Sculpture puzzle

Abstract

A sculpture puzzle which includes a base and a core which is attached to, and extends from, the base. The sculpture puzzle is constructed by sequentially mounting a number of planar segments to form a three dimensional figure.

Description

FIELD AND BACKGROUND OF THE INVENTION

The present invention relates to puzzles and, more particularly, to puzzles which can be used to form three-dimensional figures, or statues.

An almost virtually endless variety of puzzles are known. Perhaps the best known are the many varieties of jigsaw puzzles wherein the objective is to fit together a number of segments in the proper manner so as to form a coherent picture or image.

SUMMARY OF THE INVENTION

The present invention is of a puzzle which, when properly assembled through the correct sequential addition of individual segments, forms a three-dimensional figure, such as a sculpture or statue. For convenience and for ease of presentation, the system and method of the present invention is referred to in the specification and claims as a `sculpture puzzle`, it being understood that the present invention need not necessarily form a sculpture but may form any three-dimensional figure, nor is it necessary that the system be used as a puzzle.

According to the present invention there is provided a sculpture puzzle, comprising: (a) a base assembly; (b) at least one main core member having a top end and a bottom end, the bottom end being associated with the base assembly; and (c) a plurality of substantially planar segments formed with an opening therethrough for slidably accommodating the at least one main core member, the segments forming a three dimensional figure when mounted in a proper order onto the at least one main core member through the top end of the at least one main core member.

Also according to the present invention there is provided a method for creating a three dimensional figure, comprising the steps of: (a) providing: (i) a base assembly; (ii) at least one main core member having a top end and a bottom end, the bottom end being associated with the base assembly; and (iii) a plurality of substantially planar segments formed with an opening therethrough for slidably accommodating the at least one main core member; and (b) mounting the segments in a proper order onto the at least one main core member through the top end of the at least one main core member so as to form the three dimensional figure.

The present invention discloses a novel puzzle which calls for the user to create a three dimensional figure through the proper sequential mounting of planar segments having openings onto a core.

BRIEF DESCRIPTION OF THE DRAWINGS

The invention is herein described, by way of example only, with reference to the accompanying drawings, wherein:

FIG. 1 shows one example of a completed sculpture puzzle according to the present invention;

FIG. 2 shows another example of a completed sculpture puzzle according to the present invention;

FIGS. 3-7 show a number of examples of cores which may be employed in sculpture puzzles according to the present invention;

FIG. 8 illustrates one method of anchoring a core in sculpture puzzles according to the present invention;

FIG. 9 illustrates a second method of anchoring a core in sculpture puzzles according to the present invention;

FIG. 10 illustrates a third method of anchoring a core in sculpture puzzles according to the present invention;

FIG. 11 shows another example of a sculpture puzzle according to the present invention featuring auxiliary cores;

FIG. 12 is a perspective view of the auxiliary cores and their anchoring in an anchoring segment;

FIG. 12a shows another example of a sculpture puzzle according to the present invention featuring auxiliary cores;

FIG. 12b is a perspective view of a special segment formed with a plurality of openings and may therefore serve to support the auxiliary cores;

FIG. 13 shows another example of a completed sculpture puzzle according to the present invention made of a relatively small number of segments;

FIG. 14 shows a composite segment according to the present invention made up of a number of smaller interconnected sections;

FIG. 15 another composite segment;

FIG. 16 shows a segment which includes a hollowed out portion;

FIG. 17 shown a main core member and a branching core member branching from the main core member; and

FIG. 18 shows a segment which is formed with an external cutout.

FIG. 19 shows a main core member and a branching core member branching from the main core member, the branching core member has two sections; and

FIG. 20 shows a segment which is formed with an internal cutout.

DESCRIPTION OF THE PREFERRED EMBODIMENTS

The present invention is of a sculpture puzzle and a method for its use which creates three-dimensional figures through the insertion in proper sequence of a number of planar segments onto a core member.

The principles and operation of a sculpture puzzle according to the present invention may be better understood with reference to the drawings and the accompanying description.

Referring now to the drawings, FIGS. 1 and 2 illustrate two typical sculpture puzzles, of a rocket and a motorcycle and rider, respectively, as they might appear once the puzzle has been properly `solved`.

In each case, the sculpture puzzles includes a number of elements. The lower portion of the sculpture puzzle is a base assembly 10 which can take on various configurations, as described in more detail below. The function of base assembly 10, as that term is used herein, is to retain the segments of the puzzle so as to prevent them from inadvertently sliding off the bottom end of the main core member, as described below. Base assembly 10 may be made of any suitable material including, but not limited to, plastic, metal, wood, cardboard, and the like.

Associated with base assembly 10 is one or more main core members which are generally not visible once the puzzle has been completed. A single main core member 12 is shown in broken lines in FIG. 1. The bottom end of main core member 12 is suitably attached to, or integrally formed with, base assembly 10. The function and possible configurations of main core member 12 and core members, in general, is described in more detail below. Main core member 12 may be made of any suitable material including, but not limited to, plastic, metal, wood, cardboard, and the like.

A sculpture puzzle of the present invention further includes a number of substantially planar segments 14. Segments 14 are formed with an opening therethrough which is dimensioned to slidably accommodate main core member 12. When segments 12 are mounted onto main core through its open top end member 12 in a correct sequence a three dimensional figure is formed, such as those shown in FIGS. 1 and 2.

Segments 14 may be made of any suitable material including, but not limited to, plastic, metal, wood, cardboard, and the like. Segments 14 may all be of the same thickness or they may have different thicknesses. Segments 12 may be colored or printed, especially on their edges so that the three dimensional figure is colored. The coloring of segments 14 may also make it easier for the user to put together the puzzle in a correct sequence. To make the puzzle easier to solve, some or all of segments 14 may feature writings, such as numerals, which help the user correctly create the three dimensional figure.

Each segment 14 may be symmetrical about main core member 12. Preferably, at least some, and more preferably, most of segments 14 are asymmetrical so that each of these segments must be mounted onto main core member 14 not only in the correct sequence but also with the proper lateral orientation.

Preferably, there is no limitation on the size, as measured, for example, by the surface area, of a specific segment and the size of an adjacent segment so that it is entirely possible, for example, for a first segment to have a smaller surface area than an adjacent segment which located between the first segment and the base assembly. Thus, the sequence of segments is not monotonic and succeeding segments may have various sizes and shapes regardless of the sizes and shapes of the adjacent segments.

Because segments 14 are substantially planar, contact between adjacent segments 14 is along a plane. As can be seen from FIGS. 1 and 2, various features of the three dimensional figures are formed by a number of segments 14. For example, each of the wings of the rocket of FIG. 1 is formed of portions of ten or more segments 14.

One or more main core members 12 of various shapes over at least a part of core member 12 may be used. Shown in cross-section FIGS. 3-7 are various numbers and shapes of core members. It is to be understood that the segments include corresponding openings which fit over the core member(s). For example, FIG. 3 shows a single circular core member. Using a single circular core significantly complicates the `solving` of the puzzle in that every segment can be placed on the core member in a virtually infinite number of lateral orientations.

FIG. 4 shows a pair of core members which limits the possible orientations to two in the case the two members are of the same diameter. When the pair of members are of different diameters there is only a single possible lateral orientation, which considerably simplifies the solution of the puzzle.

It is clear that when more than a single core member is employed, at least some of the segments are formed having more than a single opening to accommodate the plurality of core members. FIG. 12b, shows a segment having three openings, the segment therein shown may therefore be implemented over three core members.

Another way to ensure that only a single lateral configuration is possible is shown in FIG. 5 which shows a triangular cross-section with one side being shorter than the others. When the triangle is equilateral (FIG. 6) three orientations are possible. Similarly, a regular hexagon (FIG. 7) accommodates six possible orientations.

The main core member may form any suitable angle with the base assembly. Furthermore, the base assembly may acquire any orientation in space. Thus, for example, the base assembly may be placed on a horizontal surface, such as the upper plate of a table. Alternatively, the base assembly may be attached to a horizontal surface, such as a wall. In the later case, should a perpendicular angle is formed between the base assembly and the main core member, placing the segments over the core member would typically involve horizontally sliding the segments along the core member.

Base assembly 10 may be formed in any one of a number of ways. Three possibilities are illustrated in FIGS. 8-10.

In FIG. 8, base assembly 10' includes a base member 20 to which main core member(s) 12 is(are) permanently connected in any suitable fashion. Alternatively, main core member(s) 12 may be integrally formed with base member 20.

Shown in FIG. 9 is another base assembly 10" wherein main core member 12' features a thin broadened anchoring element 22 at its bottom end. Base assembly 10" includes at least a pair of sections 24 and 26 which are connected to each other by some suitable manner, such as, for example, through use of a suitable adhesive, so that one of each of sections 24 is on each side of anchoring element 22. Section 24 features an opening for accommodating core member 12 while section 26 is preferably without such as opening.

Shown in FIG. 10 is another base assembly 10'". Base assembly 10'" includes at least a pair of sections 28 and 30 which are connected to each other by some suitable manner, such as, for example, through use of a suitable adhesive. Section 28 features an opening for accommodating core member 12 while section 30 is without such as opening so that core member 12 is supported at the bottom by section 30 while being supported at the sides by section 28 and any additional sections forming base assembly 10'".

Preferably, a sculpture puzzle according to the present invention further includes a suitable closure member (40 in FIG. 1) for attaching to the top end of main core member 12. Closure member 40 serves to secure segments 14 on main core member 12 so as to prevent the inadvertent removal of segments 14 from main core member 12.

Various mechanisms may be envisioned for closure member 40, including, but not limited to, the screwing of a threaded closure member 40 onto a threaded top portion of main core member 12, the snapping or pressure fitting of closure member 40 onto the top of main core member 12, and the like. Closure member 40 may be a distinct and separate unit or it may be identical with, or very similar to one of the segments. For example, the segment placed last could have a number of protrusions which extend inwardly from the periphery of the opening of the segment such once the segment is pressed on the core member, the protrusions tend retain the segment in place.

For some three dimensional figures it is advantageous to make use of one or more auxiliary core members in order to express features which would otherwise be difficult or impossible to express using main core members. For example, as will be readily appreciated, the upper part of the motorcycle visor and the upper part of the rear luggage compartment of the motorcycle in FIG. 2 cannot be supported by a main core member which runs vertically through the main portion of the figure. To overcome this limitation, and to provide the device with a greatly enhanced versatility in the formation of even very complicated figures, it is proposed to use one or more auxiliary core members.

The principle of an auxiliary core member according to one embodiment of the invention is illustrated in FIGS. 11 and 12. FIG. 11 shows a portion of a figure (a rabbit's head) featuring a main core member 12. Shown in FIG. 11 is a special segment 50 which anchors a pair of auxiliary core members 52. Once special segment 50 is placed over main core member 12, auxiliary core members 52 can be used to place additional segments which are not mounted over main core member 12. Auxiliary core member 52 can be made from the same material as main core member 12 or from different materials. Thus, special segment 50 serves as an auxiliary core base assembly.

Special segment 50 may feature an anchoring layer 54, such as a thin metal layer, to which auxiliary segments 52 are suitable attached. Alternatively, auxiliary core members 52 may be anchored using the techniques described with reference to FIGS. 8-10 with regard to the anchoring of main core member 12 or 12'.

It is to be noted from FIGS. 11 and 12 that auxiliary core members 52 need not be oriented in the same direction as main core member 12, further enhancing the versatility of the structure.

The principle of an auxiliary core member according to another embodiment of the invention is illustrated in FIGS. 12a and 12b. Similar to FIG. 11, FIG. 12a shows a portion of a figure (a rabbit's head) featuring a main core member 12. Shown in FIG. 12b is another special segment 53 which, together with successive segments 53 as shown in FIG. 12a, serve to support a pair of auxiliary core members 52. Special segments 53 include, in addition to the main opening which serve to accommodate main core member 12, at least one additional opening (two are shown in FIG. 12b). The precise position of the additional openings is selected such that few (e.g., three or more) segments 53, when placed over main core 12, form a bore for accepting auxiliary core members 52. Once inserted into the bores formed by special segments 53, auxiliary core members 52 can be used to place additional segments which are not mounted over main core member 12.

As before, it is to be noted from FIGS. 12a and 12b that auxiliary core members 52 need not be oriented in the same direction as main core member 12, further enhancing the versatility of the structure.

To create a three dimensional figure, the user would sequentially mount segments in the proper order and, where appropriate, orientation onto the main core member and any auxiliary core members. If a mistake is made so that either a wrong segment is mounted or a correct segment is mounted but in the wrong orientation, the user would remove the segments which were placed subsequently and would correct the mistake before continuing. Provided that all the segments are mounted in a correct sequence and, where appropriate, correct orientation, the desired three dimensional figure is produced.

Each of segments 53 has a certain high percentage (e.g., 80-100%) of surface area which abuts and overlaps the segment 53 therebelow. Furthermore, any segment mounted only over any of the auxiliary core members also have a high percentage of overlapping area with the segment below. Therefore, the auxiliary core members primarily serve to prevent lateral sliding of the segments mounted thereover relative to one another, yet, in most cases, the auxiliary core members do not serve to support a moment, or alternatively serve to support a minor moment, since the weight of a successive segment is mostly transferred to the segment below.

In one alternative embodiment of the present invention shown in FIG. 13, especially suitable for beginning users and/or children, segments 114 are relatively large so that each segment 114 may include a number of features. Because the puzzle is made up of relatively few segments 114, each of which is easily distinguishable from the others, the puzzle is considerably easier to solve.

Shown in FIGS. 14, 15 and 16 are examples of further alternative embodiment of the present invention. In FIG. 14, segment 214 is made up of a plurality of sections which are connectible with each other in the manner of conventional two-dimensional jigsaw puzzles to form the overall composite segment 214. Thus, prior to inserting the segments over the core, each composite segment 214 is first assembled from two or more pieces (three are shown in FIG. 14) in jigsaw fashion. The completed composite segment 214 is then placed over the core, as described above. Alternatively, composite segment 214 may be assembled or fully assembled only after the portion of composite segment 214 bearing the opening is placed over the core.

A portion of the periphery of the section of composite segment 214 which includes the opening for insertion over the core may partially define the periphery of composite segment 214, as in FIG. 14 or, alternatively, the section which includes the opening may be an interior section such that no portion of its periphery coincides with the periphery of composite segment 214, as in FIG. 15.

Shown in FIG. 16 is a segment 314, which may or may not be composite (as indicated by the broken line) which is not a solid disc but which, instead, features an internal cutout 315 so that, when the sculpture is assembled, it contains a hollowed out volume. The presence of cutout 315 reduces the weight of the discs and sculpture and may reduce the manufacturing costs through a reduction in the material costs. In addition, the hollowed out volume may be used for storage, if desired.

According to another embodiment of the invention, at least one auxiliary core member branches directly from the main core member. This embodiment is shown in FIG. 17. A main core member 12 is connected to or formed with base assembly 10, following, for example, any of the alternatives described above. Following the placement of some of segments 14 over member 12, such that a certain portion of member 12 becomes engaged, a branching auxiliary core member 320 is connected to member 12, employing any suitable connecting means, e.g., by screwing or forcing member 320 into a dedicated hole formed in member 12. Branching auxiliary core member 320 may acquire any angle with respect to main core member 12. Thereafter, additional segments 14 may be independently placed over any of members 12 and 320 or both. Segments 14 which are positioned at or close to the branching site, as indicated by arrows in FIG. 17, may be required to have, as shown in FIG. 18, an external cutout 322.

Another embodiment wherein, at least one auxiliary core member branches directly from the main core member is shown in FIGS. 19 and 20. As before, main core member 12 is connected to or formed with base assembly 10, following, for example, any of the alternatives described above. Following the placement of some of segments 14 over member 12, such that a certain portion of member 12 becomes engaged, a branching auxiliary core member 320' is connected to member 12, employing any suitable connecting means, e.g., by screwing or forcing member 320' into a dedicated hole formed in member 12. In this case branching auxiliary core member 320' includes two sections which form an angle therebetween, the first of which is connected to main core member 12, such that it is parallel to base assembly 10. Thereafter, additional segments 14 may be independently placed over any of members 12 and 320' or both. Segment 14 which is positioned at the branching site, as indicated by arrows in FIG. 19, may be required to have, as shown in FIG. 20, an internal cutout 324.

While the invention has been described with respect to a limited number of embodiments, it will be appreciated that many variations, modifications and other applications of the invention may be made.

Claims

1. A sculpture puzzle, comprising:

(a) a base assembly;

(b) at least one main core member having a main core top end and a main core bottom end, said main core bottom end being anchored to said base assembly;

(c) a plurality of substantially planar segments formed with at least one main opening therethrough, at least some of said plurality of segments being formed with at least one additional opening; and

(d) at least one auxiliary core member having an auxiliary core bottom end and an auxiliary core top end;

such that when said segments are mounted in a proper order through said at least one main opening onto at least one of said at least one main core members said at least one additional openings of said segments form at least one bore for accommodating and supporting said bottom end of at least one of said at least one auxiliary core members, such that when said segments are further mounted in a proper order onto at least one of said at least one main core members and said at least one auxiliary core member, as appropriate, through said main core top end and through said auxiliary core top end, respectively, form a three dimensional figure.

2. The puzzle of claim 1, wherein at least one of said planar segments is a composite segment made up of a plurality of interconnected sections, at least one of said sections formed with said opening therethrough.

3. The puzzle of claim 2, wherein at least a portion of the periphery of said at least one section formed with said opening forms a portion of the periphery of said composite segment.

4. The puzzle of claim 2, wherein the periphery of said at least one section formed with said opening is interior to the periphery of said composite segment.

5. The puzzle of claim 1, wherein at least one of said planar segments includes an internal cutout.

6. The puzzle of claim 2, wherein at least one of said composite segments includes an internal cutout.

7. The puzzle of claim 1, wherein at least one of said segments has an area which is larger than an adjacent segment located between said at least one segment and said base assembly.

8. The puzzle of claim 1, wherein a plurality of said segments together form a feature of said three dimensional figure.

9. The puzzle of claim 1, wherein at least one of said segments forms a plurality of features of said three dimensional figure.

10. The puzzle of claim 1, wherein said at least one main core member is a single main core member.

11. The puzzle of claim 1, wherein said at least one main core member is perpendicular with respect to said base assembly.

12. The puzzle of claim 1, wherein said at least one main core member is non-perpendicular with respect to said base assembly.

13. The puzzle of claim 10, wherein said single main core member is substantially circular in cross-section over at least part of its length.

14. The puzzle of claim 10, wherein said single main core member is polygonal in cross-section over at least part of its length.

15. The puzzle of claim 14, wherein said single main core member is a regular polygon in cross-section over at least part of its length.

16. The puzzle of claim 1, wherein said at least one main core member is a pair of main core members.

17. The puzzle of claim 1, wherein said base assembly includes a base member to which said at least one main core member is permanently connected.

18. The puzzle of claim 1, wherein said base assembly includes a base member which is integrally formed with said at least one main core member.

19. The puzzle of claim 1, wherein said at least one main core member includes a broadened anchoring element at said bottom end of said at least one core member and wherein said base assembly includes at least a pair of sections which are connected to each other with one of each of said sections being on each side of said anchoring element.

20. The puzzle of claim 1, further comprising a closure member for attaching to said top end of said at least one main core member, said closure member serving to secure said segments on said at least one main core member.

21. The puzzle of claim 20, wherein said top end of said at least one main core member and said closure member are threaded so as to allow said closure member to screw onto said at least one main core member.

22. The puzzle of claim 20, wherein said closure member is designed to snap onto said top end of said at least one main core member.

23. The puzzle of claim 20, wherein said closure member is designed to pressure-fit onto said top end of said at least one main core member.

24. A method for creating a three dimensional figure, comprising the steps of:

(a) providing:

(i) a base assembly;

(ii) at least one main core member having a main core top end and a main core bottom end, said main core bottom end being anchored to said base assembly;

(iii) at least one auxiliary core member having auxiliary core top end and an auxiliary core bottom end; and

(iv) a plurality of substantially planar segments formed with an opening therethrough, at least some of said plurality of segments being formed with at least one additional opening;

(b) mounting some of said segments in a proper order onto at least one of said at least one main core members via said at least one main openings, such that said at least one additional openings of said segments form at least one bore for accommodating at least one of said bottom ends of at least one of said at least one auxiliary core members;

(c) inserting at least one of said bottom ends of at least one of said at least one auxiliary core members into at least one of said at least one bores; and

(d) further mounting said segments in a proper order onto at least one of said at least one main core members and said at least one auxiliary core member, as appropriate, through said main core top end and through said auxiliary core top end, respectively, so as to form a three dimensional figure.

25. A sculpture puzzle, comprising:

(a) a base assembly;

(b) at least one main core member having a main core top end and a main core bottom end, said main core bottom end being anchored to said base assembly;

(c) a plurality of substantially planar segments formed with at least one opening or cutout, at least one of said segments having an area larger than an adjacent segment being located between said at least one segment and said base assembly; and

(d) at least one branching auxiliary core member having an auxiliary core bottom end and an auxiliary core top end branching from at least one of said at least one main core members;

said segments forming a three dimensional figure when slidably mounted in a proper order through said opening or cutout onto at least one of said at least one main core members and said at least one branching auxiliary core members through said main core top end and said auxiliary core top end, respectively.

26. The puzzle of claim 25, wherein at least one of said planar segments is a composite segment made up of a plurality of interconnected sections, at least one of said sections formed with said opening therethrough.

27. The puzzle of claim 26, wherein at least a portion of the periphery of said at least one section formed with said opening forms a portion of the periphery of said composite segment.

28. The puzzle of claim 26, wherein the periphery of said at least one section formed with said opening is interior to the periphery of said composite segment.

29. The puzzle of claim 25, wherein at least one of said planar segments includes an internal cutout.

30. The puzzle of claim 26, wherein at least one of said composite segments includes an internal cutout.

31. The puzzle of claim 25, wherein a plurality of said segments together form a feature of said three dimensional figure.

32. The puzzle of claim 25, wherein at least one of said segments forms a plurality of features of said three dimensional figure.

33. The puzzle of claim 25, wherein said at least one main core member is a single main core member.

34. The puzzle of claim 25, wherein said at least one main core member is perpendicular with respect to said base assembly.

35. The puzzle of claim 25, wherein said at least one main core member is non-perpendicular with respect to said base assembly.

36. The puzzle of claim 33, wherein said single main core member is substantially circular in cross-section over at least part of its length.

37. The puzzle of claim 33, wherein said single main core member is polygonal in cross-section over at least part of its length.

38. The puzzle of claim 37, wherein said single main core member is a regular polygon in cross-section over at least part of its length.

39. The puzzle of claim 25, wherein said at least one main core member is a pair of main core members.

40. The puzzle of claim 25, wherein said base assembly includes a base member to which said at least one main core member is permanently connected.

41. The puzzle of claim 25, wherein said base assembly includes a base member which is integrally formed with said at least one main core member.

42. The puzzle of claim 25, wherein said at least one main core member includes a broadened anchoring element at said bottom end of said at least one core member and wherein said base assembly includes at least a pair of sections which are connected to each other with one of each of said sections being on each side of said anchoring element.

43. The puzzle of claim 25, futher comprising a closure member for attaching to said top end of said at least one main core member, said closure member serving to secure said segments on said at least one main core member.

44. The puzzle of claim 43, wherein said top end of said at least one main core member and said closure member are threaded so as to allow said closure member to screw onto said at least one main core member.

45. The puzzle of claim 43, wherein said closure member is designed to snap onto said top end of said at least one main core member.

46. The puzzle of claim 43, wherein said closure member is designed to pressure-fit onto said top end of said at least one main core member.

47. A method for creating a three dimensional figure, comprising the steps of:

(a) providing:

(i) a base assembly;

(ii) at least one main core member having a main core top end and a main core bottom end, said main core bottom end being anchored to said base assembly;

(iii) at least one branching auxiliary core member having auxiliary core top end and an auxiliary core bottom end; and

(iv) a plurality of substantially planar segments formed with at least one opening or cutout;

(b) slidably mounting said segments in a proper order via said opening or cutout onto at least one of said at least one main core members and said at least one branching auxiliary core members, as appropriate, through said main core top end and said auxiliary core top end, respectively.