A.) State Product Rule, Quotient Rule, and
Chain Rule.
B.) Prove Power Rule
C.) Prove Product rule:
-By definition of derivative
-By implicit differentiation
D.) Prove the Quotient Rule
-By definition of derivative
-By implicit differentiation
-By product rule and chain rule
Use the trapezoid rule, midpoint rule, and Simpson’s rule to
approximate the given integrals with the given values of n.
?) ∫ ? ? / 1+? 2 ?? (from 0 to 2) ? = 10
?) ∫ √??? ?? (from 1 to 4) ? = 6
Use (a) the Trapezoidal Rule, (b) the Midpoint Rule, and (c)
Simpson’s Rule to approximate the given integral with the specific
value of n. (Round your answer to six decimal
places).
∫13 sin (?) / ? ?? , ? = 4
Please show all work.
Briefly compare and contrast Trapezoid Rule and Simpson’s Rule.
Talk about the ways in which they are conceptually similar, and
important ways in which they differ. Use the error bound formulas
(found in the notes, and on the practice final exam) to show that
the error in using these formulas must approach zero as h (the
distance between adjacent nodes) approaches zero.
Q1- Out of Trapezoidal rule and Simpson’s 1/3rd rule which one
is better explain in detail. Also solve one application based
problem using that rule. Compare the exact and approximate result
to compute the relative errore.
MATH505 – NUMERICAL METHODS AND ANALYSIS
6. Out of Trapezoidal rule and Simpson’s 1/3rd rule which one
is better explain in detail. Also solve one application based
problem using that rule. Compare the exact and approximate result
to compute the relative error.
Use Simpson’s Rule with n = 4 to approximate the value of the
definite integral ∫4 0 e^(−x^2) dx. (upper is 4, lower is 0)
Compute the following integrals (you may need to use Integration
by Substitution):
(a) ∫ 1 −1 (2xe^x^2) dx (upper is 1, lower is -1)
(b) ∫ (((x^2) − 1)((x^3) − 3x)^4)dx