In each of Problems
(a) Determine all critical points of the given system of equations.
(b) Find the corresponding linear system near each critical point.
(c) Find the eigenvalues of each linear system. What conclusions can you then draw about the nonlinear system?
(d) Draw a phase portrait of the nonlinear system to confirm your conclusions, or to extend them in those cases where the linear system does not provide definite information about the nonlinear system.
(e) Draw a sketch of, or describe in words, the basin of attraction of each asymptotically stable critical point.
Want to see the full answer?
Check out a sample textbook solutionChapter 7 Solutions
Differential Equations: An Introduction to Modern Methods and Applications
Additional Math Textbook Solutions
A Problem Solving Approach to Mathematics for Elementary School Teachers (12th Edition)
Calculus for Business, Economics, Life Sciences, and Social Sciences (14th Edition)
The Heart of Mathematics: An Invitation to Effective Thinking
Finite Mathematics & Its Applications (12th Edition)
Mathematics with Applications In the Management, Natural, and Social Sciences (12th Edition)
Mathematical Methods in the Physical Sciences
- 4. Solve the system dt -1 with a1 (0) = 1 and 2(0) = -1.arrow_forward(3.3) Find the fixed points of the following dynamical system: -+v +v, v= 0+v? +1, and examine their stability.arrow_forwardConsider the following system of coupled second-order equations, x + 4x1 = x2 x2 + 4x2 0. Re-write this system of second order equations as a system of first order equations. Compute the solution for the initial condition x1(0) = 1, x1(0) = 0, x2(0) compute the (complex) Jordan normal form for the system. Note: you should find that the solution grows linearly in time which is indicative of a resonance in the system. = 1, x2(0) 0. Thenarrow_forward
- Please help with my homeworkarrow_forwardIn each of Problems 5 and 6 the coefficient matrix has a zero eigenvalue. As a result, the pattern of trajectories is different from those in the examples in the text. For each system: Ga. Draw a direction field. b. Find the general solution of the given system of equations. G c. Draw a few of the trajectories. 4 -3 8 -6 5. x' = Xarrow_forward1. For the system below, find the general solution, sketch the trajectories, being careful to include the eigenvector directions, and classify the type of fixed point: x = x, ÿ y = 2x - 5y.arrow_forward
- Need Handwritten SOLUTION.Need Solution in 30 Minutes .Solve Q2 only .Thankyou!!arrow_forwardFor the following systems, the origin is the equilibrium point. 3. a) Write each system in matrix form b) Determine the eigenvalues of A. c) State whether the origin is a stable or unstable equilibrium. d) State whether the origin is a node, saddle point, spiral point, or center. dx dt e) State the equations of the straight-line trajectories and tell whether they are going towards or away from the origin. If none exist, state so. dx dt dy dt = Ax. f) If A has real eigenvalues, then determine the eigenvectors and use diagonalization to solve the system. (See examples in Section 7.4) = 4x - 13y = 2x - 6yarrow_forwardApply the eigenvalue method of this section to find a general solution of the given system. If initial values are given, use graphing calculator to construct a typical solution curves for the given system. x = 9x1 + 5x2 х 3 — 6х1 — 2х2 X1 (0) = 1, x2(0) = 0arrow_forward
- Linear Algebra: A Modern IntroductionAlgebraISBN:9781285463247Author:David PoolePublisher:Cengage Learning