Chapter 5: Q13E (page 304)
Redo Problem 12 with F = 0.31. What kind of behavior does the solution exhibit?
Short Answer
By using the software, the Poincare maps are plotted and it shows chaotic behavior.
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Chapter 5: Q13E (page 304)
Redo Problem 12 with F = 0.31. What kind of behavior does the solution exhibit?
By using the software, the Poincare maps are plotted and it shows chaotic behavior.
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In Problems 3 – 18, use the elimination method to find a general solution for the given linear system, where differentiation is with respect to t.
In Problems 19 – 21, solve the given initial value problem.
The doubling modulo \({\bf{1}}\) map defined by the equation \(\left( {\bf{9}} \right)\)exhibits some fascinating behavior. Compute the sequence obtained when
Numbers of the form \({\bf{k/}}{{\bf{2}}^{\bf{j}}}\) are called dyadic numbers and are dense in \(\left( {{\bf{0,1}}} \right){\bf{.}}\)That is, there is a dyadic number arbitrarily close to any real number (rational or irrational).
In Problems 15–18, find all critical points for the given system. Then use a software package to sketch the direction field in the phase plane and from this description the stability of the critical points (i.e., compare with Figure 5.12).
Show that the operator (D-1)(D+2) is the same as the operator .
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