Approximate the area under the curve y = 3 ln(x² + 20) from x = - 9 to z = - 1 with 4 sub- intervals using left endpoints L4, midpoints M4, and right endpoints R4. (a) L4 = (b) M4 : %3D (c) R4 %3D
Approximate the area under the curve y = 3 ln(x² + 20) from x = - 9 to z = - 1 with 4 sub- intervals using left endpoints L4, midpoints M4, and right endpoints R4. (a) L4 = (b) M4 : %3D (c) R4 %3D
Algebra & Trigonometry with Analytic Geometry
13th Edition
ISBN:9781133382119
Author:Swokowski
Publisher:Swokowski
Chapter7: Analytic Trigonometry
Section7.6: The Inverse Trigonometric Functions
Problem 91E
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![Approximate the area under the curve y = 3 ln(x² + 20) from æ
intervals using left endpoints L4, midpoints M4, and right endpoints R4.
= - 9 to z =
1 with 4 sub-
(a) L4 =
(b) M4
(c) R4
(d) Which answer best describes the approximate area under the curve of y = 3 ln(x? + 20) from
x = - 9 to a = - 1 as computed above?
O The midpoint rule should always be used to approximate area under the curve.
O Since the function y = 3 ln(x? + 20) from æ = - 9 to a = - 1 is increasing the left endpoint
rule will underestimate the area whereas the right endpoint rule will overestimate the area.
O Since the function y = 3 ln(x? + 20) from æ = - 9 to x = - 1 is decreasing the left endpoint
rule will overestimate the area whereas the right endpoint rule will underestimate the area.
O Since the function y = 3 ln(x? + 20) from æ = - 9 to a = - 1 is increasing the left endpoint
rule will overestimate the area whereas the right endpoint rule will underestimate the area.
O The function is neither increasing or decreasing so in general we can't make a conclusion regarding
an overestimate or underestimate.
Since the function y = 3 ln(a² + 20) from a = - 9 to a = - 1 is decreasing the left endpoint
rule will underestimate the area whereas the right endpoint rule will overestimate the area.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fec70a3af-7012-41b5-84d0-077491201fef%2Faf5c4a2c-ef62-4d93-a5cd-a97f9fb29f80%2Fyjv6nnl_processed.png&w=3840&q=75)
Transcribed Image Text:Approximate the area under the curve y = 3 ln(x² + 20) from æ
intervals using left endpoints L4, midpoints M4, and right endpoints R4.
= - 9 to z =
1 with 4 sub-
(a) L4 =
(b) M4
(c) R4
(d) Which answer best describes the approximate area under the curve of y = 3 ln(x? + 20) from
x = - 9 to a = - 1 as computed above?
O The midpoint rule should always be used to approximate area under the curve.
O Since the function y = 3 ln(x? + 20) from æ = - 9 to a = - 1 is increasing the left endpoint
rule will underestimate the area whereas the right endpoint rule will overestimate the area.
O Since the function y = 3 ln(x? + 20) from æ = - 9 to x = - 1 is decreasing the left endpoint
rule will overestimate the area whereas the right endpoint rule will underestimate the area.
O Since the function y = 3 ln(x? + 20) from æ = - 9 to a = - 1 is increasing the left endpoint
rule will overestimate the area whereas the right endpoint rule will underestimate the area.
O The function is neither increasing or decreasing so in general we can't make a conclusion regarding
an overestimate or underestimate.
Since the function y = 3 ln(a² + 20) from a = - 9 to a = - 1 is decreasing the left endpoint
rule will underestimate the area whereas the right endpoint rule will overestimate the area.
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