Number and Algebra
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Geometry and Trigonometry
Statistics and Probability
Calculus
Use Euler's method with step length h=0.1h=0.1h=0.1 to approximate x(t)x(t)x(t) and x˙(t)\dot x(t)x˙(t) for the differential equation
given x(0)=4x(0)=4x(0)=4, x˙(0)=2\dot x(0)=2x˙(0)=2. Show only the first three iterations (up to t=0.3t=0.3t=0.3) and state your approximate values at t=0.3t=0.3t=0.3.
Use Euler's method with step length h=0.1h=0.1h=0.1 to approximate x(0.5)x(0.5)x(0.5) and x˙(0.5)\dot x(0.5)x˙(0.5) for the differential equation
given x(0)=4x(0)=4x(0)=4 and x˙(0)=2\dot x(0)=2x˙(0)=2.
Derive the general Euler iteration formulas for a second order ODE
by converting it into a system of first order equations. Then specify these formulas for f(t,x,y)=2x−y+t2f(t,x,y)=2x-y+t^2f(t,x,y)=2x−y+t2.
Use Euler's method with step length h=0.2h=0.2h=0.2 to approximate x(1.0)x(1.0)x(1.0) and x˙(1.0)\dot x(1.0)x˙(1.0) for the differential equation
Use Euler's method with step length h=0.25h=0.25h=0.25 to approximate x(1.25)x(1.25)x(1.25) and x˙(1.25)\dot x(1.25)x˙(1.25) for the differential equation
Outline an algorithm to approximate x(2.5)x(2.5)x(2.5) and x˙(2.5)\dot x(2.5)x˙(2.5) using Euler's method with h=0.1h=0.1h=0.1 for the equation
given x(0)=4x(0)=4x(0)=4, x˙(0)=2\dot x(0)=2x˙(0)=2. State how many steps are required and how you would implement the iteration in a spreadsheet or program.
Use Euler's method with step length h=0.3h=0.3h=0.3 to approximate x(1.5)x(1.5)x(1.5) and x˙(1.5)\dot x(1.5)x˙(1.5) for the differential equation
Use Euler's method with step length h=0.4h=0.4h=0.4 to approximate x(2.0)x(2.0)x(2.0) and x˙(2.0)\dot x(2.0)x˙(2.0) for the differential equation
Use Euler's method with step length h=0.5h=0.5h=0.5 to approximate x(2.5)x(2.5)x(2.5) and x˙(2.5)\dot x(2.5)x˙(2.5) for the differential equation
given x(0)=4x(0)=4x(0)=4 and x˙(0)=2\dot x(0)=2x˙(0)=2. Then comment on the qualitative behaviour of the approximate solution as ttt increases.
Apply Euler's method with h=0.5h=0.5h=0.5 to approximate x(t)x(t)x(t) and x˙(t)\dot x(t)x˙(t) at t=2.5t=2.5t=2.5 for the differential equation
given x(0)=4x(0)=4x(0)=4 and x˙(0)=2\dot x(0)=2x˙(0)=2. Present your results in a table with columns tnt_ntn, xnx_nxn, x˙n\dot x_nx˙n.
Compare the approximations of x(0.5)x(0.5)x(0.5) and x˙(0.5)\dot x(0.5)x˙(0.5) obtained by Euler's method with step sizes h=0.1h=0.1h=0.1 and h=0.25h=0.25h=0.25 for the differential equation
given x(0)=4x(0)=4x(0)=4 and x˙(0)=2\dot x(0)=2x˙(0)=2. Discuss how the step size affects the numerical accuracy.
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Question Type 1: Converting a second order differential equation into a system of first order differential equations
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