The present invention relates generally to blocks for constructing crafts, and more particularly to blocks that are adherable to one another for constructing crafts.
Kits have been provided in the past, containing a plurality of beads that were made of a material that, when exposed to water, became adherent to one another. Some kits were difficult to use because the beads where spherical and did not therefore have large areas of contact with one another. Additionally, the beads were in some cases generally small and therefore difficult to place with one's hands. Additionally, spherical beads were difficult to stack directly one on top of the other due to the inherently unstable arrangement of a sphere sitting on top of another sphere. Accordingly, to build a structure with vertical walls that were relatively smooth, one sometimes resorted to building individual layers of the structure individually, and then stacking the layers on top of one another, which can be time-consuming to inhibit a user from initiating such a task. Yet another problem that arises with some kits is the potential for the beads to adhere to the bead tray on which they are placed.
It would be advantageous to provide a kit for producing a craft that addresses one or more of the problems identified above or other problems that are present with some kits.
In an aspect, a kit is provided for constructing a craft, and includes a plurality of blocks. Each block has a main body having an exterior surface that is made from a material that is adherent when exposed to water so as to permit a first block from the plurality of blocks to be adherable to a second block of the plurality of blocks by applying water to at least one of the first and second blocks. Each block further includes a top surface and a block projection extending from the top surface. Each block further includes a bottom aperture extending into the main body towards the top surface. The bottom aperture includes a first aperture region that has a plurality of first region sidewalls, which are connected to one another by a plurality of first region corners each having a first average radius. The first aperture region is shaped to receive the block projection of the second block of the plurality of blocks. The bottom aperture includes a second aperture region that has a plurality of second region sidewalls, which are connected to one another by a plurality of second region corners each having a second average radius that is greater than the first average radius.
In another aspect, a kit is provided for constructing a craft, and includes a plurality of blocks. Each block has a main body having an exterior surface that is made from a material that is adherent when exposed to water so as to permit a first block from the plurality of blocks to be adherable to a second block of the plurality of blocks by applying water to at least one of the first and second blocks. Each block further includes a top surface and a block projection extending from the top surface. Each block further includes a bottom aperture extending into the main body towards the top surface, and defining a longitudinal axis. The bottom aperture includes a first aperture region that is shaped to receive the block projection of the second block of the plurality of blocks. The bottom aperture includes a second aperture region that is shaped to receive a distal portion of a block tray projection on a block tray.
In yet another aspect, a kit is provided for constructing a craft, and includes a plurality of blocks and a block tray. The block tray includes a block tray projection having a proximal portion and a distal portion. Each block having a main body has an exterior surface that is made from a material that is adherent when exposed to water so as to permit a first block from the plurality of blocks to be adherable to a second block of the plurality of blocks by applying water to at least one of the first and second blocks. Each block further includes a top surface and a block projection extending from the top surface. Each block further includes a bottom aperture extending into the main body towards the top surface, and defining a longitudinal axis. The bottom aperture includes a first aperture region that is shaped to receive the block projection of the second block of the plurality of blocks. The bottom aperture includes a second aperture region that is shaped to receive the distal portion of the block tray projection.
In yet another aspect, a kit is provided for constructing a craft, and includes a plurality of blocks and a block tray. The block tray includes a block tray projection including a limit surface. Each block has a main body having an exterior surface that is made from a material that is adherent when exposed to water so as to permit a first block from the plurality of blocks to be adherable to a second block of the plurality of blocks by applying water to at least one of the first and second blocks. Each block further including a bottom aperture extending into the main body. The bottom aperture includes a first aperture region that is shaped to receive the block tray projection. The bottom aperture includes a shoulder that defines a depth of the first aperture region. The depth of the first aperture region is selected such that the shoulder is positioned to engage the limit surface on the block tray to hold a lowermost surface of one of the plurality of blocks above a floor of the block tray that surrounds the block tray projection.
In another aspect, a kit is provided for constructing a craft, and includes a plurality of blocks. Each block has a main body having an exterior surface that is made from a material that is adherent when exposed to water so as to permit a first block from the plurality of blocks to be adherable to a second block of the plurality of blocks by applying water to at least one of the first and second blocks. Each block further includes a bottom aperture extending into the main body. The bottom aperture includes a first aperture region that is shaped to receive a block tray projection on a block tray. The bottom aperture includes a shoulder that defines a depth of the first aperture region. The depth of the first aperture region is selected such that the shoulder is positioned to engage a limit surface on the block tray to hold a lowermost surface of one of the plurality of blocks above a floor of the block tray that surrounds the block tray projection.
Embodiments will now be described, by way of example only, with reference to the attached figures, as follows:
Throughout the present disclosure, it will be understood that the term “an” to introduce an element is not intended to mean “one and only one” of that element. It is intended to mean “one or more” of that element, unless it would be obvious to one skilled in the art that more than one of the element would be unusable.
Reference is made to
Each block 10 has a main body 14, which has an exterior surface 16 that is made from a material that is adherent when exposed to water so as to permit a first block (shown in
The exterior surface 16 may include a plurality of generally planar (i.e. flat) exterior sidewalls 19 so as to promote surface-to-surface contact between adjacent blocks 10, thereby promoting adhesion therebetween. However, it is contemplated that any other suitable shape may be provided to the exterior surface 16.
Each block 10 further includes a top surface 20 and a block projection 22 extending from the top surface 20. The block projection 22 is shown as having a generally square shape, however, other shapes such as arcuate shapes, polygonal shapes other than a square shape, shapes that are combinations of arcuate surfaces and polygon faces, or any other suitable shapes are contemplated. As can be seen, the block projection 22 has a height H1 (
Each block 10 further includes a bottom aperture 24 extending into the main body 14. The bottom aperture 24 may extend from a lowermost surface shown at 26, and my extend towards the top surface 20. The bottom aperture 24 may define a longitudinal axis A for the block 10 (
The bottom aperture 24 includes a first aperture region 28. The first aperture region 28 is shaped to receive the block projection 22 of the second block 10b (
The first aperture region 28 has a plurality of walls including a plurality of first region sidewalls 30 and a plurality of first region corners 32. The first region sidewalls 30 are connected to one another by the plurality of first region corners 32. Each first region corner 32 has a first average radius R1 (
The bottom aperture 24 further includes a second aperture region 34 that extends into the main body 14 from the first aperture region 28. The second aperture region 34 has a plurality of second region sidewalls 36, which are connected to one another by a plurality of second region corners 38. Each second region corner 38 has a second average radius R2 (
The bottom aperture 24 includes a shoulder 42 between the first aperture region 28 and the second aperture region 34. The shoulder 42 defines a depth H2 (
By providing the first aperture region 28 that is shaped to receive the block projection 22 of the second block 10b, and by providing the second aperture region 34 that has the second average radius R2 for the second region corners 38 that is larger than the first average radius R1, the second aperture region 34 provides added strength at the corners of the block 10 that would not be present if the entire bottom aperture 24 was shaped like the first aperture region 28.
Additionally, it can be seen that the second region sidewalls 36 progressively increase in thickness with increasing distance from the second region corners 38. This shape strengthens the second region sidewalls 36 against forces exerted thereon, while still conserving material used in the manufacture of the block 10. In other words, by providing the increase in thickness away from the second region corners 38, the material that makes up the block 10 is used where it is most needed to resist stresses that may be applied to it during use. This may also help the block 10 maintain its shape and inhibit warpage during manufacture, as compared to a block 10 where the entire bottom aperture 24 is like the first aperture region 28. In the example block 10 shown in the figures, the peak thickness of each second region sidewall 36 is centered between the second region corner 38 on either side of it.
In the example shown, the main body 14 of the block 10 has four corners, and the first aperture region 28 has four first region corners 32 and four first region sidewalls 30, and the second aperture region 34 has four second region corners 38 and four second region sidewalls 36. However, any other suitable number of corners and sidewalls may be used for each of the first and second aperture regions. Furthermore, the first and second aperture regions need not have the same number of corners as one other, and therefore need not have the same number of sidewalls as one another.
Referring to
The block tray projections 48 are shaped to receive blocks 10 thereon and to position the blocks 10 so as to have the exterior surfaces 16 thereof be in contact with one another.
The floor 46 is provided to collect water that is sprayed onto the blocks 10 during the craftmaking process. The edge wall 50 is provided to prevent the water collected on the floor 46 of the block tray 44, from spilling off onto the table or other support surface on which the block tray 44 is positioned.
Magnified views of one of the block tray projections 48 are shown in
A limit surface 56 may be provided on the block tray projection 48. In the embodiment shown, the limit surface 56 is provided between the first portion 48a and the second portion 48b of the block tray projection 48. When the block 10 is positioned on the block tray projection 48, the limit surface 56 engages the shoulder 42 on the block 10. It may be said, that the limit surface 56 is positioned in a selected position on the block tray 44 to hold the lowermost surface 26 of the block 10 above the floor 46 of the block tray 44 that surrounds the block tray projection 48, as can be seen in
The second aperture region 34 of the bottom aperture 24 of each block 10 may be shaped to receive the distal portion 48b of each block tray projection 48. Alternatively it may be said that the distal portion 48b of each block tray projection 48 may be shaped to receive the second aperture region 34 of the bottom aperture 24 of each block 10.
In some embodiments, the distal portion 48b may generally conform to the shape of the second aperture region 34 but may be spaced entirely from the walls of the second aperture region 34, so as to provide some increased stability to the block 10 resting thereon by inhibiting excessive tilting of the block 10 while the block 10 sits thereon, while also inhibiting the block 10 from adhering thereto in the event that any water is present therebetween, thereby facilitating removal of the block 10 therefrom once the craft is completed. Additionally, the spacing between the second portion 48b of the block try projection 48 and the walls of the second aperture region 34 facilitate water drainage in the event that there is any water on top of the block tray projection 48 or in the second aperture region 34 of the block 10 when the block 10 is mounted onto the block tray projection 48. As can be seen in
As can be seen in
An example of a simple craft is shown at 100 in
While it has been shown for the kit 12 to optionally include the block tray 44 shown in
The above-described embodiments are intended to be examples of the present invention and alterations and modifications may be effected thereto, by those of skill in the art, without departing from the scope of the invention that is defined solely by the claims appended hereto.
This application claims the benefit of U.S. Provisional Application No. 63/295,882, filed Jan. 1, 2022, the contents of which are incorporated herein by reference in their entirety.
Number | Date | Country | |
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63295882 | Jan 2022 | US |