Square Brain Teaser Magic IQ Cube Puzzle Game Toy 5 x 5 x 5

Specifications:

• Unique design of this train brain intelligence toy. Great choice for your kids. Also a wonderful toy when nothing to do
• This is a stunning IQ magic cube puzzle that you will be hard to find anywhere else in the world
• The magic cube puzzle is a amusement game. It's great to train and develop your child's logic
• New style, have new challenge for the people who like to play brain teaser puzzles
• Quality of the magic cube puzzle is outstanding and is almost impossible to understand until you actually touch and feel each puzzle
• Great fun for all the family, keeps the kids busy for hours. Makes a wonderful gift for that someone special
• Collectors, if you want a unique magic puzzle cube that will astound your friends, this is it
• Dimension: 61 x 61 x 61mm/2.4 x 2.4 x 2.4in

Details:

• Turn 5 x 5 x 5 Cube Puzzle using various combinations. Magic puzzle cube is 3D puzzle phenomenon

• Unique design of this train brain intelligence toy. Great choice for your kids. Also a wonderful toy when nothing to do

• This is a stunning IQ magic cube puzzle that you will be hard to find anywhere else in the world

• The nice magic cube puzzle is a amusement game. It is great to train and develop your child's logic

• You can image the size of the magic puzzle cube according to the coin. Just take this home now

Magic Cube Tutorial:

• Rubik's magic cube can be challenge; when you are solving one side the other side messes up on you.
• According to Michiel van der Blonk, you can solve the magic cube with a layer by layer approach and using only four algorithms or sequence of moves.
• Once you learn to recognize when to use an algorithm and memorize the four algorithms, you should be able to solve the magic cube within one minute.
• It is best to learn the algorithms one by one since it is the hardest part.

Instructions:

Learn the notation symbols which is considered standard:

• Right (R), Left (L), Up (U), Down (D), Front (F), Back (B)

Learn the mathematical X, Y and Z axes:

• X--rotate the cube looking at the Right face
• Y--rotate the cube looking at the Up face
• Z--rotate the cube looking at the Front face

Learn the technique to solve the magic cube in the layer by layer method:

• Make a cross on the top layer, insert the corners to make the top layer complete, insert the middle layer edges, make a cross on the bottom layer, rotate the corners to make the bottom color complete, Swap corners to fix the bottom corners, swap (or carousel) edges to fix the bottom edges

Learn the first algorithm "The Cross:"

• Put the front-bottom sticker on top-front "D" "L" "F" "L;" put the front-top sticker on top-front "F" "U" "R" "U;" put the front-right sticker on top-front "U" "R" "U;" put the front-left sticker on top-front "U" "L" "U."

Optimal solutions:

• Although there are a significant number of possible permutations for the Rubik's Cube, there have been a number of solutions developed which allow for the cube to be solved in well under 100 moves.
• Many general solutions for the Rubik's Cube have been discovered independently. The most popular method was developed by David Singmaster and published in the book Notes on Rubik's "Magic Cube" in 1981. This solution involves solving the Cube layer by layer, in which one layer (designated the top) is solved first, followed by the middle layer, and then the final and bottom layer. After practice, solving the Cube layer by layer can be done in under one minute. Other general solutions include "corners first" methods or combinations of several other methods. In 1982, David Singmaster and Alexander Frey hypothesised that the number of moves needed to solve the Rubik's Cube, given an ideal algorithm, might be in "the low twenties". In 2007, Daniel Kunkle and Gene Cooperman used computer search methods to demonstrate that any 3×3×3 Rubik's Cube configuration can be solved in 26 moves or less. In 2008, Tomas Rokicki lowered that number to 22 moves, and in July 2010, a team of researchers including Rokicki, working with Google, proved the so-called "God's number" to be 20. This is optimal, since there exist some starting positions which require at least 20 moves to solve
• A solution commonly used by speed cubers was developed by Jessica Fridrich. It is similar to the layer-by-layer method but employs the use of a large number of algorithms, especially for orienting and permuting the last layer. The cross is done first followed by first-layer corners and second layer edges simultaneously, with each corner paired up with a second-layer edge piece. This is then followed by orienting the last layer then permuting the last layer (OLL and PLL respectively). Fridrich's solution requires learning roughly 120 algorithms but allows the Cube to be solved in only 55 moves on average
• Philip Marshall's The Ultimate Solution to Rubik's Cube is a modified version of Fridrich's method, averaging only 65 twists yet requiring the memorization of only two algorithms
• A now well-known method was developed by Lars Petrus. In this method, a 2×2×2 section is solved first, followed by a 2×2×3, and then the incorrect edges are solved using a three-move algorithm, which eliminates the need for a possible 32-move algorithm later. The principle behind this is that in layer by layer you must constantly break and fix the first layer; the 2×2×2 and 2×2×3 sections allow three or two layers to be turned without ruining progress. One of the advantages of this method is that it tends to give solutions in fewer moves
• In 1997, Denny Dedmore published a solution described using diagrammatic icons representing the moves to be made, instead of the usual notation

How to Solve a Wooden 3D Cube Puzzle:

• Place the puzzle piece composed of four cubes connected by a bar in front of you so the bar is perpendicular to your body
• Add one of the long pieces that resembles a bracket directly on top of the bar so the end protrusions of the bracket point up. Repeat with the second bar and bracket pieces. Set one of the combinations aside
• Place the piece that resembles a telephone receiver, or a rectangle with a small gap, perpendicular to the bracket piece closest to you so the bracket extension fits into the gap of the telephone piece. Repeat on the opposite side with the other telephone piece
• Rotate the puzzle so the bar on the bottom is parallel to your body. Place the combination you put aside earlier on top of the puzzle so that the two bars are parallel and the protruding extensions of the bracket piece in the combination fit into the grooves created by the telephone pieces of the main puzzle
• Grip the two pieces that resemble a bracket with a gap and protrusion in the middle, one in each hand. Rotate the pieces so they are vertical with the protrusions furthest from you. Slide the pieces into the gaps on both sides of the cube. Push the pieces until they meet in the middle and form a pillar in the center of the puzzle
• Fit one of the dumbbell pieces into the remaining rectangle piece with the large gap to form a "T" shape with a gap in the cross-section of the "T"
• Rotate the cube 90 degrees towards you. You will see a large hole in the top of the cube. Push the piece south of the hole to close the gap while opening a new gap on the top of the cube
• Slide the "T" shape into the gap so that the top ends of the piece fill in the grooves on the top of the puzzle. Push the top edge of the cube inward to close the gap
• Turn the cube completely over so the completed top side is on the bottom
• Fit the remaining dumbbell piece into the remaining rectangle piece to create the same "T" shape as before. Slide the "T" into the gap on the puzzle to complete the 3D Puzzle Cube

Package Included:

• 1 x Magic IQ Cube