Complexity in Systems

On the far left are fixed systems that remain unchanging.hand, a screen that is full of random static would be completely The relationships between their elements are always the chaotic, with the color of a dot at one moment having nothing same. The black, unchanging TV screen is a good image for this kind of system.

To the right of fixed systems in the chart are periodic ones. Periodic systems are simple systems that repeat the same patterns endlessly. The simple two-building version of the messenger system, where a single messenger oscillates back and forth, is a periodic system.

On the far right of the chart are chaotic systems. In a chaotic system, the elements are constantly in motion, but their states and relationships are random, like a TV screen full of static.

The final category is the one that interests us the most: complex systems. These systems are more complicated and unpredictable than a periodic system, but not so full of dynamic relationships that they end up as a chaotic haze of static.

Considering all of the possible kinds of systems that might exist, complex systems inhabit a narrow band. The conditions that allow a complex system to exist are something like the conditions that allow a planet to support life: among all of the planets that exist in the universe, only a small subset have the right combination of temperature, atmosphere, and chemical composition to allow life to emerge. What are the special conditions that allow systems to become complex, especially in the case of games?