Rubik's 360 Puzzle Ball

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Siamese cubes are two or more puzzles that are fused so that some pieces are common to both cubes. The picture here shows two 3×3×3 cubes that have been fused. The largest example known to exist is in The Puzzle Museum [8] and consists of three 5×5×5 cubes that are siamese fused 2×2×5 in two places. there is also a "2 3x3x3 fused 2x2x2" version called the fused cube. The first Siamese cube was made by Tony Fisher in 1981. [9] This has been credited as the first example of a "handmade modified rotational puzzle". [9]

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Mechanically, no different from the puzzle above. However, the picture on the pieces gives it something of the nature of a jigsaw puzzle, in addition to being a combination puzzle. Note that the picture consists of a multitude of polyhedra which have been made into Rubik puzzles. An octahedral variation on the Skewb, it is a deep-cut puzzle very similar to the Skewb and is a dual-polyhedron transformation. Rotate any other misaligned gear rings into position with R4. Look over the ball to see if there are any gear rings still out of alignment. If so: [16] X Research sourceEventually, you'll be able to match the colors of the corners and centers in each of the other 4 faces. The interior pieces will now be in the correct vicinity, but still in the wrong faces. That is, according to the example, the purple interior piece will be at the bottom of the blue face, and the blue interior piece will be at the top of the purple face. Solution is much the same as 3×3×3 cube except additional (and relatively simple) algorithm(s) are required to unscramble the centre pieces and edges. Find other sets of interiors to switch with R2-U-R2-U. For instance, you may find the same scenario you had with the yellow-blue-purple faces, this time by reorienting the ball so you have the red face above and the orange face below the blue face. Turn the ball up 90 degrees (¼ turn) so the orange face is towards you, then repeat the R2-U-R2-U algorithm to put the interior pieces in the proper vicinity. [9] X Research source If, for example, you’re holding the Gear Ball so that there’s a red corner on top of a yellow corner to the left, you may be able to rotate the right side of the ball up or down until you have a red corner on top of a yellow corner to the right as well.

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Although a mechanical realization of the puzzle is usual, it is not actually necessary. It is only necessary that the rules for the operations are defined. The puzzle can be realized entirely in virtual space or as a set of mathematical statements. In fact, there are some puzzles that can only be realized in virtual space. An example is the 4-dimensional 3×3×3×3 tesseract puzzle, simulated by the MagicCube4D software. Solution is much the same as 3×3×3 cube except additional (and relatively simple) algorithm(s) are required to unscramble the centre pieces and edges and additional parity not seen on the 3x3x3 Rubik's Cube. Find the other 2 “favorite color” corners and move them into place. Now that you’ve established 2 starting corners, (for example, the 2 red corners that are next to 2 yellow corners), look for the 2 other “favorite color” (red, for example) corners on the Gear Ball. They will always be separated from each other only by a side piece, and you’ll be able to rotate them together into place. Move them around until they are the other 2 corners in the same face as your starting 2 corners (for instance, all 4 corners in the face will be red). [3] X Research source The BrainTwist is a unique tetrahedral puzzle with an ability to "flip", showing only half of the puzzle at a time. The cubelets are connected by an elastic band running through them. They can rotate freely. The aim of the puzzle is to arrange the chain in such a way that they will form 3 x 3 x 3 or 4 x 4 x 4 cube.First rotational puzzle created that has just one colour, [9] requiring the solver to restore the puzzle to its original cube form without colour aids. Turn the ball via the “R-U-R-U-R-U” algorithm once. With the 4 correct interior pairs in the “standing slice” position, turn the right side of the ball up 180 degrees (½ turn). Then, turn the upper side to the left 180 degrees (½ turn). Repeat these turns 2 more times apiece. [12] X Research source Panagiotis Verdes holds a patent to a method which is said to be able to make cubes up to 11×11×11. He has fully working products for 2×2×2 - 9×9×9 cubes. This is a really cool option to make your interior more special or just fresh. I also used posters for… Create 2 matching pairs from 4 adjacent corners. The goal here is to have 2 corners (separated only by 1 side piece) of a face both be a single color (for example, red), and the 2 adjacent corners of an adjacent face both be another single color (for example, yellow). [2] X Research source