For the following exercises, use the given information about the polynomial graph to write the equation.Degree 4. Roots of multiplicity 2 at x = 1/2 and roots of multiplicity 1 at x = 6 and x = −2. y-intercept at (0,18).
Find the Taylor polynomial of degree 2 centered at a = 1 for the
function f(x) = e^(2x) . Use Taylor’s Inequality to estimate the
accuracy of the approximation e^(2x) ≈ T2(x) when 0.7 ≤
x ≤ 1.3
Give an example of a function whose Taylor polynomial of degree
1 about x = 0 is closer to the values of the function for some
values of x than its Taylor polynomial of degree 2 about that
point.
Degree 5. Roots of multiplicity 2 at x = −3 and x = 2 and a root of multiplicity 1 at x=−2. y-intercept at (0, 4). For the above exercises, use the given information about the polynomial graph to write the equation.
Find a Formula for the degree 2 Taylor polynomial
T2(x,y) at (a,b)=(pi/2,0). Do not simplify your formula.
Use a 3d graphing tool to verify T2(x,y) does a good job of
approximating f(x,y) near (a,b)
D^2 (D + 1)y(t)= (D^2 +2)f(t)
a.) Find the characteristic polynomial, characteristic equation,
characteristic roots, and characteristic modes of the system.
b.) Find y_o(t), the zero-input component of response y(t) for
t>=0, if the the initial conditions are y_0 (0)
= 4, y_0' (0) = 3, and y_0'' (0) = -1
2.
a) Find Ts(x), the third degree Taylor polynomial about x -0,
for the function e2
b) Find a bound for the error in the interval [0, 1/2]
3. The following data is If all third order differences (not
divided differences) are 2, determine the coefficient of x in P(x).
prepared for a polynomial P of unknown degree P(x) 2 1 4
I need help with both. Thank you.