Dear student, In the second equation it will be y'=-y, otherwise
there will be no bifurcation. It would be a typo. However, I have
corrected this fault in my solution.![x = px - x² = forsy) y =-y = grzey) equilibrium point xzo y=0 Maxx=0 y=0 So points are coo) and (eo) At (oo) [J]co,0) = Tue](http://img.homeworklib.com/questions/f58c5810-c294-11ea-85b4-1bfa4b98901e.png?x-oss-process=image/resize,w_560)




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sketch phase lines for: dy/dt = y(y+3)^3(y-2)^2(y-5) sketch bifurcation diagram for: dy/dt = y(y^2+ α) where α is a parameter
2. (2 pts) Determine the type of the critical point (0,0) for the system x' =-7x+ 5y, y' =-6x 4y. Sketch a phase portrait based on the eigenvectors, and the direction that the sign of the eigenvalue indicates.
2. (2 pts) Determine the type of the critical point (0,0) for the system x' =-7x+ 5y, y' =-6x 4y. Sketch a phase portrait based on the eigenvectors, and the direction that the sign of the eigenvalue indicates.
Classify bifurcations for the system x '= a(1 − x) − xy^2 , y' = xy^2 − (a + k)y, where a > 0 and k > 0 are parameters, and sketch the bifurcation curve in the a − k space.
Problem 2: Consider the DE y = f(y) = y® – 2y + H, where is a real parameter. (i) Give the steady state(s) and determine their stability. There will be different cases, depending on . Draw the phase-line diagram for each case. What is the critical value of where the bifurcation happens? (ii) Draw a bifurcation diagram, indicating stable states with solid curves and unstable states with dashed curves.
Problem 5: For the following transfer functions, sketch the bode asymptotic magnitude and phase plots, find the Gain margin and Phase margin, find the system type and the corresponding error constant for each case. G(A) (s +3)(s +5) s(s +2) (s+4) S+5 2)b).
Problem 5: For the following transfer functions, sketch the bode asymptotic magnitude and phase plots, find the Gain margin and Phase margin, find the system type and the corresponding error constant for each case. G(A) (s +3)(s...
Converting to linear system for three different cases: ii) y 0 For each cases provide general solutions, the phase portrait and the value of gamma at which there is a bifurcation,
Converting to linear system for three different cases: ii) y 0 For each cases provide general solutions, the phase portrait and the value of gamma at which there is a bifurcation,
Determine the phase in a system consisting of water at the following conditions and sketch P–v and T–v diagrams showing the location of each state (show the saturation dome and the relevant constant-pressure and constant-temperature lines). Also, find the value of the internal energy and the enthalpy for each state. a) P = 15 kPa and x = 0.8. b) T = 50 C and P = 20 MPa. c) T = 600 C and P = 10 MPa. d)...
1. For each of the following systems, sketch the x- and y-nullclines and use this information to determine the nature of the phase portrait. You may assume that these systems are defined only for x,y 20. x' = x(y + 2x-2), y' = y(y-1 ) (a)
1. For each of the following systems, sketch the x- and y-nullclines and use this information to determine the nature of the phase portrait. You may assume that these systems are defined only for...
1. For each of the following systems, sketch the x- and y-nullclines and use this information to determine the nature of the phase portrait. You may assume that these systems are defined only for x,y 20. (b) x' = x(y + 2x-2), y' = y(y + x-3)
1. For each of the following systems, sketch the x- and y-nullclines and use this information to determine the nature of the phase portrait. You may assume that these systems are defined only...
#19 all parts
Problems 17 through 19 deal with competitive systems much like those in Examples 1 and 2 except that some coefficients depend on a parameter a. In each of these problems, assume that x, y, and a are always nonnegative. In each of Problems 17 through 19: (a) Sketch the nullclines in the first quadrant, as in Figure 9.4.5. For different ranges of a your sketch may resemble different parts of Figure 9.4.5 (b) Find the critical points...