Rubiks Cube - A History of the 1980s Puzzle

The Rubiks Cube is a cube-shaped puzzle that has nine, smaller squares on each side. When taken out of the box, each side of the cube has all the squares the same color. The goal of the puzzle is to return each side to a solid color after you have turned it a few times. Which seems simple enough—at first. After a few hours, most people who try the Rubiks Cube realize that they  are mesmerized by the puzzle and yet no closer to solving it. The toy, which was first created in 1974 but not released onto the world market until 1980, quickly became a fad  when it hit stores.   Who Created the Rubiks Cube? Ernà ¶ Rubik is the one to praise or to blame, depending on how mad the  Rubiks Cube has driven you. Born on July 13, 1944 in Budapest, Hungary, Rubik combined the divergent talents of his parents (his father was an engineer who designed gliders and his mother was an artist and a poetess) to become both a sculptor and an architect. Fascinated with the concept of space, Rubik spent his free time while working as a professor at the Academy of Applied Arts and Design in Budapest designing puzzles that would open his students minds to new ways of thinking about three-dimensional geometry. In the spring of 1974, just shy of his 30th birthday, Rubik envisioned a small cube, with each side constructed of moveable squares. By the fall of 1974, his friends had helped him create the first wooden model of his idea. At first, Rubik just enjoyed watching how the squares moved as he turned one section and then another. However, when he attempted to put the colors back again, he ran into difficulty. Oddly entranced by the challenge, Rubik spent a month turning the cube this way and that way until he finally realigned the colors. When he handed other people the cube and they too had the same fascinated reaction, he realized he might have a toy puzzle on his hands that could really be worth some money. The Rubiks Cube Debuts in Stores In 1975, Rubik made an arrangement with the Hungarian toy-manufacturer Politechnika, who would mass produce the cube. In 1977, the multi-colored cube first appeared in toy stores in Budapest as the Bà ¼và ¶s Kocka (the Magic Cube). Although the Magic Cube was a success in Hungary, getting Hungarys Communist leadership to agree to allow the Magic Cube out to the rest of the world was a bit of a challenge. By 1979, Hungary agreed to share the cube and Rubik signed with the Ideal Toy Corporation. As Ideal Toys prepared to market the Magic Cube to the West, they decided to rename the cube. After considering several names, they settled on calling the toy puzzle Rubiks Cube. The first Rubiks Cubes appeared in Western stores in 1980. A World Obsession Rubiks Cubes instantaneously became an international sensation. Everyone wanted one. It appealed to youngsters as well as adults. There was something  about the little cube that captured everyones full attention. The first produced Rubiks Cube had six sides,  each a different color (traditionally blue, green, orange, red, white, and yellow). Each side had nine squares, in a three by three grid pattern. Of the 54 squares on the cube, 48 of them could move (the centers on each side were stationary). Rubiks Cubes were simple, elegant, and surprisingly difficult to solve. By 1982, more than 100 million Rubiks Cubes had been sold and most had yet to be solved. Solving the Rubiks Cube While millions of people were stumped, frustrated, and yet still obsessed with their Rubiks Cubes, rumors began to circulate as to how to solve the puzzle. With more than 43 quintillion possible configurations (43,252,003,274,489,856,000 to be exact), hearing that the stationary pieces are the starting point for the solution or solve one side at a time just was not enough information for the layman to solve the Rubiks Cube. In response to the massive demands by the public for a solution, several dozen books were published in the early 1980s, each spouting easy ways to solve your Rubiks Cube. While some Rubiks Cube owners were so frustrated that they began smashing open their cubes for a peek inside (they hoped to discover some inner secret that would help them solve the puzzle), other Rubiks Cube owners were setting speed records. Starting in 1982, the first annual International Rubiks Championships were held in Budapest, where people competed to see who could solve the Rubiks Cube the fastest. Now helad all ove the world, these competitions are places for cubers to show off their speed cubing. In 2018, the current world record was set at 3.47 seconds, held by Yusheng Du of China. An Icon Whether a Rubiks Cube fan was a self-solver, speed-cuber, or a smasher, they had all become obsessed with the small, simple-looking puzzle. During the height of its popularity, Rubiks Cubes could be found everywhere—at school, on buses, in movie theaters, and even at work.  The design and colors of Rubiks Cubes also appeared on t-shirts, posters, and board games. In 1983, Rubiks Cube even had its own television show, called Rubik, the Amazing Cube. In this kids show, a talking, flying Rubiks Cube worked with the aid of three children to foil the evil plans of the shows villain. Mathematicians have tried to determine how many moves are needed to solve a completely jumbled up cube: in 2008, it was announced as 22, but the computations to get there took decades of processor time. In 2019, Chinese topologists reported a way to map the mechanism—results that may have implications in other multi-structure mechanisms from laser printing to deep space exploration aircraft. To date, more than 300 million Rubiks Cubes have been sold, making it one of the most popular toys of the 20th century. Sources and Further Information Palmer, Jason. Cracking the Last Mystery of the Rubiks Cube. New Scientist 199.2668 (2008): 40–43. Print.Spatial Logical Toy. USA Patent 4378116A, Ernà ¶ Rubik, held by Politechnika Ibara Szovetkezet. Expired September 11, 2019. Zeng, Daxing, et al. Analysis of Structural Composition and Representation of Topological Structures of Rubiks Cube Mechanism. Mechanism and Machine Theory 136 (2019): 86–104. Print.