For ∫(2x+1)e^(3x) dx, take u = 2x+1 and dv = e^(3x) dx. Which choice of v has derivative e^(3x)?
Which equation is the integration by parts formula?
For x > 0, which split turns ∫x² ln x dx into a product minus a power integral containing no logarithm?
For ∫x e^x dx, which split lowers the polynomial degree and uses a known exponential antiderivative for v?
Using radians, let I = ∫e^(2x)sin x dx and J = ∫e^(2x)cos x dx. Parts gives I = e^(2x)sin x/2-J/2. Which second relation follows by taking u = cos x in J? Relations are up to constants.
Using radians, let I = ∫e^x cos x dx. Two parts applications give I = e^x(cos x+sin x)-I, up to a constant. Which step isolates I?
Using radians, what is ∫x cos x dx?
Let f have a continuous derivative on [0,2], with f(0) = 3, f(2) = 4 and ∫ from 0 to 2 of f(x) dx = 5. Find ∫ from 0 to 2 of (2x+1)f'(x) dx.
Using the polynomial as u and dv = e^x dx each round, how many parts applications reduce ∫x²e^x dx to a plain exponential integral?
For x > 0, what is ∫(ln x)² dx after repeated integration by parts?