| $\int\sin(u)\;du=-\cos(u)$ |
| $\int\cos(u)\;du=\sin(u)$ |
| $\int\tan(u)\;du=\ln(\operatorname{sec}(u))=-\ln(\cos(u))$ |
| $\int\cot(u)\;du=\ln(\sin(u))$ |
| $\int \operatorname{sec}(u)\;du=\ln(\operatorname{sec}(u)+\tan(u))=\ln \left(\tan \left(\frac{u}{2}+\frac{\pi}{4}\right)\right)$ |
| $\int \operatorname{csc}(u)\;du=\ln \left(\operatorname{csc}(u)-\cot(u)\right)=\ln(\tan(\frac{u}{2}))$ |
| $\int \operatorname{sec}^2(u)\;du=\tan(u)$ |
| $\int \operatorname{csc}^2(u)\;du=-\cot(u)$ |
| $\int \tan^2(u)\;du=\tan(u)-u$ |
| $\int \cot^2(u)\;du=-\cot(u)-u$ |
| $\int \sin^2(u)\;du=\frac{u}{2}-\frac{\sin(2u)}{4}=\frac{1}{2}\left(u-\sin(u)·\cos(u)\right)$ |
| $\int \cos^2(u)\;du=\frac{u}{2}+\frac{\sin(2u)}{4}=\frac{1}{2}\left(u+\sin(u)·\cos(u)\right)$ |
| $\int \operatorname{sec}(u)·\tan(u)\;du=\operatorname{sec}(u)$ |
| $\int \operatorname{csc}(u)·\cot(u)\;du=-\operatorname{csc}(u)$ |
Se hyperbolske integraler (sinh, cosh, tanh, coth, sech, csch) her