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  1. Other maps also reproduce this ratio, in this sense the Feigenbaum constant in bifurcation theory is analogous to π in geometry and e in calculus.[1]
  2. Unlike π, which nearly everyone is aware of, the Feigenbaum constant is far less known.[2]
  3. And the ratio between the values where the period doubles ends up approaching the Feigenbaum constant, approximately 4.669.[2]
  4. Pictures taken from the video I learnt about the Feigenbaum constant from.[3]
  5. It’s called the Feigenbaum constant, and it’s about 4.6692016.[4]
  6. For more than 30 years, Mitchell’s official position (obtained essentially on the basis of his Feigenbaum constant result) was as a professor at the Rockefeller University in New York City.[4]
  7. The Feigenbaum constant characterizes the geometric approach of the bifurcation parameter to its limiting value.[5]
  8. Amazingly, the Feigenbaum constant is ``universal (i.e., the same) for all 1-D Maps if has a single locally quadratic Maximum.[5]
  9. The Circle Map is not universal, and has a Feigenbaum constant of .[5]
  10. It is not known if the Feigenbaum constant is algebraic, or if it can be expressed in terms of other mathematical constants (Borwein and Bailey 2003, p. 53).[6]
  11. Amazingly, the Feigenbaum constant and associated reduction parameter are "universal" for all one-dimensional maps if has a single locally quadratic maximum.[6]
  12. The value of the Feigenbaum constant can be computed explicitly using functional group renormalization theory.[6]
  13. For a function of the form (1), the Feigenbaum constant for various is given in the following table (Briggs 1991, Briggs et al.[6]
  14. We can interpret from this constant that as we approach chaos each periodic region is smaller than the previous region by a factor of 4.669 (the Feigenbaum constant).[7]
  15. The plot above shows the source of the Feigenbaum constant, the red lines indicate where the logistic map bifurcates to a period 2, 4 and 8 orbit respectively.[7]
  16. As it was the first to be noticed and investigated, it was inevitably named before the second Feigenbaum constant was identified.[8]
  17. Following step-by-step its route to chaos through period doubling, Feigenbaum constant δ is calculated and its value is verified with noticeable accuracy.[9]
  18. This theory also states that the ratio of distance between two consecutive bifurcations is a constant, known as the Feigenbaum constant, found in a multitude of chaotic sys- tems.[10]
  19. The bifurcation logistic map is also plot- ted and the width of its tines is measured to calculate the second Feigenbaum constant.[10]
  20. Feigenbaum constants For definitions, see Eric Weisstein's MathWorld article: Feigenbaum Constant.[11]
  21. In my thesis (1996), I computed several of the Feigenbaum constants to 10s or even 100s of decimal places.[11]
  22. Does anyone know if there is a proof that the Feigenbaum constant is an irrational number.[12]
  23. This Feigenbaum constant is now regarded as being just as fundamental in nonlinear dynamics theory as the number Pi is to geometry (Peitgen et al., 1992).[13]
  24. Note that the ratio a n − 1 − a n − 2 a n − a n − 1 converges to the first Feigenbaum constant.[14]
  25. A mathematical constant that is one of the keystones of chaos theory has been named for him: the Feigenbaum constant.[15]
  26. In mathematics, specifically bifurcation theory, the Feigenbaum constants are two mathematical constants which both express ratios in a bifurcation diagram for a non-linear map.[16]
  27. Other maps also reproduce this ratio, in this sense the Feigenbaum constant in bifurcation theory is analogous to pi (π) in geometry and Euler's number e in calculus.[16]
  28. See Details in the Wikipedia article: Feigenbaum constant.[17]

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  • [{'LOWER': 'feigenbaum'}, {'LEMMA': 'constant'}]