3. Consider the following second order differential equation: If we let u y andv-y then express the second order differ...
Question 3 (1 mark) Attempt 1 Consider the following second order differential equation: 2 6 d2y +4 dr2 If we let u y and v y' then as an AUTONOMOUS first order system, the second order differential equation is correctly expressed as: dy d.r -y 1+112, with y(1) 9 and y'(1)5 d.r du 6 А dt1, to)1, dtv, u(to)=9, -1+11r2+2u-4v2, v(to)=5. du 6 B dry )9, ar=1+112+y-4(y), v(1)5 du d.r dt du C 1, (1) 0, =v, u(1)=9, -1+11r2+u-4v2, v(1)=5...
3. (a) Express the following ordinary differential equation and initial conditions as an autonomous system of first order equations: 2"-223z = 2, '(0)= 1 z(0) 0, (b) Consider the following second order explicit Runge-Kutta scheme written in au- tonomous vector form (y' = f(y)): hf (ynk kihf (yn), k2 yn+1 ynk2. IT Use the second order explicit Runge-Kutta scheme with steplength h compute approximations to z(0.1) and z'(0.1) 0.1 to _ 3. (a) Express the following ordinary differential equation and...
A SYSTEM MODELED WITH THE SECOND ORDER DIFFERENTIAL EQUATION PRESENTS THE FOLLOWING RESPONSE TO ZERO STATE y(t) = u(t) eatcos(wt)u(t) a,uweR WHEN ENTRANCE IS A UNITARY STAGE (u(t)). SHOWS THAT THE RESPONSE TO IMPULSE IS e-at sen(wt)u(t) a,wE R y(t)aeacos(wt)u(t) +we' A SYSTEM MODELED WITH THE SECOND ORDER DIFFERENTIAL EQUATION PRESENTS THE FOLLOWING RESPONSE TO ZERO STATE y(t) = u(t) eatcos(wt)u(t) a,uweR WHEN ENTRANCE IS A UNITARY STAGE (u(t)). SHOWS THAT THE RESPONSE TO IMPULSE IS e-at sen(wt)u(t) a,wE R...
An autonomous system of two first order differential equations can be written as: A third order explicit Runge-Kutta scheme for an autonomous system of two first order equations is Consider the following second order differential equation, Use the Runge-Kutta scheme to find an approximate solutions of the second order differential equation, at t = 1.2, if the step size h = 0.1. Maintain at least eight decimal digit accuracy throughout all your calculations. You may express your answer as a...
Consider the nonlinear second-order differential equation x4 3(x')2 + k2x2 - 1 = 0, _ where k > 0 is a constant. Answer to the following questions. (a) Derive a plane autonomous system from the given equation and find all the critical points (b) Classify(discriminate/categorize) all the critical points into one of the three cat- egories: stable / saddle unstable(not saddle)} (c) Show that there is no periodic solution in a simply connected region {(r, y) R2< 0} R =...
Consider the nonlinear second-order differential equation where k > 0 is a constant. Answer to the following questions (a) Derive a plane autonomous system from the given equation and find all the critical points (b) Classify(discriminate/categorize) all the critical points into one of the three cat- egories: {stable / saddle / unstable(not saddle)) (c) Show that there is no periodic solution in a simply connected region (Hint: Use the corollary to Theorem 11.5.1) Consider the nonlinear second-order differential equation where...
An autonomous system of two first order differential equations can be written as: A third order explicit Runge-Kutta scheme for an autonomous system of two first order equations is hg(un,vn), 63-hf(un+2k2-k㎶n +212-11), 13 hg(un+2k2-ki,un +212-4), t-4 Consider the following second order differential equation, +2dy-7y2-12, with y(0)= 4 and y'(0)=0. dt2 dt Use the Runge-Kutta scheme to find an approximate solution of the second order differential equation, at t = 0.1, if the step size h = 0.05 Maintain at least...
A system of two first order differential equations can be written as: A second order explicit Runge-Kutta scheme for the system of two first order equations is Consider the following second order differential equation: Use the Runge-kutta scheme to find an approximate solution of the second order differential equation, at x = 0.2, if the step size h = 0.1. Maintain at least eight decimal digit accuracy throughout all your calculations. You may express your answer as a five decimal...
[Reduction of Order] Explain how a second order differential equation t^(2)y′′ + bty′ + ct^(3)y = f can be converted into a first order system, and the Euler method for that system.
Find a first-order system of ordinary differential equations equivalent to the second-order nonlinear ordinary differential equation y ^-- = 3y 0 + (y 3 − y) (3 points) Find a first-order system of ordinary differential equations equivalent to the second-order nonlinear ordinary differential equation y" = 3y' +(y3 – y).