Estimating using a Taylor polynomial about , what is the least degree of the polynomial that assures an error smaller than ?Choose 1 answer:Choose 1 answer:(Choice A) A (Choice B) B (Choice C) C (Choice D) D
Question
Estimating using a Taylor polynomial about , what is the least degree of the polynomial that assures an error smaller than ?Choose 1 answer:Choose 1 answer:(Choice A) A (Choice B) B (Choice C) C (Choice D) D
Solution
I'm sorry, but your question seems to be incomplete. Could you please provide more details or context? For example, what function are we estimating using a Taylor polynomial? What is the value of the error we're trying to get smaller than? Once I have this information, I'll be able to help you better.
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4 Third order derivative.a. Use Taylor series to derive the truncation error of the approximationf′′′(x) ≈( −f(x − 2h) + 2f(x − h) − 2f(x + h) + f(x + 2h))/2h^3assuming f ∈ C^5.b. Explain why dividing by h produces no roundoff error if h = 2−k, k ∈ N.c. Assuming that built-in functions return exact answers but that addition/subtraction produce roundoff errors and that h = 2^−k, k ∈ Z, show that the roundoff error RE in computing this expression satisfies the bound |RE| ≤ (K1 + K2h)u/h^3 where K1, K2 depend on f and x. You may use using the bound |θn| <nu/ (1 − nu)d. Hence estimate, in terms of u, the optimal choice for h.
Compute the relative error in approximating with 4 and express the result as apercentage.© 4.024994e-4 © 4.024994 x 10-2 O 4.024994e7? © 4.024994 x 107!
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