The purpose of this exercise is to extend the power rule (Theorem 2.3.2 ) to any integer exponent. Let f x = x n , where n is any integer. If n > 0 , f ′ x = n x n − 1 by Theorem 2.3.2 . (a) Show that the conclusion of Theorem 2.3.2 holds in the case n = 0 . (b) Suppose that n < 0 and set m = − n so that f x = x n = x − m = 1 x m Use Definition 2.2.1 and Theorem 2.3.2 to show that d d x 1 x m = − m x m − 1 ⋅ 1 x 2 m and conclude that f ′ x = n x n − 1 .
The purpose of this exercise is to extend the power rule (Theorem 2.3.2 ) to any integer exponent. Let f x = x n , where n is any integer. If n > 0 , f ′ x = n x n − 1 by Theorem 2.3.2 . (a) Show that the conclusion of Theorem 2.3.2 holds in the case n = 0 . (b) Suppose that n < 0 and set m = − n so that f x = x n = x − m = 1 x m Use Definition 2.2.1 and Theorem 2.3.2 to show that d d x 1 x m = − m x m − 1 ⋅ 1 x 2 m and conclude that f ′ x = n x n − 1 .
The purpose of this exercise is to extend the power rule (Theorem
2.3.2
) to any integer exponent. Let
f
x
=
x
n
, where
n
is any integer. If
n
>
0
,
f
′
x
=
n
x
n
−
1
by Theorem
2.3.2
.
(a) Show that the conclusion of Theorem
2.3.2
holds in the case
n
=
0
.
(b) Suppose that
n
<
0
and set
m
=
−
n
so that
f
x
=
x
n
=
x
−
m
=
1
x
m
Use Definition
2.2.1
and Theorem
2.3.2
to show that
The graphs of the function F (left, in blue) and G (right, in red) are below. Answer the following questions.
F'(1)
G'(1)
F'(6)
G'(6)
1. One of the partial fractions for
2
4x²+x-9
x3+2x²-3x
2
x+1
a) x23 b) x 1½ c) x² d)
x-1
x
is
1. One of the partial fractions for
2
2
4x²+x-9
x3+2x²-3x
a) x3 b) x11 c) x² d) z
x-1
2. Identify the improper integral.
1 x
2 x
dx
a) 3x dx b) f² 3x dx
0 3-2x
0 3-2x
x
is
c) √2^:
4
√232x dx d) fo² 3x dx
1 1
0 3-2x
B. So eax dx converges to
if
:
a) O if a0 c) - 1½ ifa 0
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