Chapter 6: Problem 7
In Exercises \(7-12,\) use differentiation to verify the antiderivative formula. $$\int \csc ^{2} u d u=-\cot u+C$$
Chapter 6: Problem 7
In Exercises \(7-12,\) use differentiation to verify the antiderivative formula. $$\int \csc ^{2} u d u=-\cot u+C$$
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Get started for freeIn Exercises \(29-32,\) solve the differential equation. $$\frac{d y}{d x}=x^{2} e^{4 x}$$
Integral Tables Antiderivatives of various generic functions can be found as formulas in integral tables. See if you can derive the formulas that would appear in an integral table for the fol- lowing functions. (Here, \(a\) is an arbitrary constant.) See below. (a) \(\int \frac{d x}{a^{2}+x^{2}} \quad\) (b) \(\int \frac{d x}{a^{2}-x^{2}} \quad\) (c) \(\int \frac{d x}{(a+x)^{2}}\)
Multiple Choice \(\int \tan x d x=\) (A) \(\frac{\tan ^{2} x}{2}+C\) (B) \(\ln |\cot x|+C\) (C) \(\ln |\cos x|+C\) (D) \(-\ln |\cos x|+C\) (E) \(-\ln |\cot x|+C\)
In Exercises \(53-66,\) make a \(u\) -substitution and integrate from \(u(a)\) to \(u(b) .\) $$\int_{-1}^{1} \frac{5 r}{\left(4+r^{2}\right)^{2}} d r$$
In Exercises \(25-46,\) use substitution to evaluate the integral. $$\int 3(\sin x)^{-2} d x$$
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