We prove that under certain conditions, the Lorenz equations support a form of chaos. The conditions have been verified for a particular set of parameter values, showing that there is a natural 1:1 correspondence between a set of solutions and the set of all sequences on countably many symbols. The
A Shooting Approach to Layers and Chaos in a Forced Duffing Equation
β Scribed by Shangbing Ai; Stuart P Hastings
- Publisher
- Elsevier Science
- Year
- 2002
- Tongue
- English
- Weight
- 560 KB
- Volume
- 185
- Category
- Article
- ISSN
- 0022-0396
No coin nor oath required. For personal study only.
β¦ Synopsis
We study equilibrium solutions for the problem
Using a shooting method we find solutions for all nonzero e: For small e we add to the solutions found by previous authors, especially Angenent, Mallet-Paret and Peletier, and Hale and Sakamoto, and also give new elementary ode proofs of their results. Among the new results is the existence of internal layer-type solutions. Considering the ode satisfied by equilibria, but on an infinite interval, we obtain chaos results for l5l 0 ΒΌ 3 2 2=3 and 05e4 1 4 : We also consider the problem of bifurcation of solutions as l increases.
π SIMILAR VOLUMES
The authors regret that there were errors in the following equations and apologise for any confusion caused. The corrected versions of Eqs. ( 2), (3), ( 5)-( 7) and ( 9) follow.
## Abstract We suggest a new approach of reduction of the Neumann problem in acoustic scattering to a uniquely solvable Fredholm integral equation of the second kind with weakly singular kernel. To derive this equation we placed an additional boundary with an appropriate boundary condition inside t
The 'force-restore' approach is commonly used in order to calculate the surface temperature in atmospheric models. A critical point in this method is how to calculate the deep soil temperature which appears in the restore term of the 'force-restore' equation. If the prognostic equation for calculati