This invention relates to improved games and puzzles and in particular to advanced games and puzzles, and in particular to game or puzzles which may be considered to be more advanced than the games and/or puzzles described in our U.S. Pat. No. 5,868,388, (“the '388 patent”) the specification of which is incorporated herein by reference.
Checkerboard puzzles of many types have been demonstrated in the past, the inventors being of the view that the main reference giving details of checkerboard puzzles is the “Compendium of Checker Board Puzzles” by Jerry Slocum and Jacques Haubrich published August 1993. Many puzzles may be constructed using the theory of combinatorial geometry upon which the puzzles shown in this Compendium are based. However, no relationship had been established between the obverse side and the reverse side of such puzzles until the '388 patent emerged in which a puzzle was taught having a plurality of polyomino pieces, each of which has on opposite sides one or more squares, the squares on each piece having markings such that the pieces are capable of being assembled using their obverse sides only into a first set of one or more solutions comprising a square checkerboard pattern with the markings of the squares on the obverse side, and wherein the pieces may be further assembled into a second set of one or more solutions comprising a further checkerboard pattern of two alternate markings, the markings on both sides of the pieces comprising three or more different markings and wherein the solutions of the first set are different from the solutions of the second set.
The '388 patent also provided a description of how this principle could be carried further to three-dimensional puzzles, in particular, a cube having, of course, square sides, but each side having a checkerboard pattern such that two opposite sides have the same features of the two sided puzzles of that invention, and pieces being so marked that the sides of the cube when assembled may have a checkerboard pattern comprising the markings carried by the obverse and reverse sides.
However, using the system proposed in the '388 patent, it is not possible to produce some particular checkerboard patterns using only two alternating colours per side to get, for example, diagonal stripes, particularly as applied to twelve pentomino plus one tetromino checkerboards. Where letters, numbers or other symbols having linguistic properties are provided in the place of coloured markings, there is no teaching of a paradigm for the production of particular non-exclusive solutions having a comprehensible statement or message.
It is an object of the present invention to provide advanced games and puzzles which alleviate one or more of the shortcomings of prior art. Other objects and advantages of the invention may become apparent from the following description.
With the foregoing in view, the present invention in one aspect resides broadly in a game or puzzle comprising a plurality of polyomino pieces, each piece having on opposite faces one or more squares, said squares on each said piece and on opposite faces having markings wherein such said markings of said squares in total on both faces of said pieces comprise four or more different markings such that:
said pieces are capable of being assembled using their obverse faces only into a first set of one pattern comprising squares with the markings of the squares on said obverse faces of said assembled pieces forming a checkerboard pattern of two alternating markings which may be used for playing a checkers or chess type game;
said pieces may be further assembled into a second set of one or more patterns using the reverse faces of some of the pieces and the obverse faces of the remaining pieces, each pattern in said second set comprising squares forming a further checkerboard pattern of four or more markings, one of said markings being in an alternating checkerboard pattern with the remaining markings; and
said pieces may be further assembled into a third set of patterns using the reverse faces only of said pieces such that each pattern in said third set comprises three different markings on said reverse side which can be arranged into a pattern such that one of said markings forms a checkerboard pattern with the other two markings;
wherein the assembly of pieces forming said first set of patterns is different from the assembly required of pieces forming said third set of patterns.
In a preferred form, the polyominoes are selected as to their respective shapes and checkered pattern on the obverse face in accordance with those set forth by Sam Lloyd on page 179 of the Compendium referred to above. However, by selecting particular checkered pattern on the reverse faces of the pieces in accordance with the present invention (rather than merely duplicating the checkerboard pattern on every piece in the same, reverse, or alternative markings), it has surprisingly been found that in spite of there being over twenty billion solutions to the checkerboard pattern on the obverse face, there are arrangements where a unique solution to the puzzle can be demonstrated. By unique, it is meant that there is only one arrangement of pieces that allow the particular pattern. For example, one unique solution can be demonstrated comprising a striped pattern similar to that of the third set of patterns of the present invention, but where the stripes of two of the markings are incomplete across in the diagonal direction of the board. There may be other patterns with unique solutions, and indeed, it is believed that there is a significant number of patterns having unique solutions.
It is further believed that puzzles according to the present invention have the advantage that there are very simple solutions to the plain checkerboard puzzle in the first pattern. In other words, solutions to the checkerboard pattern of the first set may be selected to be very easy to find. In all other sets, solutions can be selected to be of a graded degree of difficulty for solving the game or puzzle. In such form, which will be referred to hereinafter as the “kaleidoscope board”, where the markings are selected from four different colours, one of which is common to both faces, there is possible a fourth set of patterns which are not checkerboard puzzles, but could be selected to be aesthetically pleasing patterns. It will be seen that the incomplete striped pattern is from the third set of patterns. In terms of numbers, it is envisaged that there would be tens of thousands of patterns in the third set, and possibly millions of patterns in the second set for this particular embodiment, which will be described in more detail below in the description of the accompanying drawings.
In another aspect the present invention resides broadly in a game or puzzle comprising a plurality of polyomino pieces having an obverse face and a reverse face and squares having markings on each said face, wherein each puzzle piece is configured to a height the same dimension as the side of the squares making up the polyominoes such that the polyominoes are made up of a number of abutting cubes and having side faces made up of abutting squares, the markings on reverse and obverse faces and the side squares being selected to provide an indicium in at least some of said squares, such that the puzzle pieces may be assembled into one or more solutions comprising an assembled cube having a number of squares along each edge corresponding to the number of squares on the obverse and reverse faces, wherein at least one of said solutions comprises one or more messages on at least one of said faces of said assembled cube, said one or more messages being comprised of at least some of said indicia in said squares.
In a preferred form, the puzzle pieces are all hexominoes comprising the entire universe of all thirty-five different planar configurations that can be formed from six squares, each puzzle piece being configured to a height the same dimension as the side of the squares making up the hexominoes such that the hexominoes are made up of six abutting cubes, and a further hexomino configured to have one of its cubes extending out of the planar dimension and into the third dimension or alternatively, the three-dimensional hexomino being substituted by two triominoes of different configuration (there being only two different configurations for triominoes); the hexominoes having squares having different marking on each face, the markings being selected to provide an indicium in at least some of the squares such that the puzzle pieces may be assembled into one or more solutions comprising an assembled cube having six squares along each edge, wherein at least one of the solutions comprises one or more messages on at least one of the faces of the assembled cube, the one or more messages being comprised of the indicia in the squares.
The message may comprise patterns of colours wherein the indicia in each consist of a number of colours as hereinbefore described. Preferably, however, the indicia are in the form of language characters for the assembly of one or more verbal messages. In such form, “Rosettes” of particular patterns may be provided by the appropriate selection of characters and their respective arrangements on the squares so that the word or words are readable even though the cube may be turned to different orientations. The message or messages would typically be relatively short, such as proverbs or saying using letters of the alphabet in languages such as English, or may be in the form of a magic square wherein the indicia are in the form of numerals, or may be a longer passage of prose or poetry in an ideographic language, such as Chinese, Japanese, Korean etc. When the characters are provided in the form of Rosettes, it is preferred that a mask be provided having apertures in register with one of the letters of each Rosette to place over the face of the cube in order to render the message more clearly. It can be seen that by use of Rosettes in conjunction with the mask, the power of the three-dimensional aspect of the puzzle of the present invention can be rendered into an intelligible message irrespective of the orientation of the letters which can be used to compose a message. When a mask is provided for each face of the cube, intelligible messages can be readily seen when assembled on each face.
In another aspect, the present invention resides broadly in a method of exploiting a puzzle as herein described including:
selecting an arrangement of four different markings on the squares of the polyominoes;
publishing the arrangement of the polyominoes for a price;
offering a reward for the provision of a solution of any set of solutions, wherein the reward increases periodically to a maximum reward amount.
Preferably, the publication is by way of an Internet website and the price is payable in order to gain access to the arrangement of the polyominoes and/or a website form for uploading a proposed pattern to the third set of patterns. A relatively small reward may be provided for the uploading of a new (that it, previously unpublished) solution from the first set of patterns, and an intermediate reward may be provided for the uploading of a pattern from the second set of patterns. In such form, the reward may be set to increase at, say for example, US$1,000.00 per day, and the maximum reward may be set at, say for example, US$1,000,000.00.
Preferably, since two dimensional versions of the present invention such as the kaleidoscope board may be subjected more easily to numerical analysis, the type of puzzle made the subject of the reward system is the three-dimensional, cubic version of the invention.
It will be appreciated that there may be many specialised effects possible using as-yet undiscovered phenomena of the puzzle of the present invention Some effects that have been discovered, in the Kaleidoscope board for example, include patterns which are “double sided”, that is, having aesthetic patterns on both sides for a given solution. However, only one side can be solved as a checkerboard pattern for each solution. Additionally, some solutions may produce patterns which are reversible by direction or colour or both direction and colour. It may be possible to determine solutions having patterns which can be rotated or reversed in mirror image fashion. Moreover, in order to determine or characterise such specialised effects, rules, principles or mechanisms may be discoverable to enable the determination of further patterns for such specialised effects.
In the case of the three-dimensional form of the invention, there would be only some cases where the patterns are reversible. If the letters forming a word at one location on one face of the cube are all on separate pieces and in each case, the letters are located on the one-square face of the piece, it is possible to provide a solution which is in the opposite location on that face of the cube. Of course, there may be other solutions which could provide this effect. Further examples may include, but are not limited to, solutions which form a crossword and for which clues may be given as to the actual words making up the solution, and messages which are encrypted. Furthermore, the ease with which the encryption may be solved can be selected in accordance with similar principles used to select other word-type solutions described herein.
In order that the invention may be more readily understood and put into practical effect, reference will now be made to the accompanying drawings which illustrate some preferred embodiments of the invention, and wherein:
The kaleidoscope board puzzle 10 shown in
As shown in
The alternative pattern 41 shown in
The further alternative pattern 42 shown in
Two solutions 43 and 44 to the checkerboard pattern on the obverse face of the puzzle of
The cubic puzzle 60 shown in
The face of the puzzle shown in
The three-dimensional puzzle of the present invention has solutions showing a message on one side only, but is selected to provide a solution having messages on all six sides. For example, the phrase “a stitch in time saves nine” may be possible to arrange in several ways on one side of the puzzle cube, and yet may not necessarily be one of the phrases or proverbs comprised in another solution where there is more than one face of the cube having a phrase or proverb. There may also be solutions showing messages on two sides at once, or possible three sides at once. The solutions providing messages on up to five of the six sides may also include different messages from the messages comprised in the solution for the six sides. Moreover, the arrangement of the indicia may be selected such that the puzzler could find five of the six messages but the sixth side of the puzzle be provided with something other than an intelligible message, requiring a different solution to the puzzle to provide the solution having the six messages.
In the example shown in
The game or puzzle of the present invention may be used as a teaching aid for developing spatial thinking as well as for developing verbal thinking. Indeed, the game or puzzle of the present invention maybe used to develop both spatial and verbal thinking. It is believed that there are many aids for the development of verbal thinking, but relatively few for developing spatial thinking, and even fewer capable of developing both. Moreover, the method of exploiting the game or puzzle of the present invention over the Internet may be tailored to develop such thinking in individuals who participate in the solving of the puzzle, possibly with the participants being unaware that their spatial and verbal thinking skills are being so developed.
Although the invention has been described with reference to a number of specific examples, it will be appreciated by persons skilled in the art that the invention may be embodied in other forms without departing from the broad scope and ambit of the invention as herein set forth.
Number | Date | Country | Kind |
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PR7368 | Aug 2001 | AU | national |
Filing Document | Filing Date | Country | Kind | 371c Date |
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PCT/AU02/01179 | 8/29/2002 | WO | 00 | 7/7/2004 |
Publishing Document | Publishing Date | Country | Kind |
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WO03/018152 | 3/6/2003 | WO | A |
Number | Name | Date | Kind |
---|---|---|---|
231693 | Luers | Aug 1880 | A |
1752248 | Fransen | Mar 1930 | A |
2170909 | Moren | Aug 1939 | A |
3964749 | Wadsworth | Jun 1976 | A |
5403005 | Avila-Valdez | Apr 1995 | A |
5740243 | Rehm | Apr 1998 | A |
5868388 | Wood et al. | Feb 1999 | A |
6666453 | Chambers | Dec 2003 | B2 |
6817614 | Ibbertson | Nov 2004 | B2 |
Number | Date | Country | |
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20040239029 A1 | Dec 2004 | US |