Let p 1 ( x ) and p 2 ( x ) be the local linear and local quadratic approximates of f ( x ) = e sin x at x = 0. (a) Use a graphing utility to generate the graphs of f ( x ) , p 1 ( x ) , and p 2 ( x ) , on the same screen for − 1 ≤ x ≤ 1. (b) Construct a table of values of f ( x ) , p 1 ( x ) , and p 2 ( x ) for x = − 1.00 , − 0.75 , − 0.50 − 0.25 , 0 , 0.25 , 0.50 , 0.75 , 1.00. Round the values to three decimal places. (c) Generate the graph of f ( x ) − p 1 ( x ) , and use the graph to determine an interval on which p 1 ( x ) approximates f ( x ) with an error of at most ± 0.01. [Suggestion Review the discussion to Figure 3.5.4.] (d) Generate the graph of f ( x ) − p 2 ( x ) , and use the graph to determine an interval on which p 2 ( x ) approximates f ( x ) with an error of at most ± 0.01.
Let p 1 ( x ) and p 2 ( x ) be the local linear and local quadratic approximates of f ( x ) = e sin x at x = 0. (a) Use a graphing utility to generate the graphs of f ( x ) , p 1 ( x ) , and p 2 ( x ) , on the same screen for − 1 ≤ x ≤ 1. (b) Construct a table of values of f ( x ) , p 1 ( x ) , and p 2 ( x ) for x = − 1.00 , − 0.75 , − 0.50 − 0.25 , 0 , 0.25 , 0.50 , 0.75 , 1.00. Round the values to three decimal places. (c) Generate the graph of f ( x ) − p 1 ( x ) , and use the graph to determine an interval on which p 1 ( x ) approximates f ( x ) with an error of at most ± 0.01. [Suggestion Review the discussion to Figure 3.5.4.] (d) Generate the graph of f ( x ) − p 2 ( x ) , and use the graph to determine an interval on which p 2 ( x ) approximates f ( x ) with an error of at most ± 0.01.
Let
p
1
(
x
)
and
p
2
(
x
)
be the local linear and local quadratic approximates of
f
(
x
)
=
e
sin
x
at
x
=
0.
(a) Use a graphing utility to generate the graphs of
f
(
x
)
,
p
1
(
x
)
,
and
p
2
(
x
)
,
on the same screen for
−
1
≤
x
≤
1.
(b) Construct a table of values of
f
(
x
)
,
p
1
(
x
)
,
and
p
2
(
x
)
for
x
=
−
1.00
,
−
0.75
,
−
0.50
−
0.25
,
0
,
0.25
,
0.50
,
0.75
,
1.00.
Round the values to three decimal places.
(c) Generate the graph of
f
(
x
)
−
p
1
(
x
)
,
and use the graph to determine an interval on which
p
1
(
x
)
approximates
f
(
x
)
with an error of at most
±
0.01.
[Suggestion Review the discussion to Figure 3.5.4.]
(d) Generate the graph of
f
(
x
)
−
p
2
(
x
)
,
and use the graph to determine an interval on which
p
2
(
x
)
approximates
f
(
x
)
with an error of at most
±
0.01.
Determine whether the pairs of the functions are linearly inde-pendent or linearly dependent on the real line.
f(x) = e^x sin(2πx), g(x) = e^x cos(2πx)
1.
Find the fixed point (s) of the function
g(x) = 3x²³-6x²-x+4
on the interval [0, 4].
(Answer: √2/3, 2.)
Let f(a, y) = 3x² + 4y2
– axy.
(a) Find the values of a such that the graph of f increases when moving from the point (1, 2)
in the positive x-direction.
(b) Find the values of a such that the graph of f increases when moving from the point (1, 2)
in the positive y-direction.
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