1.99 See Answer

Question: We arrived at Formula 6.3.2, /

We arrived at Formula 6.3.2, / by using cylindrical shells, but now we can use integration by parts to prove it using the slicing method of Section 6.2, at least
We arrived at Formula 6.3.2, / by using cylindrical shells, but now we can use integration by parts to prove it using the slicing method of Section 6.2, at least


for the case where f is one­ to­ one and therefore has an inverse function t. Use the figure to show that
Make the substitution y = f(x) and then use integration by parts on the resulting integral to prove that

for the case where f is one­ to­ one and therefore has an inverse function t. Use the figure to show that
We arrived at Formula 6.3.2, / by using cylindrical shells, but now we can use integration by parts to prove it using the slicing method of Section 6.2, at least


for the case where f is one­ to­ one and therefore has an inverse function t. Use the figure to show that
Make the substitution y = f(x) and then use integration by parts on the resulting integral to prove that

Make the substitution y = f(x) and then use integration by parts on the resulting integral to prove that
We arrived at Formula 6.3.2, / by using cylindrical shells, but now we can use integration by parts to prove it using the slicing method of Section 6.2, at least


for the case where f is one­ to­ one and therefore has an inverse function t. Use the figure to show that
Make the substitution y = f(x) and then use integration by parts on the resulting integral to prove that





Transcribed Image Text:

V = 2xf(x) dx, yイ x= g(y) y= f(x) d x=b x= a a b V = mb’d – wa’c - [' "[g(y)l²dy


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1.99

See Answer