Use the Remainder Estimation Theorem to find an interval containing x = 0 over which f ( x ) can be approximated by p ( x ) to three decimal-place accuracy throughout the interval. Check your answer by graphing f ( x ) − p ( x ) over the interval you obtained. f ( x ) = ln (1 + x ) ; p ( x ) = x − x 2 2 + x 3 3
Use the Remainder Estimation Theorem to find an interval containing x = 0 over which f ( x ) can be approximated by p ( x ) to three decimal-place accuracy throughout the interval. Check your answer by graphing f ( x ) − p ( x ) over the interval you obtained. f ( x ) = ln (1 + x ) ; p ( x ) = x − x 2 2 + x 3 3
Use the Remainder Estimation Theorem to find an interval containing
x
=
0
over which
f
(
x
)
can be approximated by
p
(
x
)
to three decimal-place accuracy throughout the interval. Check your answer by graphing
f
(
x
)
−
p
(
x
)
over the interval you obtained.
f
(
x
)
=
ln
(1
+
x
)
;
p
(
x
)
=
x
−
x
2
2
+
x
3
3
For each given function f(x) find f'(x) using the rules learned in section 9.5.
1. f(x)=x32
32x
2. f(x)=7x+13
3. f(x) =
x4
4. f(x) = √√x³
5. f(x) = 3x²+
3
x2
Find:
lim x →-6 f (x)
limx-4 f (x)
lim x-1 f (x)
lim x →4 f (x)
(-6,3) •
(-1,5)
-8
-7
(-6,-2)
4+
(4,5)
(4,2) •
(-1,1)
-6
Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, calculus and related others by exploring similar questions and additional content below.
Fundamental Theorem of Calculus 1 | Geometric Idea + Chain Rule Example; Author: Dr. Trefor Bazett;https://www.youtube.com/watch?v=hAfpl8jLFOs;License: Standard YouTube License, CC-BY