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| | [[Image:Animated glider emblem.gif|thumb|right|Glider pattern]] | | [[Image:Animated glider emblem.gif|thumb|right|Glider pattern]] |
| − | '''Conway's game of life''' (abbreviated '''CGL''') deals with a cellular automaton game called ''Life'', which was meant to simulate the ecology of one-celled creatures. It was invented by [[John Conway]] in 1970. <ref>[http://www.math.com/students/wonders/life/life.html Wonders of Math]</ref> | + | '''Conway's Game of Life''' (abbreviated '''CGL''') deals with a cellular automation game called ''Life'', which was meant to simulate the ecology of one-celled creatures. It was invented by [[John Conway]] in 1970. <ref>[http://www.math.com/students/wonders/life/life.html Wonders of Math]</ref> |
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| | CGL is a simple game whereby random squares on a grid are filled. These are deemed to be "alive". Under a set rule based on the number of filled adjacent cells a [[Cell (mathematics)|cell]] either continues to live, dies, or is born. | | CGL is a simple game whereby random squares on a grid are filled. These are deemed to be "alive". Under a set rule based on the number of filled adjacent cells a [[Cell (mathematics)|cell]] either continues to live, dies, or is born. |
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| | Despite being based on simple rules the outcome cannot be estimated in advance, only by running the simulation can you get any results. Despite it being based on a random initial state possessing, patterns form very easily. One common pattern is the glider, a configuration of cells which can move an unlimited distance across the grid without interacting with other groups. | | Despite being based on simple rules the outcome cannot be estimated in advance, only by running the simulation can you get any results. Despite it being based on a random initial state possessing, patterns form very easily. One common pattern is the glider, a configuration of cells which can move an unlimited distance across the grid without interacting with other groups. |
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| − | CGL have become increasingly studied in ecology as it give an interesting perspective on the behaviouer of ecosystems. It is often cited as an example of how [[evolution]] can occur in that with a simple rules and random starting positions complex patterns can form. Nonetheless, CGL has failed to provide any evidence that the sort of large-scale evolution required for evolutionary theories of the origin of species: while simple patterns like gliders may arise, despite numerous attempts, CGL has failed to produce complex, self-perpetuating behavior on a large scale. | + | CGL have become increasingly studied in ecology as it gives an interesting perspective on the behavior of ecosystems. It is often cited as an example of how [[evolution]] can occur in that with a simple rules and random starting positions complex patterns can form. Nonetheless, CGL has failed to provide any evidence of large-scale evolution required for evolutionary theories of the origin of species: while simple patterns like gliders may arise, despite numerous attempts, CGL has failed to produce complex, self-perpetuating behaviors on a large scale. |
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| | In mathematics it is cited as an example of [[chaos]]. | | In mathematics it is cited as an example of [[chaos]]. |