
Matlab code
function second_order_ode2
t=0:0.001:30;
initial_x=0;
initial_dxdt=0;
[t,x]=ode45(@rhs,t,[initial_x initial_dxdt]);
plot(t,x(:,1))
xlabel('t')
ylabel('x')
function dxdt=rhs(t,x)
dxdt_1=x(2);
dxdt_2=(-50*x(2)+61.25+((1-cos(4*pi*10*t))/2).*(47380*x(1).^3-7428*x(1).^2+366*x(1)-7));
dxdt=[dxdt_1;dxdt_2];
end
end
Output

Warning: Failure at t=2.606178e-01. Unable to meet integration
tolerances without reducing the step size below the smallest
value allowed (8.881784e-16) at time t.
This ODE is most likely encountering a singularity.that could i see at least,maybe piecewise integration will do..but finding the singularity the hard part,and Matlab has difficulty to find it
I'm trying to solve this differential equations by using matlab. But I don't know the reason why I can't ge...
I'm
trying to solve this problem by using matlab. But I don't know
reason why I can't get the solutions. I wanna get a plot of this
differential equation. Please find a way how to solve this problem.
May there're errors in the code. Please check it.
second-oder-ode2.m x 曱function, second-oder-ode2 t=0:0.001 :30; initial-× = 0; in i t i al-dxdt 0; lt,影=ode45( @rhs, t. [initial.x initial-dxdt ] ); plot( (:, 1) ) ; xlabel( 't); ylabel(): function dxdt=rhs( t,...
I'm
trying to solve this differential equations by using matlab and
I've got a plot from the code attached. But I wanna get a plot of
completely sinusoidal form. If I can magnify the plot and expand
x-axis, maybe we can get the sinusoidal form. So help me with this
problem by using matlab. Example is attached in below. One is the
plot from this code and another is example.
function second_order_ode2
t=[0:0.001:1];
initial_x=0;
initial_dxdt=0;
[t,x]=ode45(@rhs,t,[initial_x initial_dxdt]);
plot(t,x(:,1))
xlabel('t')
ylabel('x')...
I'm
trying to solve this differential equations by using matlab and
I've got a plot from the code attached. But I wanna get a plot of
completely sinusoidal form. If I can magnify the plot and expand
x-axis, maybe we can get the sinusoidal form. So help me with this
problem by using matlab. Example is attached in below. One is the
plot from this code and another is example.
function second_order_ode2
t=[0:0.001:1];
initial_x=0;
initial_dxdt=0;
[t,x]=ode45(@rhs,t,[initial_x initial_dxdt]);
plot(t,x(:,1))
xlabel('t')
ylabel('x')...
I need the matlab codes for following question (1) (a). Solve the following second-order differential equations by a pair of first-order equations, xyʹʹ − yʹ − 8x3y3 = 0; with initial conditions y = 0.5 and yʹ = −0.5 at x = 1. (b). Solve the problem in part (a) above using MATLAB built-in functions ode23 and ode45, within the range of 1 to 4, and compare with the exact solution of y = 1/(1 + x2) [Hint: ode23 à...
write MATLAB scripts to solve differential equations.
Computing 1: ELE1053 Project 3E:Solving Differential Equations Project Principle Objective: Write MATLAB scripts to solve differential equations. Implementation: MatLab is an ideal environment for solving differential equations. Differential equations are a vital tool used by engineers to model, study and make predictions about the behavior of complex systems. It not only allows you to solve complex equations and systems of equations it also allows you to easily present the solutions in graphical form....