from the prior art, such as for example a perimeter structure of a slatted base, or two slatted base edges connected by a connecting beam. A person is for example supported by the slats of a slatted base when this person is lying on a mattress which rests on the slatted base. An object supported by the slats of a slatted base is preferably a mattress.
[0009] The device comprises a spring extending between a first spring end and a second spring end, configured in use to resiliently connect the support surface to the slatted base frame in a height direction transverse to the support surface. The spring is a slat suspension element as known from the prior art, such as for example a flexural arm, a pocket spring, a leaf spring, a plastic spring. The device further comprises a connecting means at the first spring end configured in use to connect the spring to the slatted base frame, such as for example a plate provided with holes through which the device can be fastened to the bed edge using screws or bolts. The connecting means may also comprise a dowel. The device comprises at least one slat holder configured in use to receive the slat and a height adjuster, configured in use to adjust a distance between the slat and the slatted base frame according to the height direction. The height adjuster is provided between the second spring end and the slat holder. The height adjuster comprises an adjusting screw and a sleeve, which is preferably tubular. The adjusting screw is rotationally, preferably threadedly, connected to the sleeve and the movement of the adjusting screw relative to the sleeve is configured in use to change the distance between the slat and the slatted base frame according to the height direction.
[0010] Preferably, the adjusting screw and the sleeve are configured in use together to move the adjusting screw linearly relative to the sleeve when the adjusting screw rotates.
[0011] Preferably, the adjusting screw extends between a first adjusting screw end and a second adjusting screw end and the adjusting screw comprises a head at the second adjusting screw end, and a shank between the head and the first adjusting screw end. The head comprises a first engagement point configured to be engaged by a gripper, such as for example a hexagon for gripping with an adjustable wrench, or a recess for a screwdriver end - the screwdriver end is also called a screwdriver tip or screwdriver head - according to the prior art, such as for example a slot for a flathead screwdriver, a cross for a Phillips screwdriver, a cross for a Pozidriv screwdriver, a star-shaped hole with six vertices in which a Torx key fits, or a hexagonal hole in which an Allen key fits. Preferably , a screw thread having a pitch is provided around the shank. The screw thread is a lead screw thread, which serves specifically for moving parts, such as for example a screw thread with, for example, a rectangular or trapezoidal profile. The pitch is the linear distance between two corresponding points of the same helix, being the displacement along the axis per revolution. The height adjuster is not located between the spring and the slatted base frame, but between the spring and the slat. The height adjuster may have different orientations relative to the slatted base frame, and be rotated from a side, the top, or the bottom of the slatted base.
[0012] It is an advantage of the present invention that the height adjuster becomes more accessible and adjusting the height of a slat becomes easier. It is an additional advantage that a screwdriver or other tool can be used when setting the height, whereby the required force can be reduced through leverage and the accuracy of the height setting can be increased. Furthermore, the force transmission from the hand of the person setting the height can be controlled more easily. It is an additional advantage that, through the use of an adjusting screw, the height adjustment does not require any parts to be disassembled, which leads to a further simplification of the adjustment of the height of a slat. Furthermore, the risk of damage resulting from the disassembly of parts during height adjustment is lowered. It is an additional advantage that setting and personalizing a complete bed according to a personalized slatted base height profile, such as for example an Ergosleep ®< Sleep DNA ®< , can be performed faster and more easily. It is an additional advantage that the attachment of the device to the slatted base frame can be performed faster and with fewer errors, because the attachment is simplified, as the height adjuster is not located near the connecting means at the first spring end.
[0013] Preferably, the adjusting screw extends according to the height direction, the first spring end is configured in use to be located further from the support surface in the height direction than the second spring end, the first adjusting screw end is located closer to the first spring end than the second adjusting screw end, and the second adjusting screw end is located closer to the second spring end than to the first spring end. The adjusting screw can be rotated from the top of the slatted base.
[0014] It is an advantage of the present invention that the height adjuster can be simplified because the adjusting screw moves in the direction of the height adjustment. It is an additional advantage that the head is transverse to the support surface and points towards the support surface, making the adjusting screw more accessible, particularly when two slatted bases are placed next to each other in a double bed.
[0015] Optionally, the sleeve is configured in use to abut against a braking surface at the first spring end when a distance between the first spring end and the second spring end is equal to a minimum distance between the first spring end and the second spring end, and the sleeve is configured in use, in cooperation with the braking surface, to keep a distance between the first spring end and the second spring end equal to or greater than the minimum distance between the first spring end and the second spring end. If the distance between the first spring end and the second spring end becomes smaller than the minimum distance between the first spring end and the second spring end, the spring is outside its elastic zone and can be damaged.
[0016] It is an advantage of the present invention that a mechanism exists which protects the spring against permanent deformation. This extends the service life of the device. It is an additional advantage that the device has elements that have a multiple function, such as the sleeve receiving the adjusting screw as well as protecting the spring. This leads to a simplification of the system.
[0017] Preferably, the height adjuster comprises a screw cage and a screw cage guide. Preferably, the adjusting screw is rotationally connected to the screw cage, the screw cage guide is connected to the sleeve, the screw cage guide is translationally connected to the screw cage. The screw cage is configured in use to move translationally according to the height direction along the screw cage guide when the adjusting screw rotates and comprises a first screw cage surface. Preferably, the first screw cage surface is configured in use to shield the adjusting screw from contact in a direction transverse to the first screw cage surface, and configured in use to be translationally connected to the screw cage guide. Preferably, the screw cage and screw cage guide comprise a cooperating screw cage guide groove and screw cage guide lip and the screw cage guide groove is configured in use to receive the screw cage guide lip.
[0018] It is an advantage of the present invention that the screw cage guides the movement according to the height direction and thereby minimizes lateral forces on the adjusting screw. It is a further advantage of the present invention that it reduces the risk of injury from touching the adjusting screw, because this contact is made more difficult. The risk of damage to the adjusting screw is also reduced. It is a further advantage of the present invention that the risk of an incorrectly fitting screw cage and screw cage guide is reduced, particularly when the screw cage guide groove and / or screw cage guide lip break a circular symmetry of the screw cage.
[0019] Preferably, the screw cage is configured in use to move along the screw cage guide between a first screw cage position and a second screw cage position, and the screw cage and / or screw cage guide comprise a screw cage blocking mechanism, such as for example an end stop, an abutment, a mechanical stopper, a locking pin, configured in use to stop the screw cage when the screw cage is in the first screw cage position and / or when the screw cage is in the second screw cage position, so that the screw cage can only move between the first screw cage position and / or second screw cage position.
[0020] It is an advantage of the present invention that an accidental disconnection of the screw cage from the screw cage guide is avoided, making the device safer and facilitating the setting of the device.
[0021] Preferably, the head comprises a flange transverse to the shank, the screw cage comprises a bearing surface, the bearing surface is arranged transverse to the height direction and against the flange, the bearing surface is provided with a first through-hole, the adjusting screw extends through the first through-hole, and the flange is located on the other side of the bearing surface than the second adjusting screw end.
[0022] It is an advantage of the present invention that the screw cage and adjusting screw are connected in a simple manner and the movement of the adjusting screw is transferred in a simple way to the screw cage, particularly when the head is transverse to the support surface and points towards the support surface. It is an additional advantage of the present invention that it combines simple access to the first engagement point with a simple connection between adjusting screw and screw cage.
[0023] Optionally, the adjusting screw comprises an adjusting screw lock, configured in use to lock the adjusting screw. The adjusting screw lock comprises a locking spring, a locking element, and a catch. The locking element is configured in use to move between a first locking element position and a second locking element position and to be received by the catch when it is in the second locking element position. The locking spring is provided to keep the locking element in the second locking element position. The adjusting screw lock is configured in use to lock the adjusting screw rotationally when the locking element is in the second locking element position.
[0024] It is an advantage of the present invention that it protects against an unintentional adjustment of the height.
[0025] Preferably, the adjusting screw lock further comprises a locking cover and the locking element comprises a locking head. The locking head is arranged translatably according to the height direction between the first locking element position and the second locking element position relative to the screw cage, and arranged rotatably relative to the screw cage. The locking head extends in the height direction between a first locking head end and a second locking head end and comprises at the first locking head end a first gripper, such as for example a projection, such as for example a tooth or a screwdriver end, configured in use to engage the first engagement point. The locking head is configured in use to rotate the adjusting screw when the locking head rotates. The locking head comprises at the second locking head end a second engagement point, configured to be engaged by a gripper. This second engagement point is preferably similar to the first engagement point. The locking head comprises at the second locking head end at least one protrusion, such as for example a tooth. The locking cover is connected to the screw cage and comprises a cover surface transverse to the height direction. The locking cover comprises a locking recess, such as for example a groove. The catch comprises the locking recess. The locking recess is configured in use to receive the protrusion, when the locking head is in the second locking element position. The locking head is configured in use to lock rotationally when the locking recess receives the protrusion. The locking spring, such as for example a disc spring or other spring known from the prior art, is provided to push the locking head against the locking cover surface and is configured in use to keep the protrusion in the locking recess when the locking head is in the second locking element position. The cover surface comprises a second through-hole, which is aligned with the second locking head end.
[0026] It is an advantage of the present invention that releasing the lock to rotate the adjusting screw is simplified. The user can release the lock with the tool used to rotate the adjusting screw, wherein the rotation is enabled by pressing in the locking head with the tool. This simplification is enhanced, in particular when the head is transverse to the support surface and points towards the support surface, because the user can then perform a downward pressing motion. It is an additional advantage that the user does not need to actively lock the adjusting screw, but the system locks the adjusting screw automatically.
[0027] Preferably, the protrusion, the locking recess and the locking spring are configured in use together to lock the locking head rotationally when the locking recess receives the protrusion and a rotational force exerted on the locking head is smaller than a threshold value, and the protrusion, the locking recess and the locking spring are configured in use together to move the locking head to the first locking element position when a rotational force exerted on the locking head is greater than the threshold value.
[0028] It is an advantage of the present invention that it protects against an unintentional adjustment of the height, and simultaneously simplifies releasing the lock to rotate the adjusting screw. The user can release the lock with the tool used to rotate the adjusting screw, without first pushing in the locking head. This is a more intuitive movement in relation to the use of an adjusting screw than relative to first pressing the locking head, so that a user with less prior knowledge can use the system in a correct manner. This extends the service life of the tool, the locking head, and the device.
[0029] Preferably, the at least one protrusion extends between a first protrusion edge and a second protrusion edge, wherein the first protrusion edge and the second protrusion edge are transverse to the direction of rotation of the locking head. The first protrusion edge and the second protrusion edge are inclined relative to the locking head, with an angle of inclination of at most 45°, preferably between 15° and 45°, more preferably between 20° and 40°. The locking recess has a shape complementary to the at least one protrusion, comprising a first locking recess edge and a second locking recess edge transverse to the direction of rotation of the locking head.
[0030] Preferably, the at least one protrusion is non-circularly symmetric relative to the axis of rotation of the locking head, and locks the locking head when the adjusting screw is in a first rotational position relative to the sleeve.
[0031] Optionally, the protrusion and the locking recess are configured in use together to enable the locking head to move to the second locking element position when the locking head is in a second rotational position relative to the screw cage.
[0032] It is an advantage of the present invention that the automatic locking takes place when the locking head and adjusting screw are in a predetermined position. This simplifies and speeds up the height setting, while the device is secured against unintentionally changing the height.
[0033] Preferably, the height adjuster comprises a height indicator, configured in use to display an indication of a distance between the slat and the slatted base frame according to the height direction. The height indicator preferably comprises a flexible indicator strip, an indicator guide provided with an indicator guide slot, and a first indicator window. The indicator strip comprises indicator markings. The screw cage and the locking cover comprise the indicator guide, the indicator guide slot receives the indicator strip with indicator markings facing the cover surface, and the first indicator window is a transparent part of the cover surface, preferably a third through-hole, aligned with the indicator guide slot. The indicator strip is connected to the sleeve, preferably by a pin with a flat head, which is received through a through-hole in the indicator strip into a hole in the sleeve. The hole in the sleeve clamps the pin. The indicator may also be connected to the sleeve by any other way known in the prior art. The indicator strip is configured in use to slide back and forth in the indicator guide slot when a distance between the slat and the slatted base frame according to the height direction changes.
[0034] It is an advantage of the present invention that it simplifies the setting of the device, because a user can easily read the set height. It is an additional advantage of the present invention, in particular when the head is transverse to the support surface and points towards the support surface, that the indicator markings are directed towards the support surface and are readable through a window.
[0035] Preferably, the device further comprises a flex head, which comprises a flex head surface and two slat holders. The slat holders are provided to each receive one of two co-aligned slats, and are connected to the flex head surface on opposite sides of the flex head surface. The flex head is provided to be connected to the height adjuster, preferably by a snap connection.
[0036] It is an advantage of the present invention that a slatted base based on this device can easily be constructed, as the actions of connecting the device to the slatted base and connecting the slats to the device can easily be performed independently of each other, for example first connecting the device to the slatted base and only then connecting the slats to the device.
[0037] The flex head surface is preferably directed along the support surface and configured in use to be located on the same side of the bearing surface as the second adjusting screw end when the flex head is connected to the height adjuster. Preferably, the flex head surface comprises a fourth through-hole, which is aligned with the second adjusting screw end.
[0038] It is an advantage of the present invention, in particular when the head is transverse to the support surface and points towards the support surface, that the adjusting screw remains accessible after the flex head is mounted on the height adjuster.
[0039] Preferably, the adjusting screw is configured in use to adjust a distance between the slat and the slatted base frame according to a value from a slatted base height profile, preferably an Ergosleep ®< Sleep DNA ®< , when the adjusting screw is in the first rotational position relative to the sleeve. For example, there exists a device in which it is possible to adjust a distance between the slat and the slatted base frame according to all four standard height settings used in an Ergosleep ®< Sleep DNA ®< , for example, there exists a device in which it is possible to adjust a distance between the slat and the slatted base frame according to three of the four standard height settings used in an Ergosleep ®< Sleep DNA ®< .
[0040] It is an advantage of the present invention that it enables setting according to an Ergosleep ®< Sleep DNA ®< .
[0041] Preferably, the distance between the slat and the slatted base frame changes by the difference in distance between two successive, standard height settings used in an Ergosleep ®< Sleep DNA ®< upon a movement of the adjusting screw relative to the sleeve equal to the pitch. As a result, upon a full revolution, a movement is made from a first standard height setting used in an Ergosleep ®< Sleep DNA ®< to a subsequent height setting used in an Ergosleep ®< Sleep DNA ®< .
[0042] Preferably, the indicator markings comprise a coding that corresponds to a coding of a height setting from a slatted base height profile, preferably the Ergosleep ®< Sleep DNA ®< color coding.
[0043] It is an advantage of the present invention that it simplifies setting according to an Ergosleep ®< Sleep DNA ®< . In particular, when the locking mechanism locks the adjusting screw at the standard height settings used in an Ergosleep ®< Sleep DNA ®< , the setting is further simplified. It is an additional advantage of the present invention that uncertainty about the correct setting is reduced.
[0044] The present invention further provides a height adjuster for adjusting the height of a support surface of seating or lying furniture with a furniture frame, such as for example a bed, wherein the support surface is for example formed by a slat of a slatted base. The support surface may be divided into different zones that can be adjusted in height separately by different height adjusters according to the present invention.
[0045] The height adjuster is provided to connect the support surface to the furniture frame and is configured in use to set a distance between the support surface and the furniture frame according to a height direction transverse to the support surface. The height adjuster comprises an adjusting screw and a sleeve, which is preferably tubular. The adjusting screw is provided to be connected to the support surface and the sleeve is provided to be connected to the furniture frame. The adjusting screw is rotationally, preferably threadedly, connected to the sleeve and the movement of the adjusting screw relative to the sleeve is configured in use to change the distance between the support surface and the furniture frame according to the height direction.
[0046] Preferably, the adjusting screw and the sleeve are configured in use together to move the adjusting screw linearly relative to the sleeve when the adjusting screw rotates.
[0047] Preferably, the adjusting screw comprises a first adjusting screw end, a second adjusting screw end, a head having a first engagement point, and a shank having a screw thread having a pitch, as previously described in the present invention.
[0048] It is an advantage of the present invention that adjusting the height of a support surface is simplified. It is an additional advantage that a screwdriver or other tool can be used when setting the height, whereby the required force can be reduced through leverage and the accuracy of the height setting can be increased. Furthermore, the force transmission from the hand of the person setting the height can be controlled more easily. It is an additional advantage that, through the use of an adjusting screw, the height adjustment does not require any parts to be disassembled, which leads to a further simplification of the adjustment of the height of a support surface. Furthermore, the risk of damage resulting from the disassembly of parts during height adjustment is lowered. It is an additional advantage that setting and personalizing a complete bed according to a personalized slatted base height profile, such as for example an Ergosleep ®< Sleep DNA ®< , can be performed faster and more easily.
[0049] Preferably, the adjusting screw extends according to the height direction, and the second adjusting screw end is located closer to the support surface than the first adjusting screw end. The adjusting screw can be rotated from the top of the seating or lying furniture.
[0050] It is an advantage of the present invention that the height adjuster can be simplified as the adjusting screw moves in the direction of the height adjustment. It is an additional advantage that the head is transverse to the support surface and points towards the support surface, making the adjusting screw more accessible.
[0051] Preferably, the height adjuster comprises a screw cage and a screw cage guide as previously described in the present invention, the screw cage comprising a first screw cage surface as previously described in the present invention, the screw cage and screw cage guide comprising a cooperating screw cage guide groove and screw cage guide lip as previously described in the present invention.
[0052] Preferably, the screw cage is configured in use to move along the screw cage guide between a first screw cage position and a second screw cage position, and the screw cage and / or screw cage guide comprise a screw cage blocking mechanism, as previously described in the present invention.
[0053] Preferably, the head comprises a flange transverse to the shank, the screw cage comprises a bearing surface, the bearing surface is arranged transverse to the height direction and against the flange, the bearing surface is provided with a first through-hole, the adjusting screw extends through the first through-hole, and the flange is located on the other side of the bearing surface than the second adjusting screw end, as previously described in the present invention.
[0054] Optionally, the adjusting screw comprises an adjusting screw lock with a locking spring, a locking element, and a catch, as previously described in the present invention.
[0055] Preferably, the adjusting screw lock further comprises a locking cover and the locking element comprises a locking head, as previously described in the present invention. The locking head comprises a first locking head end, a second locking head end, a first gripper, a second engagement point, at least one protrusion, as previously described in the present invention. The locking cover comprises a cover surface with a second through-hole, and a locking recess, as previously described in the present invention. The locking spring is provided to interact with the locking head, the cover surface and the locking recess as previously described in the present invention.
[0056] Preferably, the protrusion, the locking recess and the locking spring are configured in use together to lock and move the locking head as previously described in the present invention.
[0057] Preferably, the at least one protrusion comprises a first protrusion edge and a second protrusion edge and the locking recess comprises a first locking recess edge and a second locking recess edge, as previously described in the present invention.
[0058] Preferably, the at least one protrusion is non-circularly symmetric relative to the axis of rotation of the locking head, as previously described in the present invention.
[0059] Optionally, the protrusion and the locking recess are configured in use together to enable the locking head to move as previously described in the present invention.
[0060] Preferably, the height adjuster comprises a height indicator, as previously described in the present invention. The height indicator preferably comprises a flexible indicator strip provided with indicator markings, an indicator guide provided with an indicator guide slot, and a first indicator window, as previously described in the present invention. The indicator strip is connected to the sleeve, as previously described in the present invention.
[0061] Preferably, the adjusting screw is configured in use to set a distance between the support surface and the furniture frame according to a value from a slatted base height profile, preferably an Ergosleep ®< Sleep DNA ®< , as previously described in the present invention.
[0062] Preferably, the distance between the support surface and the furniture frame changes by the difference in distance between two successive, standard height settings used in an Ergosleep ®< Sleep DNA ®< , as previously described in the present invention.
[0063] Preferably, the indicator markings comprise a coding that corresponds to a coding of a height setting from a slatted base height profile, preferably the Ergosleep ®< Sleep DNA ®< color coding, as previously described in the present invention.
[0064] The present invention further provides a slatted base, comprising a slatted base frame, at least one slat for supporting a person or an object on a support surface formed by the at least one slat, and at least one device according to the present invention for attaching a slat of a slatted base for supporting a person or an object on a support surface formed by the slats of the slatted base, to a slatted base frame. The at least one device is connected to the slatted base frame by means of the connecting means, and the at least one slat is received by the at least one slat holder of the at least one device.
[0065] The present invention further provides a bed, comprising a slatted base according to the present invention.
[0066] The present invention further provides a method for manufacturing the slatted base according to the present invention, the slatted base comprising a first device and a second device according to the present invention, wherein the first device and second device are configured in use together to attach a slat to the slatted base.
[0067] Preferably, the method for manufacturing the slatted base comprises connecting the first device to the slatted base frame.
[0068] Optionally, the method for manufacturing the slatted base comprises connecting the second device to the slatted base frame.
[0069] Preferably, the method for manufacturing the slatted base comprises introducing a slat into the slat holder of the first device.
[0070] Optionally, the method for manufacturing the slatted base comprises introducing a slat into the slat holder of the second device.
[0071] Preferably, the method for manufacturing the slatted base comprises connecting the flex head of the first device to the height adjuster of the first device.
[0072] Optionally, the method for manufacturing the slatted base comprises connecting the flex head of the second device to the height adjuster of the second device.
[0073] The present invention further provides a method for using the slatted base according to the present invention, comprising rotating the adjusting screw of the at least one device to change the distance between the slat and the slatted base frame.
[0074] Preferably, the method for using the slatted base comprises rotating the adjusting screw of the at least one device to change the distance between the slat and the slatted base frame, and comprises engaging a gripper, such as for example the locking head or a screwdriver, on the first engagement point of the at least one device.
[0075] Optionally, rotating the adjusting screw of the at least one device to change the distance between the slat and the slatted base frame comprises moving the locking element of the at least one device to the first locking element position.
[0076] Optionally, the method for using the slatted base comprises obtaining a slatted base frame height profile and setting the at least one device according to the slatted base frame height profile.
[0077] Preferably, obtaining a slatted base frame height profile comprises obtaining an Ergosleep ®< Sleep DNA ®< of a person, and setting the at least one device according to the slatted base frame height profile comprises setting the at least one device according to the Ergosleep ®< Sleep DNA ®< of the person.
[0078] It is an advantage of the present invention that construction of a slatted base is simplified, as is the height setting of the slatted base according to a slatted base height profile, in particular an Ergosleep ®< Sleep DNA ®< .Brief description of the drawings
[0079] The invention will hereinafter be described in further detail with reference to the accompanying drawings, in which: Figure 1 shows a cross-section of a device according to the present invention according to line A-A in figure 5. Figure 2 shows a cross-section of a device according to the present invention according to line B-B in figure 5. Figure 3 shows an exploded view of a device according to the present invention. Figure 4 shows an exploded view of a device according to the present invention. Figure 5 shows a top view of a device according to the present invention. Figure 6a shows a parallel projection of a device according to the present invention with the screw cage in the first screw cage position. Figure 6b shows a parallel projection of a device according to the present invention with the screw cage in the second screw cage position. Figure 7a shows a side and top view of a locking head of a device according to the present invention. Figure 7b shows a locking cover of a device according to the present invention. Figure 8 shows a height adjuster according to the present invention. Figure 9a shows a side view of a bed according to the present invention. Figure 9b shows a top view of a bed according to the present invention. Figure 9c shows a parallel projection of a bed according to the present invention. Embodiments of the invention
[0080] The present invention will hereafter be described with reference to specific embodiments and with reference to certain drawings, but the invention is not limited thereto and is only defined by the claims. The drawings shown here are only schematic representations and are not limiting. In the drawings, the dimensions of certain parts may be exaggerated, which means that the parts in question are not shown to scale, being only for illustrative purposes. The dimensions and relative dimensions do not necessarily correspond to the actual practical implementations of the invention.
[0081] Furthermore, terms such as "first", "second", "third", and the like in the description and in the claims are used to distinguish between similar elements and not necessarily to indicate a sequential or chronological order. The terms in question are interchangeable under appropriate circumstances, and the embodiments of the invention can operate in other sequences than those described or illustrated here.
[0082] Moreover, terms such as "top", "bottom", "over", "under", and the like in the description and in the claims are used for descriptive purposes and not necessarily to indicate relative positions. The terms thus used are interchangeable under appropriate circumstances, and the embodiments of the invention can operate in other orientations than those described or illustrated here.
[0083] The term "comprising" and derived terms, as used in the claims, should not be interpreted as being limited to the means listed respectively thereafter; the term does not preclude other elements or steps. The term should be interpreted as specifying the stated features, integers, steps, or components referred to, without precluding the presence or addition of one or more additional features, integers, steps, or components, or groups thereof. The scope of an expression such as "a device comprising the means A and B" is therefore not limited to only devices consisting purely of components A and B. What is meant, on the contrary, is that, with respect to the present invention, the only relevant components are A and B.
[0084] Fig. 1, 2, 3, 4, 5, 6a and 6b show a device 101 for attaching a slat 102 of a slatted base for supporting a person or an object on a support surface 103 formed by the slats 102 of the slatted base, to a slatted base frame. First, a general description of the device 101 will now follow, followed by a brief description of each figure.
[0085] The device 101 comprises a spring 104 extending between a first spring end 105 and a second spring end 106, configured in use to resiliently connect the support surface 103 to the slatted base frame in a height direction h transverse to the support surface 103, a connecting means 107 at the first spring end 105 configured in use to connect the spring 104 to the slatted base frame, at least one slat holder 108 receiving the slat 102, and a height adjuster 109, configured in use to set a distance between the slat 102 and the slatted base frame according to the height direction h. The first spring end is located further from the support surface 103 in the height direction h than the second spring end 106. The height adjuster 109 is provided between the second spring end 106 and the slat holder 108, and comprises an adjusting screw 110 and a sleeve 111. The sleeve 111 is connected to the second spring end 106. The adjusting screw 110 is threadedly connected to the sleeve 111, and the movement of the adjusting screw 110 relative to the sleeve 111 is configured in use to change the distance between the slat 102 and the slatted base frame according to the height direction h. The adjusting screw 110 and the sleeve 111 are configured in use together to move the adjusting screw 110 relative to the sleeve 111 linearly when the adjusting screw 110 rotates. The adjusting screw 110 extends between a first adjusting screw end 112 and a second adjusting screw end 113 according to the height direction h. The first adjusting screw end 112 is located closer to the first spring end 105 than the second adjusting screw end 113, and the second adjusting screw end 113 is located closer to the second spring end 106 than to the first spring end 105. The adjusting screw 110 comprises a head 114 at the second adjusting screw end 113, and a shank 115 between the head 114 and the first adjusting screw end 112. The head 114 comprises a first engagement point 116, configured to be engaged by a gripper, and a flange 117 transverse to the shank 115, and a screw thread 118 having a pitch is provided around the shank 115. The sleeve 111 is configured in use to abut against a braking surface 119 at the first spring end 105 when a distance between the first spring end 105 and the second spring end 106 equals a minimum distance between the first spring end 105 and the second spring end 106, and the sleeve 111 is configured in use, in cooperation with the braking surface 119, to keep a distance between the first spring end 105 and the second spring end 106 equal to or greater than the minimum distance between the first spring end 105 and the second spring end 106. The height adjuster 109 comprises a screw cage 120 and a screw cage guide 121, wherein the adjusting screw 110 is rotationally connected to the screw cage 120, the screw cage guide 121 is connected to the sleeve 111, the screw cage guide 121 is translationally connected to the screw cage 120, the screw cage 120 is configured in use to move translationally according to the height direction h along the screw cage guide 121 when the adjusting screw 110 rotates. The screw cage 120 is configured in use to move along the screw cage guide 121 between a first screw cage position and a second screw cage position, the screw cage 120 comprises a screw cage blocking mechanism 304, comprising an end stop 305, the screw cage blocking mechanism 304 is configured in use to stop the screw cage 120 when the screw cage 120 is in the second screw cage position and a user tries to move the screw cage 120 beyond the second screw cage position. The screw cage 120 comprises a first screw cage surface 122, a second screw cage surface 123 and a third screw cage surface 301, which are each arranged according to the height direction h and translationally connected to the screw cage guide 121. The second screw cage surface 123 and third screw cage surface 301 are parallel to each other and transverse to the first screw cage surface 122. The first screw cage surface 122 connects the second screw cage surface 123 to the third screw cage surface 301. The first screw cage surface 122, the second screw cage surface 123 and the third screw cage surface 301 are configured in use to shield the adjusting screw 110 from contact in a direction transverse to the respective screw cage surface. The screw cage 120 and screw cage guide 121 comprise a cooperating screw cage guide groove 306 and screw cage guide lip 307 and the screw cage guide groove 306 receives the screw cage guide lip 307. The screw cage 120 comprises a bearing surface 124 with a first through-hole 125, wherein the bearing surface 124 is transverse to the height direction h, the bearing surface 124 lies against the flange 117, the adjusting screw 110 extends through the first through-hole 125, the flange 117 is located on the other side of the bearing surface 124 than the second adjusting screw end 113. The height adjuster 109 comprises a retaining ring 126, in particular a circlip, provided to keep the bearing surface 124 positioned between the flange 117 and the second adjusting screw end. The head 114 comprises a circumferential groove 127 provided to receive the retaining ring 126. The adjusting screw 110 comprises an adjusting screw lock 128, configured in use to lock the adjusting screw 110. The adjusting screw lock 128 comprises a locking spring 129, a locking element 130, a catch 302, and a locking cover 131. The locking element 130 comprises a locking head 132, arranged translatably according to the height direction h between the first locking element position and the second locking element position relative to the screw cage 120, and arranged rotatably relative to the screw cage 120. The locking head 132 extends in the height direction h between a first locking head end 133 and a second locking head end 134, wherein the locking head 132 comprises a first gripper 135 at the first locking head end 133, which engages the first engagement point 116, wherein the locking head 132 is configured in use to rotate the adjusting screw 110 when the locking head 132 rotates, wherein the locking head 132 comprises a second engagement point 136 at the second locking head end 134, configured to be engaged by a gripper. The locking head 132 comprises at least one protrusion 401 at the second locking head end 134. The locking cover 131 is connected to the screw cage 120 and comprises a cover surface 137 transverse to the height direction h, a locking recess 303, wherein the catch 302 comprises the locking recess 303, the locking recess 303 is configured in use to receive the protrusion 401, when the locking head 132 is in the second locking element position, the locking head 132 is configured in use to lock rotationally when the locking recess 303 receives the protrusion 401, the locking spring 129 is provided to urge the locking head 132 against the cover surface 137 and is configured in use to keep the protrusion 401 in the locking recess 303 when the locking head 132 is in the second locking element position. The cover surface 137 comprises a second through-hole 138, aligned with the second locking head end 134. The at least one protrusion 401 is non-circularly symmetric relative to the axis of rotation a of the locking head 132, and locks the locking head 132 when the adjusting screw 110 is in a first rotational position relative to the sleeve 111. The height adjuster 109 comprises a height indicator 201, configured in use to display an indication of a distance between the slat 102 and the slatted base frame according to the height direction h. The height indicator 201 comprises a flexible indicator strip 202 provided with indicator markings 203, an indicator guide 204 provided with an indicator guide slot 205, and a first indicator window 206. The screw cage 120 and the locking cover 131 comprise the indicator guide 204, and the indicator guide slot 205 receives the indicator strip 202 provided with indicator markings 203 facing the cover surface 137. The first indicator window 206 is a transparent part of the cover surface 137, in particular a third through-hole 207, aligned with the indicator guide slot 205. The indicator strip 202 is connected to the sleeve 111, by a pin 208 with a flat head 114, which is received, through a through-hole in the indicator strip 202, in a hole in the sleeve 111, which clamps the pin 208. The indicator strip 202 is configured in use to slide back and forth in the indicator guide slot 205 when a distance between the slat 102 and the slatted base frame according to the height direction h changes. The device 101 comprises a flex head 139, wherein the flex head 139 comprises a flex head surface 402 and two slat holders 108, the flex head surface 402 is directed along the support surface 103, the flex head surface 402 comprises a fourth through-hole 140, the fourth through-hole 140 is aligned with the second adjusting screw end 113, the slat holders 108 each receive one of two co-aligned slats 102, the slat holders 108 on opposite sides of the flex head surface 402 are connected to the flex head surface 402, the flex head 139 is connected to the height adjuster 109 via a snap connection 141, the flex head surface 402 is located at the same side of the bearing surface 124 as the second adjusting screw end 113, the flex head surface 402 comprises a second indicator window 209, the second indicator window 209 is a transparent part of the flex head surface 402, in particular a fifth through-hole 210, aligned with the first indicator window 206. The slat holders 108 are connected to the flex head 139 so as to be tiltable around a longitudinal direction of the slats 102. The adjusting screw 110 is configured in use to set a distance between the slat 102 and the slatted base frame 903 according to a value from an Ergosleep ®< Sleep DNA ®< , when the adjusting screw 110 is in a first rotational position relative to the sleeve 111. A movement of the adjusting screw 110 relative to the sleeve 111 equal to the pitch changes the distance between the slat 102 and the slatted base frame by the difference in distance between two successive, standard height settings used in an Ergosleep ®< Sleep DNA ®< . The indicator markings 203 comprise a coding that corresponds to the Ergosleep ®< Sleep DNA ®< color coding.
[0086] Fig. 1 shows a cross-section of the device 101 according to line A-A in fig. 5. The figure shows the relationship between the slat holder 108, the height adjuster 109, and the spring 104. It also shows how the adjusting screw 110 is connected to the sleeve 111, how the adjusting screw 110 is connected to the screw cage 120, how the adjusting screw lock 128 is constructed, with the locking spring 129, the locking element 130, the locking cover 131, and the locking head 132, and how the flex head 139 is connected to the height adjuster 109.
[0087] Fig. 2 shows a cross-section of the device 101 according to line B-B in fig. 5. It shows how the height indicator 201 is connected to the height adjuster 109, in particular to the screw cage 120.
[0088] Fig. 3 shows an exploded view of the device 101. It shows the structure of the screw cage 120 and the screw cage guide 121, including the screw cage blocking mechanism 304, the end stop 305, the screw cage guide groove 306 and screw cage guide lip 307. It also shows the catch 302 and the locking recess 303 of the adjusting screw lock 128.
[0089] Fig. 4 shows an exploded view of the device 101. It shows the protrusion 401 of the locking head 132 and the flex head surface 402 of the flex head 139.
[0090] Fig. 5 shows a top view of the device 101. The sections A-A and B-B indicate how this figure is related to fig. 1 and 2, and the figure shows the flex head 139, the locking head 132 and the second indicator window 209.
[0091] Fig. 6a shows a parallel projection of the device 101 with the screw cage 120 in the first screw cage position.
[0092] Fig. 6b shows a parallel projection of the device 101 with the screw cage 120 in the second screw cage position. The figure highlights the screw cage blocking mechanism 304, in particular the interaction of the end stop 305 with the screw cage guide 121.
[0093] In an alternative embodiment, the protrusion, the locking recess and the locking spring are configured in use together to lock the locking head rotationally when the locking recess receives the protrusion and a rotational force exerted on the locking head is smaller than a threshold value, and the protrusion, the locking recess and the locking spring are configured in use together to move the locking head to the first locking element position when a rotational force exerted on the locking head is greater than the threshold value. See Fig. 7a and 7b for this.
[0094] Fig. 7a and 7b respectively show a side and top view of a locking head 132 and a perspective view of a locking cover 131 of a device 101 according to the present invention. The locking head 132 and the locking cover 131 from fig. 7a and 7b can replace the locking head 132 and the locking cover 131 from the device 101 shown in fig. 1, 2, 3, 4, 5, 6a and 6b, which leads to an alternative embodiment. The structure and operation of the device 101 of the alternative embodiment is the same as that described for fig. 1, 2, 3, 4, 5, 6a and 6b, except for the fact that the adjusting screw lock 128 is different. In particular, the protrusion 401, the locking recess 303 and the locking spring 129 are configured in use together to rotationally lock the locking head 132 when the locking recess 303 receives the protrusion 401 and a rotational force exerted on the locking head 132 is smaller than a threshold value, and the protrusion 401, the locking recess 303 and the locking spring 129 are configured in use together move to the locking head 132 to the first locking element position when a rotational force exerted on the locking head 132 is greater than the threshold value. The two protrusions extend between a respective first protrusion edge 701 and a respective second protrusion edge 702, wherein the first protrusion edges and the second protrusion edges are transverse to the direction of rotation of the locking head 132. The first protrusion edges and the second protrusion edges are inclined relative to the locking head 132, with an angle of inclination of 30°. There are two locking recesses 303, each having a shape complementary to one of the protrusions, comprising a respective first locking recess edge 703 and a respective second locking recess edge 704 transverse to the direction of rotation of the locking head 132. The two protrusions together are non-circularly symmetric relative to the axis of rotation a of the locking head 132 and lock the locking head 132 when the adjusting screw 110 is in a first rotational position relative to the sleeve 111.
[0095] Fig. 8 shows a height adjuster 109 according to the present invention for adjusting the height of a support surface of seating or lying furniture with a furniture frame, such as for example a bed, wherein the support surface is for example formed by a slat of a slatted base. The height adjuster 109 is provided to connect the support surface to the furniture frame and is configured in use to set a distance between the support surface and the furniture frame according to a height direction h transverse to the support surface. The height adjuster 109 comprises an adjusting screw 110 and a tubular sleeve 111. The adjusting screw 110 is provided to be connected to the support surface and the sleeve 111 is provided to be connected to the furniture frame. The adjusting screw 110 is rotationally and threadedly connected to the sleeve 111 and the movement of the adjusting screw 110 relative to the sleeve 111 is configured in use to change the distance between the support surface and the furniture frame according to the height direction h. Fig. 8 shows a cross-section similar to the cross-section shown in fig. 2. For a detailed description of the features of the height adjuster 109, we refer to the description of the height adjuster 109 in the general description of the device according to the present invention of fig. 1, 2, 3, 4, 5, 6a and 6b, using the reference numbers in fig. 8 as a guide.
[0096] Fig. 9a and 9b respectively show a side view and a top view of a bed 901 according to the present invention, comprising a slatted base 902 according to the present invention. The slatted base 902 comprises a slatted base frame 903, twenty-four slats 102 for supporting a person or an object on a support surface formed by the twenty-four slats 102, seven devices 101 as shown in fig. 1, 2, 3, 4, 5, 6a and 6b, with the locking head 132 and the locking cover as shown in fig. 7a and 7b. The seven devices 101 are connected to the slatted base frame 903 by means of the connecting means of the device 101, fourteen slats 102 are received by the at least one slat holder 108 of the seven devices 101. The seven devices 101 are each individually set to one of the four standard height settings used in an Ergosleep ®< Sleep DNA ®< .
[0097] Figure 9c shows a parallel projection of a bed 901 according to the present invention, comprising a slatted base 902 according to the present invention. The slatted base 902 comprises a slatted base frame 903, twenty-four slats 102 for supporting a person or an object on a support surface formed by the twenty-four slats 102, seven devices 101 as shown in fig. 1, 2, 3, 4, 5, 6a and 6b, with the locking head 132 and the locking cover as shown in fig. 7a and 7b. The slatted base frame 903 consists of parts that are rotatable relative to each other. The seven devices 101 are connected to the slatted base frame 903 by means of the connecting means 107 of the device 101, fourteen slats 102 are received by the at least one slat holder 108 of the seven devices 101. The seven devices 101 are each individually set to one of the four standard height settings used in an Ergosleep ®< Sleep DNA ®< .
Claims
1. A device (101) for attaching a slat (102) of a slatted base (902) for supporting a person or an object on a support surface (103) formed by the slats (102) of the slatted base, to a slatted base frame (903), comprising - a spring (104) extending between a first spring end (105) and a second spring end (106), configured in use to resiliently connect the support surface to the slatted base frame in a height direction (h) transverse to the support surface, - a connecting means (107) at the first spring end configured in use to connect the spring to the slatted base frame, - at least one slat holder (108) configured in use to receive the slat, - a height adjuster (109), configured in use to adjust a distance between the slat and the slatted base frame according to the height direction, characterized in that - the height adjuster is disposed between the second spring end and the slat holder, - the height adjuster comprises an adjusting screw (110) and a sleeve (111), - the adjusting screw is threadedly connected to the sleeve, - the movement of the adjusting screw relative to the sleeve is configured in use to change the distance between the slat and the slatted base frame according to the height direction.
2. The device according to claim 1, wherein - the adjusting screw and the sleeve are configured in use together to move the adjusting screw linearly relative to the sleeve when the adjusting screw rotates.
3. The device according to any of the claims 1 to 2, wherein - the adjusting screw extends between a first adjusting screw end (112) and a second adjusting screw end (113), - the adjusting screw comprises a head (114) at the second adjusting screw end, - the adjusting screw comprises a shank (115) between the head and the first adjusting screw end, - the head comprises a first engagement point (116), configured to be engaged by a gripper, and - a screw thread (118) having a pitch is provided around the shank.
4. The device according to claim 3, wherein - the adjusting screw extends according to the height direction, - the first spring end is configured in use to be located further from the support surface in the height direction than the second spring end, - the first adjusting screw end is located closer to the first spring end than the second adjusting screw end, - the second adjusting screw end is located closer to the second spring end than to the first spring end.
5. The device according to any of the claims 1 to 4, wherein - the height adjuster comprises a screw cage (120) and a screw cage guide (121), - the adjusting screw is rotationally connected to the screw cage, - the screw cage guide is connected to the sleeve, - the screw cage guide is translationally connected to the screw cage, - the screw cage is configured in use to move translationally according to the height direction along the screw cage guide when the adjusting screw rotates, - the screw cage comprises a first screw cage surface (122) configured in use to shield the adjusting screw from contact in a direction transverse to the first screw cage surface and configured in use to be translationally connected to the screw cage guide.
6. The device according to claim 5, at least in combination with claim 4, wherein - the head comprises a flange (117) transverse to the shank, - the screw cage comprises a bearing surface (124), - the bearing surface is disposed transverse to the height direction, - the bearing surface lies against the flange, - the bearing surface has a first through-hole (125), - the adjusting screw is provided through the first through-hole, - the flange is located on the other side of the bearing surface than the second adjusting screw end.
7. The device according to any of the claims 2 to 6, at least in combination with claim 6, wherein - the adjusting screw comprises an adjusting screw lock (128), configured in use to lock the adjusting screw, - the adjusting screw lock comprises - a locking spring (129), - a locking element (130), - a catch (302), and - a locking cover (131), - the locking element comprises a locking head (132), - the locking head is arranged translatably according to the height direction relative to the screw cage between the first locking element position and the second locking element position, - the locking head is arranged rotatably relative to the screw cage, - the locking head extends in the height direction between a first locking head end (133) and a second locking head end (134), - the locking head comprises a first gripper (135) at the first locking head end, configured in use to engage the first engagement point, - the locking head is configured in use to rotate the adjusting screw when the locking head rotates, - the locking head comprises a second engagement point (136) at the second locking head end, configured to be engaged by a gripper, - the locking head comprises at least one protrusion (401) at the second locking head end, - the locking cover is connected to the screw cage, - the locking cover comprises a cover surface (137) transverse to the height direction, - the locking cover comprises a locking recess (303), - the catch comprises the locking recess, - the locking recess is configured in use to receive the protrusion, when the locking head is in the second locking element position, - the locking head is configured in use to lock rotationally when the locking recess receives the protrusion, - the locking spring is configured to push the locking head against the locking cover surface and is configured in use to keep the protrusion in the locking recess when the locking head is in the second locking element position, - the cover surface comprises a second through-hole (138), - the second through-hole is aligned with the second locking head end.
8. The device according to claim 9, wherein the locking recess and the locking spring are configured in use together to lock the locking head rotationally when the locking recess receives the protrusion and a rotational force exerted on the locking head is smaller than a threshold value, and the protrusion, the locking recess and the locking spring are configured in use together to move the locking head to the first locking element position when a rotational force exerted on the locking head is greater than the threshold value.
9. The device according to any of the claims 7 to 8, wherein the protrusion and the locking recess are configured in use together to enable the locking head to move to the second locking element position when the locking head is in a second rotational position relative to the screw cage.
10. The device according to any of the claims 7 to 9, wherein - the height adjuster comprises a height indicator, configured in use to display an indication of a distance between the slat and the slatted base frame according to the height direction, - the height indicator (201) comprises - a flexible indicator strip (202) comprising indicator markings (203), - an indicator guide (204) provided with an indicator guide slot (205), - a first indicator window (206), - the screw cage and the locking cover comprise the indicator guide, - the indicator guide slot receives the indicator strip with indicator markings facing the cover surface, - the first indicator window is a transparent part of the cover surface, aligned with the indicator guide slot, - the indicator strip is connected to the sleeve, - the indicator strip is configured in use to slide back and forth in the indicator guide slot when a distance between the slat and the slatted base frame according to the height direction changes.
11. The device according to any of the claims 1 to 10, at least in combination with claim 3, wherein the adjusting screw is configured in use to adjust a distance between the slat and the slatted base frame according to a value from a slatted base height profile, preferably an Ergosleep® Sleep DNA®, when the adjusting screw is in a first rotational position relative to the sleeve and wherein a movement of the adjusting screw relative to the sleeve equal to the pitch changes the distance between the slat and the slatted base frame by the difference in distance between two successive, standard height settings used in the slatted base height profile, preferably an Ergosleep® Sleep DNA®.
12. A slatted base or a bed (901), comprising - a slatted base frame, - at least one slat for supporting a person or an object on a support surface formed by the at least one slat, - at least one device according to any of the claims 1 to 11, wherein - the at least one device is connected to the slatted base frame by means of the connecting means, - the at least one slat is received by the at least one slat holder of the at least one device.
13. A method for manufacturing the slatted base or the bed according to claim 12, the slatted base or bed comprising a first device according to any of the claims 1 to 11, comprising connecting the first device to the slatted base frame.
14. A method for using the slatted base or bed according to claim 12, comprising rotating the adjusting screw of the at least one device to change the distance between the slat and the slatted base frame.
15. The method according to claim 14, comprising - obtaining a slatted base frame height profile, preferably an Ergosleep® Sleep DNA® of a person, - setting the at least one device according to the slatted base frame height profile, preferably according to the Ergosleep® Sleep DNA® of the person.