ASSEMBLY SYSTEM FOR 3D SHAPES WITH BEADS

Information

  • Patent Application
  • 20240408507
  • Publication Number
    20240408507
  • Date Filed
    October 04, 2021
    3 years ago
  • Date Published
    December 12, 2024
    5 months ago
Abstract
The invention relates to an assembly of one or more pegboards and beads, adapted for modular connection to each other and other components.
Description
TECHNICAL FIELD

The invention relates to a modular toy, being a combination of beads, fuse beads and others, and one or more base plates, possibly in combination with building blocks and/or other toys that have the purpose of forming a building structure.


BACKGROUND

One of the disadvantages of the current building blocks and fusible beads is that they remain very narrow in their field since there is no interaction between both toys. Thus, they have a reasonably restrictive effect on creativity.


There are known drawbacks with the so-called fusible beads for which no or only limited solutions have yet been developed. For example, the base plate currently being worked on does not allow the beads to be clamped sufficiently on the pegs so that they can leave their place and come loose very easily, and this with the slightest movement of the base plate. The result is that the design of beads is often at least partially broken before the whole is fused using an ironing movement. An additional disadvantage of the fuse beads is that they are aimed at 2D figures and that it is challenging to form 3D figures. In addition, the result of the ironed part is anything but beautiful, so that the opposite flat is used as the front. The disadvantage of this is that it's then shown in a mirror image. Also, the pixels are always round and hollow, which is a limiting factor on the creativity that can be employed.


The variants of these so-called fuse beads are still very limited to this day and do not have suitable alternatives.


In addition, with building blocks such as LEGO, the caps must always be round in shape so that the result of the design in LEGO is always the same. With beads, it is possible to create more refined structures and more detailed ornaments, while LEGO (and similar products) allow very little creativity and finer detail.


Building blocks such as LEGO blocks make it impossible to form fine pixels and therefore, making it impossible to create beautiful figures with reasonably high resolutions. Furthermore, the rigidity of the blocks means that a minimum size is necessary and offers no possibility to fuse the blocks into each other. An additional disadvantage is that once the blocks have been arranged in a plane, it is almost impossible to remove one or more blocks if they are not located on the side without breaking off part of the design or structure. In addition, the blocks themselves do not feel pleasant.


Another form of building blocks on the market are the click bricks under the brand name CLICS.


With the CLICS, the following disadvantages are that these are only rough building blocks. They allow to make a considerable construction in a short period, but the versions are limited by the structure and non-existent for the smaller constructions allowing for more detailed work.


An additional problem with the present fuse beads is that it is very difficult to use biological plastic products because of their melt applications.


SUMMARY OF THE INVENTION

The present invention aims to solve the above drawbacks for the different kinds of toys. On the one hand, the concept of the fuse beads is being rethought so that the application possibilities are drastically expanded, mainly to 3D applications.


To achieve this, the beads are connected to the pegs of the baseplate by a fixating interaction, via pressure as the beads clamp themselves onto the pegs, which have essentially the same width or slightly wider (or at least in a number of dimensions) as the openings of the beads. This means that the beads no longer have to be melted to form figures on a stable version, but can simply be pressed onto the peg and the pegboard, and afterwards removed again, which was impossible up till now. However, the method allows that, in specific configurations, the beads can still be connected to each other by ironing these beads, if desired.


In a context where 3D figures are made, intermediate pieces are provided so that the beads can be mechanically connected to each other. There are also special beads with extra caps to attach the beads in this way.


An additional part of the invention is the combination of existing building blocks with a device that makes it possible also to provide beads on these building blocks.


These building blocks can be building blocks known in the market as LEGO or CLICS, but are not limited to this type of building blocks.


The device also makes it possible for the building blocks to be mutually combined. For example, a base plate can be provided with a LEGO arrangement combined with a beads arrangement. Additionally, a CLICS block can be provided with a LEGO arrangement to connect the CLICS-Block with LEGO blocks. This also means that a combination of a CLICS-block, a plate with LEGO device and a beads device can be created.


DESCRIPTION OF THE INVENTION

In the first aspect, the pegs that hold the beads are reworked to a version in which the base plates are provided with pegs can clamp the beads. The beads are mounted onto the pegs so that they do not detach from the peg without a predetermined amount of force applied, even if the base plates are turned over, shaken with, or extra layers are built on it. Various shapes are provided for this. In some, these pegs may be built up in different layers so that the user can first form the figure and, after approval, clamp the beads on the base plates.


In one embodiment of the invention, this is accomplished as follows: In the first position on the peg, the bead can be placed without exerting a minimal pressure force, as the opening of the beads is larger than the peg diameter, allowing the bead to simply be placed over the peg in said first position. In a second position, the bead on the peg is pressed a little more firmly, whereby the bead remains on the peg when moved but can still be removed fairly easily. In this second position, the dimensions of the openings of the beads and the cross-section of the pegs may substantially match, or the peg may be slightly smaller than the opening of the bead (but with a smaller margin than in the first position). Alternatively, the peg may be slightly wider than the opening, with the margin being limited to at most 2.5%, but preferably lower than 1.0% or even 0.5%. In the third position, the bead can be pressed down until they reach the base of the base plate and so remain firmly in place. This is accomplished by a mismatch in dimensions, where the pegs are in fact, too wide for the beads, creating a clamping fixation of the bead on the peg and vice versa when pushed into this position.


Also, the longitudinal peg may exist in various shapes such as squares, triangles, or other shapes, which may or may not be polygonal.


A version is possible in which the basic shape of the narrow cap is round and over which the bead can be clamped. However, the preference goes to a form where the contact between the pin and the bead is via a point load. For example, in an embodiment in which the basic shape of the peg is square, and the inner shape of the bead has a round shape, the contact between the peg and the bead takes place using a point load.


In the embodiment where the bead's position is essential, it may be appropriate that the inner shape of the bead is also square, or another shape, in combination with a square shape of the peg. This prevents the peg from rotating around its central axis.


In the two-step version, the pegs have different diameters in the longitudinal direction in order to install the pegs stepwise. During the first step, the bead is placed on the peg to form the design,. Here the bead is placed until, for example, halfway the peg. After the design has been approved during the second step, the beads can be pressed down until the base of the base plate.


In the three-step version, the bead is placed on the peg in the first step to create the drawing, in which case the bead is placed up to, for example, a third in height on the peg. For example, during the second after the design has been approved, the beads can be further pressed over the second part of the peg. In this phase, corrections can still be made, but the beads are already held slightly in a way that they cannot just detach from the peg, which can already be accomplished by providing a substantially exact fit between bead and peg. A certain pulling force or traction must already be applied to take the beads off the peg, but this force is still limited so that it is also quite easy for a child to perform this action. In a third step, the bead can be pressed down until it is pressed against the base plate. The beads will no longer detach if the base plates are turned over or manipulated in any other way. A certain amount of pulling force or traction must also be applied to release the beads from the base plates.


In addition, versions with more than three stages are also possible, in which the bead can be applied to the peg step by step and by using a little more force each time.


In a second aspect, the base plates themselves are adapted to a version in which the base plates, which themselves are provided with pegs, can be used in different ways.


In the version where the base plates are flexible like a kind of sheet, the beads can be attached to a permanent base so that they do not need any longer to be attached by means of melting them with an iron. This plate or sheet can then be made quite large, and the user can cut the plate or sheet accordingly to the desired shape. This also makes it possible to provide large sheets of the flexible base plate that can be rolled up during transport.


In the embodiment where the base plates are not flexible, they can also be used as permanent base plates. The backside of this base plate can be provided with a specific shape cut-out design making it compatible with building blocks such as the well-known LEGO and/or CLICS. In principle, this would also be possible with the flexible base plates.


A version is also possible in which the base plates, both flexible and non-flexible, are provided with pegs on both sides. As a result, beads can be provided on both sides of the base plates so that, for example, spherical creations and designs can be made.


The main aim of the invention is to create designs with the beads that form a solid creation or structure without having to melt the beads into each other by ironing them together at the top layer, as is now the case.


However, an additional object of the invention is still to provide a way in which it is possible to iron the beads together but by using the base plates as described in the present invention. With the base plates used in the current application, the fuse beads are placed loosely on the plate to ensure that the beads still easily come off the base plates after ironing. In some cases, this could still be more difficult, for instance, when pressed down to the ‘third position’ or deepest step. In this case, use can be made of a so-called intermediate release plate. This intermediate release plate is provided with an exact amount of slots as there are pegs on the base plate. The intermediate release plate is then placed on the base place in such a way that the pegs of the base plate fit exactly through the slots of the intermediate base plate. The beads can then be applied. Because the intermediate release plate is in between the beads and the base plate, the beads can be applied to the pegs but not pressed all the way to the end against the base plates. This way, the beads get less clamped but still tight enough not to come loose from the base plate too easily. After the beads have been melted together, they can be pulled off and removed from the base plate by pulling on the intermediate release plate and not on the figure consisting of the fused beads. This is to avoid exerting too much pulling force on the figure so that it can be pulled apart, as in some cases, the newly created link between separate beads (by melting them together) is not strong enough to withstand the pulling actions at all points. Once a tear occurs, this easily expands, thus destroying the figure and design.


The base plates can be both flexible or firm. In the embodiment in which it is flexible, the advantage is that it is foldable and thus can also be rolled up. This makes it possible to provide larger surfaces or sheets such as 500 mm×500 mm or even bigger rolls of 1000 mm×2000 mm. Furthermore, the user can cut out the designs or required surfaces at his own discretion.


According to one version, the base plates can additionally be provided with openings in the plate, between the securing pegs. This gives the user the option to push the beads back out from the back if desired.


In a third aspect, the base plates can be provided with different kinds of beads in all their shapes and variants.


For example, basic beads such as these can already be used today as fuse beads. The standard beads have dimensions in the order of 5 mm height, 5 mm outer diameter, and 2.5 mm inner diameter.


These standard beads can be used in this invention but are extended in this invention with different variants. For example, the shape of the bead at the top can be flat and filled with a square shape, giving the figure being formed a more pixelated appearance.


A variant of these are beads with a capped top, a round top, a top in which figures are integrated, or even numbers and letters. The beads themselves can have different shapes and sizes depending on the shape and/or the desired result.


For example, the beads can have a shape on the outside in the longitudinal direction, whereby they fit into each other so that these beads can no longer move relative to each other. But it can also be polygonal so that the beads connect to each other so that there is no more space between the beads and they are visually sealed. The shape of the beads in the longitudinal direction can also be constructed so that a part of the bead is adapted in the sense that a widening is provided where necessary to obtain the necessary result. For example, the base of the bead can have a round shape in the base and a square shape at the top, where, for example, a figure is provided. Such as letters, numbers, or symbols.


The beads can also be provided with extra accessories that may or may not be built into the bead. For example, an item can be provided that looks like a jewel that has already been incorporated into the bead. This creates a drawing on the surface that looks like a jewel that you can put together piece by piece.


In addition, the beads can be provided with an extra peg at the top, making the beads stackable. This makes 3D figures possible without the need to perform an operation that involves connecting the beads in a way with a further separate component.


The hollow inside part of the beads can also have different designs. With the standard beads that are currently used, the hollow part is round in shape. However, in embodiments where the position of the bead in relation to the base plates and/or other beads is important, the hollow part of the bead can also be a polygon such as a square or other shape that allows a certain positioning in combination with the adapted shape of the pegs on the base plates themselves.


The beads can also be of different sizes to give an extra dimension to the 3D configurations.


Also, combinations can be made of different beads, whereby different figures can be formed. For example, an L shape can be formed with three or more beads, with the top layer forming an L and the bottom consisting of 3 beads that are arranged next to each other.


In this way, countless combinations can be formed, and pieces are created that can be used as a puzzle.


Pieces, where at least two beads are linked together, can also be used to link plates together.


The beads can also be made in different lengths. For example, the current and most common beads that are currently used have a length of 5 mm. By providing beads with a half length, in this case, 2.5 mm, smoother shapes can be formed. By extension, other lengths can be provided, such as ⅓ lengths, ½ lengths, 1.5×, 2× the lengths, etc., without limitation in possible lengths. As a result, many and more detailed drawings can be formed in 3D.


To allow the user to apply beads faster and more efficiently to the peg plate, the beads can also be connected to each other. For example, if the diameter of the beads is 4.9 mm and the axis distance is 5 mm, this means that on the base plate the beads are 0.2 mm apart. These can then be connected with a connecting piece. This piece would then be, e.g., 0.2 mm long and, e.g., 0.3 mm in diameter and provide a simple linkage (optionally flexible) between two or more beads. This allows the user to use the beads while they are still connected or separate them quite easily by cutting or simply pulling them apart if needed. This provides for a number of larger ‘bead blocks’ that can be reduced in size depending on the intended use.


Beads can also be provided in which stones are integrated to resemble jewelry and can be inserted directly into the beads. As a result, the top of the beads has the appearance of a jewel such as a diamond so that a very beautiful drawing can be formed.


The beads can also be provided with a top that has the shape of a peg, making it possible to click and stack the beads together. This offers the possibility to work with a set of beads in 3D.


The closed beads can also be provided with openings through which a string or related item fits. This allows necklaces to be formed with different beads-especially the embodiment where the beads are equipped with extra pegs so they can click together.


The beads themselves can be made in different sizes, depending on the applications. For example, the beads can be made very small in a mini version, but also larger, for example, for the smaller children. These can then be executed in maxi form.


In a fourth aspect, the beads can be linked together by using an intermediate piece. This intermediate piece can then be fitted with pegs on both sides that are compatible with the beads you wish to connect. This way, the peg of this intermediate piece can be matched to the beads that they have to connect to.


Preferably, the thickness of the base plates of the intermediate pieces is adjusted to the beads. The implementation of the beads that are provided with an extra peg to attach another bead to it is preferably longer so that a mix can be used of beads provided with an extra peg and intermediate pieces.


For example, if the difference in length between the bead with and without an extra peg is 1 mm, the thickness of the base plates of the intermediate piece is preferably also 1 mm.


The intermediate piece itself can take many shapes and sizes. For example, there can be an intermediate piece for 1, 2, 3, 4, and many more beads to connect.


These adjacent beads can also link or diagonally located beads.


The shape of the intermediate pieces can be elaborated so that they can connect, for example, four beads in a square shape. But also in a longitudinal direction, in shape, or any other type of derived form.


This version also makes it possible to connect different base plates to each other via the combined beads.


Holes can also be provided in the pegs in the intermediate pieces, making it possible to link beads together in the basic version and provide a chain. In this configuration, the intermediate pieces can also be provided with, for example, stones, creating the illusion of a real jewelry necklace.


In a fifth aspect, an embodiment of a base plate is made in which a combination is made of pegs for the beads on one side and specific shape cut-outs to make them compatible with other types of building blocks.


An example of such building blocks are the LEGO building blocks. These have round studs on the front. The backside of these blocks are equipped with internal projections (usually tube-shaped) or a LEGO arrangement in general for the attachment of multiple pieces.


The implementation of this invention is already described in patent no. U.S. Pat. No. 3,005,282A, amongst others.


In the embodiment where the LEGO building blocks are mentioned and referred to, one side of the base plates can be provided with pegs onto which the beads fit, and the base plates can be provided on the other side with a coupling arrangement suitable for connection to LEGO building blocks, preferably corresponding to the features of said blocks. The base plates without the pegs can, for example, have a height of, for example, +/−3.2 mm for the flat versions as LEGO now carries them out.


In another embodiment, the base plates without the pegs can, for example, have a height of, for example, +/−9.6 mm for the block versions as LEGO now carries them out. For example, lateral pegs can also be provided with this version. This allows the beads to be placed in the vertical and horizontal position on the same LEGO block.


In another embodiment, the base plates can be supplemented with additional blocks to be placed upright on another LEGO plate.


Additional building blocks can also be provided with a stud on at least three sides according to the LEGO principle to connect the different base plates at an angle of, for example, 90 degrees so that a cube can be formed.


These additional building clocks can also comprise designs that use the hinge principle, whereby the different base plates can assume any arbitrary angle with respect to each other. The description in which LEGO is mentioned also means all other possible building blocks that are related to it and are therefore based on the same principle.


In a sixth aspect, the blocks can be provided with hinge elements that snap together to interconnect them at almost any angle.


An example of such building blocks that use a building block combined with hinge points is CLICS. Its operation is described in Patent No. EP98900253A.


In the embodiment where the securing pegs for the beads are integrated into the CLICS blocks, the securing pegs are provided at the top of the block. In this case, the possibility that the top plate assumes different dimensions is desirable. For example, the top plate can have the same size as the original building blocks but can also be enlarged to the edge where the hinge device ends. Any intermediate size and configuration may or may not be asymmetrical. It is always preferable that the edge ends at the outer edge of the mounted bead.


In the embodiment where the securing pegs are not integrated into the CLICS blocks, the CLICS blocks can be provided with a device that makes it possible to click on base plates that are provided with securing pegs at the top of the base plates and a clamping device on the underside of these base plates.


One possibility is that the CLICS blocks are provided with the so-called LEGO studs on the top. The base plates can then be fitted on this, which are provided with the securing pegs at the top for the beads and the LEGO tubes or a LEGO arrangement in general at the bottom. These base plates can be fitted on the CLICS blocks. Different sizes of choice and applications can then be clicked on the CLICS blocks.


This version also allows different standard LEGO blocks to be mounted on the CLICS blocks and vice versa.


Additional aspects are the following.


Since the present invention offers the possibility to click the beads together, they no longer have to be melted by ironing them together, as is currently the case. This allows the use of organic products that cannot be used otherwise.


Combining the securing pegs for the beads on one side and a clamping device for building blocks on the other side of the base plates makes it possible to mix various other applications such as building blocks based on the LEGO and CLICS principles, but also other types of building blocks, to be used interchangeably.


By producing the base plates at least partially transparent, it is possible to work with projection. For example, the base plates can be lifted at the back, and a drawing can be put under the base plate or in front of the light source that is then projected onto the base plates. This allows the user to copy these drawings from the front.


Using translucent base plates, light effects can be created in combination with beads that are partly transparent and/or possibly colored.


In an arrangement where a cube is formed by, for example, using the CLICS and/or LEGO techniques, a light can be placed centrally and so light up the cube.


The internal box can be supplied with power via a power cable from which the cube can also be hung and a pull cable that hangs from the cube to control the light internally.


This can also be done by an internal electronic circuit with replaceable batteries and remote control to operate the circuit without any wires or cables.


In an arrangement where a cube is preformed, the cube can be provided with a light source inside and pegs on the outside. The user can use the cube as a 3D base plate to create the designs.


By working in 3D with different layers, shapes such as a sphere can be created.


In the embodiment where the top of the beads is provided with drawings, which is certainly possible with the versions with a flat head, a puzzle version is possible. Especially the version in which different beads are combined into one piece makes this possible because they can easily be provided with figures that may or may not be printed on the beads.


A possible variant of ironing the beads together is that they are joined together by glue or using a hairdryer instead of an iron to melt them together. Ultrasonic techniques can even be used to melt the beads together.


An additional possibility is that the beads are clamped around the pegs. By giving the beads a shrinkage characteristic when they are heated, the beads can fix themselves around the pegs when they are heated.


To easily remove the beads from the base plates, especially if they are firmly pressed, one can use specially designed forceps or pliers devices.


In a further aspect, the invention relates to a pegboard and a plurality of beads, wherein the pegboard comprises a base plate, provided with a plurality of pegs on at least one side of the base plate, wherein the pegs are provided in a regular pattern, preferably in a matrix pattern of rows and columns. The pegs have a stepped structure of at least two, preferably three steps, wherein the diameter of the steps decreases from the base plate to the distal end of the pegs. The beads have an opening at least partially mountable over the pegs, wherein the opening has a depth at least equal to the height of the pegs, and wherein the opening of the pegs is dimensioned to fully encompass the step at the distal end of the pegs, and wherein the opening of the pegs is dimensioned to not be able to fully encompass the step closest to the base plate.


Preferably, the minimal diameter of the opening is at least 0.5%, preferably at least 1.0%, more preferably at least 2.5% or 5.0%, larger than the maximal diameter of the step at the distal end of the peg, and the minimal diameter of the opening is at least 1.0%, preferably at least 2.5%, more preferably at least 5.0% or 7.5 or even 10.0%, smaller than the maximal diameter of the step closest to the base plate.


Experience showed that with many currently available materials (low-density polyethylene for instance), the beads are able to deform when shifted over the ‘too wide’ step closest to the base plate. However, the elasticity with which they deform, can also lower the tension created due to the deformation. In order to ensure that the beads stay on the pegs, enough tension must be ensured, requiring an absolutely minimal mismatch between the dimensions of the bead step and peg of 1.0%. However, more advantageous results were achieved by the dimensions of the opening of the bead being smaller than the step of the peg closest to the base plate, with at least 2.5%, or even better, at least 5.0%, or even 10% and 15%. The applicant has found that this still remains in the range of a largely elastic deformation of the beads, but would limit this to a difference of at most 50%, preferably 40%, or even 30% and 20% to avoid too much tension and possible breakage.


The above notions of course apply to other implementations of the beads (stacking beads) and pegs in the invention (for instance, on the intermediate pieces).


In a further embodiment, the invention relates to pegboard and beads, wherein the pegboard comprises a base plate, provided with a plurality of pegs on at least one side of the base plate, wherein the pegs are provided in a regular pattern, preferably in a matrix pattern of rows and columns, and wherein the pegboard is provided with one or more connectors or connector zones at the backside. The beads have an opening at least partially mountable over the pegs. The invention further comprises one or both of:


One or more double connection means, each double connection means comprising at least two attachment elements, wherein the connector or connector zones and the attachment elements are configured for removable attachment to each other, thereby allowing the pegboard to be connected to another pegboard according to any one of the preceding claims via the double connection means, said one or more double connection means preferably provided with a hinge or rotational element between the attachment elements;


And/or two or more single connection means, the single connection means comprising at one attachment element, wherein the connector or connector zones and the attachment elements are configured for removable attachment to each other, and the single connection means comprising an inter-means connector configured to removably attach two single connection means via the inter-means connector, thereby allowing the pegboard to be connected to another pegboard according to any one of the preceding claims via two single connection means, preferably wherein said single connection means are hingedly or rotatably attached via the inter-means connectors.


The connection means (single or double) serve to either on their own connect multiple base plates, via an appropriate and undoable interaction between a connector or connector zone on the base plate (in some cases on the edges instead of on the backside thereof) and attachment elements on the connection means. This connector/connector zone may be configured similar to the backside of a LEGO block (internal cavity with upstanding projections) with the attachment means similar to the topside of a LEGO block (studs provided on a flat base), although of course, other options exist, such as a snap-fit lock, a clamp, etc.


Preferably, the attachment elements of said double connection means are oriented in different directions with respect to each other, preferably at an angle of about 90°.


Preferably, said pegboard comprises at least two beveled edges at the backside thereof, preferably beveled with an angle of about 45° with respect to the base plate, wherein on one of said beveled edges a male edge arrangement is provided comprising one or more protrusions along said beveled edge, and wherein on another of said beveled edges a female edge arrangement is provided comprising one or more recesses along said other beveled edge, wherein the recesses and the protrusions are positioned to align and dimensioned to connect in a clamping engagement.





DESCRIPTION OF FIGURES


FIG. 1: a perspective view of a base plate with pegs on which the beads can be clamped



FIG. 2: a perspective view base plates fitted with multi-stage pegs



FIG. 3: a perspective view of a base plate with intermediate release plate



FIG. 4: a perspective view of a base plate fitted with an intermediate release plate and a bead



FIG. 5: a perspective view of a base plate with pegs on both sides FIG. 6: a perspective view of different types of beads



FIG. 7: A perspective view of different types of pegs in combination with combined beads



FIG. 8: a perspective view of intermediate piece suitable for connecting multiple beads



FIG. 9: a perspective view of an intermediate piece suitable for connecting multiple beads in combination with base plates



FIG. 10: a perspective view of intermediate piece suitable for connecting multiple beads in combination with base plates FIG. 11: a perspective view of a plate with pegs on one side and LEGO tubes on the other side in a corner arrangement with extra LEGO blocks



FIG. 12: a perspective view of corner piece in LEGO version



FIG. 13: A perspective view of different CLICS versions with integrated pegs



FIG. 14: A perspective view of a corner arrangement of CLICS versions with integrated pegs



FIG. 15: a perspective view of a base plate with pegs on one side and LEGO tubes on the other side.



FIG. 16: A perspective view of a CLIS building block as a base with LEGO studs at the top and LEGO tubes at the bottom.



FIG. 17: a perspective view of a combination of a CLIS building block as a base with LEGO studs on the top and a base plate with pegs and LEGO tubes.



FIG. 18: A perspective view of an attachment plate with pegs on the top and a snap-on system on the bottom



FIG. 19: a perspective view of a base plate provided with pegs, spacers, and openings in the base plates.



FIG. 20: A perspective view of a corner arrangement consisting of 2 CLICS blocks combined with two base plates with pegs at the top, LEGO tubes at the bottom, and a corner piece.



FIG. 21: a perspective view of a corner arrangement consisting of several corner pieces provided with pegs.





PARTS OVERVIEW





    • 1. Base plate: this is the plate with pegs on which the beads can be placed

    • 2. Pin: or also the securing pegs, this is a peg in a round or another shape on which the bead can be placed by exerting a certain pressure. This peg may be multi-staged.

    • 3. Standard bead: a bead as used now as fusible beads. These are approximately 5 mm high, 5 mm in outer diameter, and 2.5 mm inner diameter. It is also constructed from slightly flexible plastic, generally polyethylene.

    • 4. 3-stage peg: this is a peg on the base plates that are constructed longitudinally from 3 different diameters

    • 5. Bottom base plate: in the application where an intermediary plate is used, the Bottom base plate is the bottom plate on which the intermediary plate is placed, and afterward, the beads are applied.

    • 6. Intermediate release plate: This is placed on the bottom plate and has the function to be able to pull the beads back from the pegs

    • 7. Base plates double: this is a version in which the base plates are provided with pegs on both sides

    • 8. Recess: This recess in the plate makes it easier to cut with a flexible plate or break with a hard plate. This plate can be a base plate with pegs on both sides or not, but also another type of plate such as a base plate from the intermediate piece or others.

    • 9. Block bead: this is a bead where the shape of the outside of the bead has an angular shape like a square

    • 10. Bead with mixed flat cap: the bead has two types of caps that differ in shape and/or dimensions

    • 11. Bead with square cap: the bead has a single flat surface as a cap

    • 12. Bead with external letter: the bead is provided with a letter that is applied to the cap

    • 13. Bead with internal letter: the bead is provided with a letter that is incorporated in the cap

    • 14. Bead with mixed round cap: the bead has two types of caps that differ in shape and/or dimensions. The top cap is spherical

    • 15. Bead with round cap

    • 16. Long bead with round cap

    • 17. Bead with thick square cap

    • 18. High bead with thick square cap

    • 19. Bead with a round figure on square cap

    • 20. Straight figure bead on square cap

    • 21. Bead with a smaller round figure on square cap

    • 22. Bead with a smaller straight figure on square cap

    • 23. Cap with letter: this cap fits in a bead and can be provided with numbers, letters, or other indications

    • 24. Bead with round cap; this bead has the function of connecting with another bead through the cap, which in this case is round in shape

    • 25. Bead with square cap: this bead has the function of connecting with another bead through the cap, which in this case is square

    • 26. Octagonal bead with square cap: This is a bead where the shape of the outside of the bead is angular, in this case, an octagon

    • 27. Octagonal bead with jewel-shaped cap: this bead mainly serves to create a jewel-like look

    • 28. Combined beads with flat cap: these beads are already connected to each other during production and have a common cap, in this case in the shape of an L

    • 29. Combined beads with decorative caps: these beads are already connected to each other during production and are provided with several common caps that differ in shape and/or dimensions. In this version, there are two caps, one in the shape of a square and one in the shape of a circle

    • 30. Bead with a recesses: this is a bead that is used in combination with the bead with hooks

    • 31. Bead with protrusions parts: this is a bead that is used in combination with the bead with recesses

    • 32. Cross peg

    • 33. Cross peg with beveled cap

    • 34. Cross peg with chamfered cap and recess

    • 35. Double intermediate piece or double stacking bead for diagonal connection

    • 36. Triple intermediate piece or stacking bead

    • 37. Quadruple intermediate piece or stacking bead

    • 38. Double intermediate piece or stacking bead for adjacent connection

    • 39. Single intermediate piece or stacking bead with round caps

    • 40. Single intermediate piece or stacking bead with square caps

    • 41. Single square intermediate piece or stacking bead with square caps

    • 42. Multiple intermediate pieces or stacking beads: in this version, the intermediate piece has 12 pegs on one side and 12 pegs on the other side. The pegs themselves are square in shape

    • 43. base plates with LEGO tubes: this has fixing pegs on one side and LEGO tubes on the other side.

    • 44. Double/triple connecting blocks: these are LEGO blocks with a single LEGO stud on at least three sides

    • 45. Multiple connecting blocks: these are LEGO blocks equipped with LEGO studs on at least three sides with more than one LEGO stud at least at one side.

    • 46. LEGO studs: these are pegs on the upper side of a LEGO block as used by the current LEGO blocks

    • 47. CLICS block with integrated base plates, large

    • 48. CLICS block with integrated base plates, medium, transverse version

    • 49. CLICS block with integrated base plates, medium, long version

    • 50. CLICS block with integrated base plates, small

    • 51. CLICS block with LEGO tubes

    • 52. CLICS block with LEGO studs

    • 53. Base plates with LEGO tubes for CLICS block

    • 54. Base plates with Clampegg device: the function of this plate is to be able to click on the existing CLICS blocks

    • 55. Support: this is a device to keep the base plates in place when clicking on the CLICS block

    • 56. Clamping device: this device clicks onto the side of the CLICS block

    • 57. Base plates with standard pegs, intermediate pieces, and openings

    • 58. Intermediate clamps: this is a device that fills the space between the round beads and can clamp the beads from the outside

    • 59. Openings: these are openings in the base plates, these can, in principle, have any shape, but a round shape is the most logical. This allows a means such as a stick to be inserted to push the beads off the peg if desired

    • 60. Corner piece with pegs and internal recesses.

    • 61. Corner piece with pegs and external connecting piece

    • 62. Internal recess: this is compatible with the external connecting piece of another corner piece

    • 63. External connecting piece: this is compatible with the internal connecting piece of another corner piece

    • 64. First stage

    • 65. Second stage

    • 66. Third stage

    • 67. Flap

    • 68. Conical cap

    • 69. Pin opening

    • 70. Round cap

    • 71. Square cap

    • 72. Narrow Round Cap

    • 73. Narrow Square Cap

    • 74. support plate

    • 75. Square recces

    • 76. Plate

    • 77. Composite cap

    • 78. Double intermediate piece with recess

    • 79. Quadruple intermediate piece with recess

    • 80. LEGO tubes/projections: These are tubes on the inside of a LEGO block as used by the current LEGO blocks





DETAILED DESCRIPTION OF THE INVENTION

Description of the generality of the invention, designation that these are exemplary and not limited to these examples, and explanation of the terminologies.


Examples

As indicated in FIG. 1, the basis of the invention consists of a base plate 1 provided with pegs 2 on which beads can be clamped. In this example, the standard beads 3 are used and are attached to the pegs 2. These basic pegs 2 have a square shape so that a force is exerted on the inside of the beads 3 by the four sides of the peg. The force that must be applied is just enough to ensure that the bead does not come loose from the peg. Not even if the base plate 1 is held upside down in combination with a shaking movement. On the other hand, the pressure is also not too great so that not too much force has to be applied to remain comfortable for children.


The material of the base plate 1 can be ABS but also other different types of thermoplastic elastomers and polyurethanes, polyethylene (PE), and other types of plastics. This means that the base plate 1 can be executed very smoothly, but also hard and all variants in hardness between very soft and very hard. In the most common embodiments, the pegs 2 on the base plate 1 and plate 76 themselves will be of the same type of material, but there may also be embodiments in which the composition and/or hardness of the material of the pegs 2 and plate 76 are different.


In this embodiment, the peg is provided with a conical cap 68 so that the bead 3 can be placed over the peg 2 more easily.


When using the beads 3 in combination with the base plate 1, it may be advisable to work in different phases when applying the beads 3. In FIG. 2 an example is given of a peg 4 that allows operating in 3 steps. In a first step, the bead can be placed loosely over peg 4. In the second step, the bead can be pressed onto peg 4 with very limited pressure. With this step, the bead 3 does not simply fall off when moving the base plate 1. The user can still easily remove the bead 3 if he still wishes to adjust the drawing. At the third step, the bead 3 is pressed more firmly so that they are firmly clamped over the pegs 4 and thus remain firmly on the base plate 1.


When the beads 3 are applied to the base plate 5 under pressure and the user nevertheless wishes to iron these beads 3 together, it can be very difficult to remove the beads 3 from the base plate 5 without damaging the design or creation. In FIG. 3 and FIG. 4, a solution is offered for this by using an intermediate release plate 6 and a bottom base plate 5. Pin slots 69 are provided in the intermediary plate 6. The intermediary plate 6 is placed on the bottom base plate 5 where the pegs 4 are placed through the peg slots 69. In this version, the bottom base plate 5 is provided with three-stage pegs 4, whereby the thickness of the intermediary plate 6 is equal to the height of the third stage on the three-stage pegs 4. When placing the beads 3 on the pegs 4, the beads 3 can only be up to the 2nd stage. On these stairs, they are firm enough to be ironed without coming loose. Flaps 67 are provided on the intermediary plate 6 and the bottom base plate 5. After ironing, the intermediary plate 6 of the bottom base plate 5 can be separated from each other via these flaps 67, whereby the ironed beads 3 come off the pegs 4.


To create a maximum 3D effect, the base plate 7 can be provided with pegs 4 on two sides. In FIG. 5, a base plate 7 is provided with three-stage pegs 4 on both sides. Recesses 8 are also provided to make it easier to divide the base plate 7.


In addition to the standard beads3, the base plate can also be provided with all kinds and types of variants so that you can work in 3D, form additional figures, visually form other pixels, and so on. In FIG. 6 and FIG. 7, different types of beads and pegs are provided to accomplish this. A possible implementation is to give the bead 9 a square shape so that no space is created between the different beads 9 if these are applied to the base plate 1. The top can also be shaped to give the appearance of the pixel an extra dimension. A variant of this is that the bead 10 has a partially round outer shape provided with a multi-layer 70,71 cap comprising different figures. Hereby with the possibility that one of the layers has a square shape 71, whereby the space between the beads 10 is filled and the top cap 70 has a shape such as a round which gives the pixel a round shape again. An additional variant is that the bead 11 has a partially round outer shape with a single-layer cap, which may have a square design. The previous variant can be supplemented with a figure in the form of a letter, number or other variant. For example, the bead 12 can be equipped with a letter applied on top of the cap or incorporated into the cap itself 13. An additional variant is that the flat cap is supplemented with a spherical shape 14, creating a round shape in 3D.


Another possible variant are beads with multi-shaped exteriors such as an octagon 26 supplemented with full caps such as a square or a cap with a jewel-like appearance 27.


Another variant is a 15,16 bead whose end is rounded. These can be made in different lengths to create beautiful visual effects, especially in 3D.


A variant of the previous is that the end of the bead is provided with square-shaped blocks 17,18, which can vary in height in order to be able to work in 3D here too.


As a variant of the previous, the blocks on the beads 19,20,21,22 can also be provided with additional figures, which may or may not be arbitrary in shape, in different sizes, heights, and curvatures. Thus, by combining these versions of beads, additional figures can be created in 3D.


Another possibility is that caps 23 are provided for plugging on the existing beads. These caps can contain all kinds of shapes, such as a letter. For example, the peg 72 on the cap 23 can be round, but other shapes are also possible, such as a square shape 73.


The beads 24, 25 themselves can be provided with a round cap 72 or square cap 73 to connect this bead 24, 25 to another bead. The length of these beads is preferably the same as the standard bead 3 plus the thickness of the support plate 74 of the intermediate piece. This allows 3D drawings to be made with the combination of standard beads 3, beads with narrow caps 24, 25, and intermediate piece 35


Another variant is that the beads 28, 29 are used as puzzle pieces. For example, in FIG. 7, several beads 3 are connected and provided with a common cap 77. A possible variant is that three beads 28 are connected in an L-shape, and these are jointly provided with a common cap 77, which is also designed in an L-shape. Another variant is an arrangement in a square in which four beads 29 are provided together with a cap 77, which is made up of two layers, the lower layer forming a square and the upper layer a round shape. Of course, countless variants can be formed on these configurations due to the combinations with the number of beads, the arrangement of the beads, the shape of the caps, the drawings on the caps, etc.


The variants shown in the drawings are provided with a common cap 77. It is also possible that beads 3 are simply connected into one whole without caps 77. The outside of the beads 3 can have a different shape than round, and they can even be different from one another.


An additional variant is that on the one hand, a bead 31 is provided with protrusions parts, and on the other hand, another bead 30 is provided with recesses, whereby these two pieces fit into each other when the beads 30, 31 are placed on the base plate 1. This allows the beads to 30,31 can be positioned relative to each other and even hook into each other.


The securing pegs 2 can have different shapes. For example, it can be made in a cross shape 32, in a cross shape with chamfered head 33 or a cross shape with chamfered head and concavity 34. However, the shapes are not limited to these shapes. For example, these can have variants in round shapes, polygons such as a square, and even combinations. This may or may not be supplemented with chamfered heads and/or multi-stage in diameter.


The securing pegs 3 in square shape can thus, for instance, be combined with a square shape 75 in the bead, so that this bead is correctly positioned.


As shown in FIG. 8, the present invention also connects the beads 3 at the end surface using intermediate pieces or stacking beads 35, 36, 37, 38, 39, 40, 41, 42. This intermediate piece 39, 40 can be single where it will, for example, connect two standard beads, and the base plate of this intermediate piece has the same diameter and shape as the beads it connects. Hereby the intermediate piece can have a round 70 or square cap 71


The piece pieces 35, 36, 37, 38, 39 can also connect multiple sets of beads. For example, there can be an intermediate piece 35 that can connect two sets of beads at an angle, intermediate piece 36 that can connect three sets of beads, intermediate piece 37 that can connect four sets of beads, intermediate piece 38 that can connect two sets of beads next to each other, etc.


The caps that can connect the different beads can have different shapes. In the example, caps with square caps 71 are shown.


A preferred embodiment of the intermediate piece 78, 79 is provided with recesses 8, making it possible to divide the intermediate piece into smaller parts. In the case of a hard plastic version, this can be done by breaking the different pieces, causing it to split on the part provided with the recess8. With a softer plastic version, this can be done by cutting or cutting the different pieces on the part that has the recess 8. is provided with the recess 8. The double intermediate piece 78 has one recess 8, so that the double piece 78 can be divided into two separate intermediate pieces. The quadruple intermediate piece 79 is provided with three recesses 8, so that the quadruple piece 79 can be divided into four separate intermediate pieces, but also e.g. into two double pieces.


Of course, such a system is not limited to double or quadruple pieces, but can be an intermediate piece of an x number of single intermediate pieces that are connected and provided with a recess 8, resulting in a countless number of variants of the connected intermediate pieces.



FIG. 9 shows a multiple intermediate piece 42 provided with 24 square caps to form a kind of bridge with beads 3 that partially come outside the base plate 1 as shown in FIG. 10. This arrangement can be used to indirectly connect different base plate 1 connect, form different constructions in 3D, and connect the beads 3 together into a stronger whole when applying different layers of beads 3.


To make pronounced 3D configurations, it is useful to be able to place the base plate 43 at a certain angle with respect to each other. For example, if it is desired to form a cube, the base plate 43 must be able to be placed at an angle of 90°, and this in different arrangements. For example, in FIG. 11 an arrangement is shown of a corner arrangement where the base plate 43 is provided with pegs 2 on one side and a LEGO arrangement on the other side. These are connected at the corner by double or even triple connecting blocks 44, which are fitted with LEGO studs 46 on at least 3 sides. This allows the base plate 43 to be connected at the corners, forming a cube.


A variant of the double or triple connecting blocks 44 are multiple connecting blocks 45, so that the different base plates can be more firmly connected to each other. In the example, a block is provided with LEGO studs 46 only on the long sides, but these can also be provided on short sides.


In order to quickly and easily provide 3D shapes as a basis for the beads, there are other systems of building blocks, such as the so-called CLICS building blocks. FIG. 13 shows some versions of building blocks 47,48,49,50 that use the CLICS hinge technique in which the base plate is integrated into the building block itself. These base plates have different dimensions to be placed next to each other in a flat surface. These base plates are provided with the pegs 2 on which the beads 3 can be fitted. In a corner arrangement as shown in FIG. 14 with these CLICS blocks with integrated base plate, the CLICS blocks are used with large base plates 47.



FIG. 15 shows a base plate 43 provided with pegs 4 on one side and LEGO tubes on the other side, which is the same size as the top plate of a CLICS building block.



FIG. 16 shows another embodiment, a CLICS building block 51 can be provided as a base with LEGO studs 46 at the top and LEGO tubes at the bottom. This version of CLICS building blocks is therefore compatible with the common LEGO blocks as they are known. Such a CLICS building block can be used as a single connection means, and can be connected with another such block, thereby allowing a hinged connection between two base plates, to which the blocks can be attached via an appropriate attachment element.


The base plate 53 can be clicked on the CLICS building blocks 52 that are provided with the LEGO studs 46, which are provided with LEGO tubes as shown in FIG. 17.


To be able to provide the standard CLICS blocks with a base plate with pegs, these base plate 54 can be provided with a device to click these base plate 54 on the known and standard CLICS block.


The base plate 54 are provided with a clamping device 56 to fix it to the CLICS block and a support system 55 to align the base plate 54, as shown in FIG. 18


To remove the beads from the base plate 57, the base plate can be provided with openings 59, making it possible to push the bead 3 upwards with the help of a stick along the bottom and thus work it free from the peg 2.


The base plate 57 can also be fitted with extra Intermediate clamps 58. These can be useful if the standard beads 3 differ too much in inner diameter, and it is also advisable to clamp the beads from the outside. This version is shown in FIG. 19.



FIG. 20 shows a corner arrangement consisting of 2 CLICS blocks 52 combined with two base plate 53 with pegs 4 at the top, LEGO tubes at the bottom, and a corner piece 60. This corner piece 60 is useful if the user wants to shape the beads on the cube in such a way 3D to obtain a round or spherical shape.


The corner pieces can also be combined with each other as shown in FIG. 21. These can be clicked together through the combination of external connecting piece 63 and internal recess 62. The angles formed by the corner pieces 60, 61 can therefore vary between 5 and 175 degrees, allowing many different composite shapes.


In the arrangement with which a cube is formed, a box can be provided centrally in which, for example, lighting is accommodated. Thus, for example, by providing at least one opening centrally in the box and blocks and as an extension thereof in the base plate, the power cable and/or the suspension system can hereby be provided, for example.


The materials of all the pieces described above can all vary between very soft and hard plastic or even rubber derivatives.


In the embodiments in which the base plate is at least partially translucent, use can be made of projection techniques. For example, a drawing is applied to the back of the base plate, and light is directed onto it, preferably via a controlled light source.


There are the following options for pressing the beads onto the pegs without this having a restrictive effect on the operation and variants thereof.


With the three steps pegs, the beads are applied in 3 different steps and therefore applied with three different pressures, with the following options:


Option 1:





    • Step 1: between 0 and 50 gr pressure

    • Step 2: 150 gr pressure with 20% tolerance

    • Step 3: 350 gr pressure with 20% tolerance





Option 2:





    • Step 1: between 50 and 100 gr pressure

    • Step 2: 250 gr pressure with 20% tolerance

    • Step 3: 500 gr pressure with 20% tolerance





With the 2 step pegs, the beads are applied in 2 different steps and therefore applied with 2 different pressures, with the following options:


Option 1:





    • Step 1: between 0 and 50 gr pressure

    • Step 2: 350 gr pressure with 20% tolerance





Option 2:





    • Step 1: between 50 and 100 gr pressure

    • Step 2: 500 gr pressure with 20% tolerance





Option 3:





    • Step 1: between 50 and 100 gr pressure

    • Step 2: 350 gr pressure with 20% tolerance.





Preferably, the pressure on the beads to secure them to the last stage is a minimum of 200 gr and a maximum of 500 gr.


There are the following options for clamping the beads over the pegs without this having a restrictive effect on the operation and variants thereof.


The square shape pegs:


The diagonal distance between the corners is 5% longer than the internal round diameter of the beads that fit over it. This with a tolerance of 20%


The diagonal distance between the corners is 10% longer than the internal round diameter of the beads that fit over it. This with a tolerance of 20%


The diagonal distance between the corners is 15% longer than the internal round diameter of the beads that fit over it, this with a tolerance of 20%.

Claims
  • 1. Pegboard and beads, wherein the pegboard comprises a base plate, provided with a plurality of pegs on at least one side of the base plate, wherein the pegs are provided in a regular pattern, and wherein the pegboard is provided with one or more connectors or connector zones at the backside;wherein the beads have an opening at least partially mountable over the pegs;and further comprising: a. one or more double connection means, each double connection means comprising at least two attachment elements, wherein the connector or connector zones and the attachment elements are configured for removable attachment to each other, thereby allowing the pegboard to be connected to another pegboard according to any one of the preceding claims via the double connection means, said one or more double connection means provided with a hinge or rotational element between the attachment elements; and/orb. two or more single connection means, the single connection means comprising at one attachment element, wherein the connector or connector zones and the attachment elements are configured for removable attachment to each other, and the single connection means comprising an inter-means connector configured to removably attach two single connection means via the inter-means connector, thereby allowing the pegboard to be connected to another pegboard according to any one of the preceding claims via two single connection means, wherein said single connection means are hingedly or rotatably attached via the inter-means connectors.
  • 2. The pegboard and beads according to the claim 1, wherein the attachment elements of said double connection means are oriented in different directions with respect to each other, preferably at an angle of about 90°.
  • 3. The pegboard and beads according to claim 1, wherein the connectors or connector zones and the attachment elements are connectable via a clamping engagement between one or more tubular projections and a recessed section configured to receive the tubular projections and dimensioned to fixate said received tubular projections, preferably via a LEGO connection system.
  • 4. The pegboard and beads according to claim 1, said pegboard comprising at least two beveled edges at the backside thereof, preferably beveled with an angle of about 45° with respect to the base plate, wherein on one of said beveled edges a male edge arrangement is provided comprising one or more protrusions along said beveled edge, and wherein on another of said beveled edges a female edge arrangement is provided comprising one or more recesses along said other beveled edge, wherein the recesses and the protrusions are positioned to align and dimensioned to connect in a clamping engagement.
  • 5. The pegboard and beads according to claim 1, wherein the double connection means comprise a third attachment element, each of the attachment elements oriented in a different direction, under an angle of about 90° with respect to each other.
  • 6. The pegboard and beads, according to claim 1, wherein the pegboard comprises a base plate, provided with a plurality of pegs on at least one side of the base plate, wherein the pegs are provided in a regular pattern; wherein the pegs have a stepped structure of at least two steps, wherein the diameter of the steps decreases from the base plate to the distal end of the pegs;wherein the beads have an opening at least partially mountable over the pegs, wherein the opening has a depth at least equal to the height of the pegs, and wherein the opening of the pegs is dimensioned to fully encompass the step at the distal end of the pegs, and wherein the opening of the pegs is dimensioned to not be able to fully encompass the step closest to the base plate;preferably wherein the minimal diameter of the opening is at least 0.5% larger than the maximal diameter of the step at the distal end of the peg, and the minimal diameter of the opening is at least 2.5% smaller than the maximal diameter of the step closest to the base plate.
  • 7. The pegboard and beads according to claim 1, wherein the pegs have a substantially square transversal cross-section.
  • 8. The pegboard and beads according to claim 1, further comprising an intermediary plate provide with a plurality of openings, the intermediary plate suitable for being mounted on and against the base plate, whereby the pegs of the base plate extend through the openings of the intermediary plate, and wherein the openings of the intermediary plate have a diameter larger than the maximal diameter of the pegs.
  • 9. The pegboard and beads according to claim 6, wherein the intermediary plate has a thickness at most equal to the height of the step of the base plate closest to the base plate.
  • 10. The pegboard and beads according to claim 6, wherein the maximal diameter of the step of the pegs closest to the base plate is at least 5% larger than the minimal diameter of the openings of the beads.
  • 11. The pegboard and beads according to claim 1, further comprising stacking beads suitable for mounting on the beads, wherein the beads comprise a second opening oppositely positioned to the opening of the beads, wherein the opening of the beads and the second opening of the beads are connected and form a channel through the entire bead; wherein the stacking beads comprise a plateau widened section with a cross-section larger than the second opening of the beads, wherein on said widened section at a first side a protrusion is provided which is dimensioned to fit in the second opening of a bead, thereby removably fixing the stacking bead on the bead, wherein on the widened section a bead peg is provided on a second side oppositely positioned to the first side, which is dimensioned to fit in an opening of a bead, wherein the bead peg of the stacking bead is substantially identical to the peg of the pegboard.
  • 12. The pegboard and beads according to the claim 11, wherein the second opening of the beads is substantially identical to the opening of the beads, wherein the protrusion of the stacking beads is substantially identical to the bead peg of the stacking beads, and wherein said protrusion of the stacking beads is substantially equal to the pegs of the pegboard.
  • 13. The pegboard and beads according to claim 11, wherein the widened section comprises multiple protrusions at the first side, and wherein neighboring protrusion are distanced over a distance substantially equal to the distance between neighboring pegs on the pegboard; wherein the widened section comprises multiple bead pegs on the second side, wherein neighboring bead pegs on the widened section are distanced over a distance substantially equal to the distance between neighboring pegs on the pegboard.
  • 14. The pegboard and beads, according to claim 11, wherein multiple stacking beads are laterally connected via a connection between the widened sections of the multiple stacking beads, with the widened sections essentially parallel to each other.
  • 15. The pegboard and beads according to claim 1, further comprising multiple mounting components suitable for being affixed to beads, wherein the beads comprise a second opening oppositely positioned to the opening of the beads, wherein the opening of the beads and the second opening of the beads are connected and form a channel through the entire bead; wherein the mounting components comprise a protrusion which is dimensioned to fit in the second opening, thereby removably fixing the mounting component on the bead, the mounting components further comprising a widened section connected to the protrusion, said widened section having a larger cross-section than the second opening.
  • 16. The pegboard and beads according to claim 1, wherein the base plate is flexible and preferably is elastically deformable with a radius of curvature of at most 5.0 cm.
  • 17. The pegboard and beads according to claim 1, wherein the base plate is provided with pegs on both sides.
  • 18. The pegboard and beads, according to claim 1, wherein the openings of the beads comprise a substantially circular cross-section.
  • 19. The pegboard and beads according to claim 6, wherein the pegs comprise at least three steps, and: a. whereby of a step between the step closest to the base plate and the step at the distal end of the peg is dimensioned to substantially correspond to the opening of the beads; orb, wherein the cross-section of a step between the step closest to the base plate and the step at the distal end of the peg has a diameter that is substantially equal to the diameter of the cross-section of the opening of the beads.
PCT Information
Filing Document Filing Date Country Kind
PCT/EP2021/077291 10/4/2021 WO