I see that usually, partial integration is taught with u, du, v and dv's.
Perhaps it also helps to see another way, by which I have always remembered it (of course, it's equivalent, but it may be easier for some).
In this case, partial integration is formulated
\int f' g dx = f g - \int f g' dx
which means
\int_a^b f'(x) g(x) dx = f(b) g(b) - f(a) g(a) - \int_a^b f(x) g'(x) dx.
Basically, all you have to do is find one function f' which is easy to integrate (or at least, you know you should be able to do it

). Then integrate it, multiply by the other one, and fill in the boundary. Write down a minus sign, integral, the integrated function f, differentiate the other one (which is usually the easy part) and close with dx.
Example:
\int_0^1 x dx = ?
by partial integration. Well, let's write the integrand trivially as 1 * x.
You can integrate 1 to x, and differentiate x to 1, then
\int_0^1 1 x dx = x^2|_0^1 - \int_0^1 x 1 dx.
Note how the second integral is the same as the first one, so we can take it to the other side:
2 \int_0^1 1 x dx = x^2|_0^1:
\int_0^1 1 x dx = \frac12 x^2|_0^1,
which of course you already knew.
All it now comes down to is to decide which function you will be integrating, and which one you will be differentiating. As a rule of thumb, always pick the easiest one for integrating, because integrating is hard and it's easier to differentiate something complicated than integrate it :)