I don’t think so. If you double the input of a linear system you just double the output. You don’t suddenly get extreme sensitivity to parameters.Benhur said:My question is whether some linear systems can also have chaotic behavior. It is possible?
Deterministic chaos in linear systems refers to a type of behavior observed in certain mathematical models and physical systems that appear to be random and unpredictable, but are actually governed by deterministic laws. This means that the future behavior of the system can be determined given its initial conditions, but the system may exhibit complex and erratic behavior over time.
Deterministic chaos is different from randomness in that it is not truly random. Randomness implies a lack of order or pattern, whereas deterministic chaos is characterized by a highly ordered and predictable system that exhibits seemingly random behavior. This behavior arises from the sensitivity of the system to initial conditions, also known as the butterfly effect.
One common example of deterministic chaos is the weather. While the overall behavior of the weather is governed by deterministic laws, small changes in initial conditions, such as temperature or wind speed, can lead to vastly different outcomes. Other examples include population dynamics, stock market fluctuations, and fluid flow.
While the behavior of deterministic chaos may appear unpredictable, it is still governed by deterministic laws and can potentially be predicted or controlled. However, the complexity and sensitivity of these systems can make it difficult to accurately predict or control their behavior, especially over longer periods of time.
Deterministic chaos has many practical applications in science and technology. It can help explain and predict complex phenomena in various fields, such as biology, economics, and physics. It is also used in fields such as cryptography and data encryption, where the chaotic behavior of systems can be harnessed for security purposes.