Integrals
(the database of solved problems)
All the problems and solutions shown below were generated using the Integral Calculator.
| ID |
Problem |
Count |
| 7051 | $$ $$ | 1 |
| 7052 | $$ $$ | 1 |
| 7053 | $$ $$ | 1 |
| 7054 | $$ $$ | 1 |
| 7055 | $$ $$ | 1 |
| 7056 | $$ $$ | 1 |
| 7057 | $$ $$ | 1 |
| 7058 | $$ $$ | 1 |
| 7059 | $$ $$ | 1 |
| 7060 | $$ $$ | 1 |
| 7061 | $$ $$ | 1 |
| 7062 | $$ $$ | 1 |
| 7063 | $$ $$ | 1 |
| 7064 | $$ $$ | 1 |
| 7065 | $$ $$ | 1 |
| 7066 | $$ $$ | 1 |
| 7067 | $$ $$ | 1 |
| 7068 | $$ $$ | 1 |
| 7069 | $$ $$ | 1 |
| 7070 | $$ $$ | 1 |
| 7071 | $$ $$ | 1 |
| 7072 | $$ $$ | 1 |
| 7073 | $$ \displaystyle\int 3{x}^{2}-{x}^{2}+4\, \mathrm d x $$ | 1 |
| 7074 | $$ \displaystyle\int {\mathrm{e}}^{x+{\mathrm{e}}^{x}}\, \mathrm d x $$ | 1 |
| 7075 | $$ \displaystyle\int^{0}_{2\pi} {\mathrm{e}}^{-x}{\cdot}\cos\left(n\right){\cdot}x\, \mathrm d x $$ | 1 |
| 7076 | $$ $$ | 1 |
| 7077 | $$ $$ | 1 |
| 7078 | $$ $$ | 1 |
| 7079 | $$ $$ | 1 |
| 7080 | $$ $$ | 1 |
| 7081 | $$ $$ | 1 |
| 7082 | $$ $$ | 1 |
| 7083 | $$ $$ | 1 |
| 7084 | $$ $$ | 1 |
| 7085 | $$ $$ | 1 |
| 7086 | $$ $$ | 1 |
| 7087 | $$ $$ | 1 |
| 7088 | $$ $$ | 1 |
| 7089 | $$ \displaystyle\int \dfrac{12}{3}\, \mathrm d x $$ | 1 |
| 7090 | $$ \displaystyle\int \dfrac{7}{\sqrt{x}}+7{\cdot}\sqrt{x}\, \mathrm d x $$ | 1 |
| 7091 | $$ \displaystyle\int {\mathrm{e}}^{{x}^{14}}\, \mathrm d x $$ | 1 |
| 7092 | $$ \displaystyle\int {x}^{13}{\cdot}{\mathrm{e}}^{{x}^{14}}\, \mathrm d x $$ | 1 |
| 7093 | $$ \displaystyle\int \dfrac{4{x}^{2}}{\sqrt{1-12{x}^{3}}}\, \mathrm d x $$ | 1 |
| 7094 | $$ \displaystyle\int \dfrac{{\left(\sqrt{x}-3\right)}^{5}}{2{\cdot}\sqrt{x}}\, \mathrm d x $$ | 1 |
| 7095 | $$ \displaystyle\int {\left({x}^{5}+{x}^{2}\right)}^{9}\, \mathrm d x $$ | 1 |
| 7096 | $$ \displaystyle\int \dfrac{1}{5x-2}\, \mathrm d x $$ | 1 |
| 7097 | $$ \displaystyle\int {x}^{4}{\cdot}{\left({x}^{5}+15\right)}^{3}\, \mathrm d x $$ | 1 |
| 7098 | $$ \displaystyle\int \cos\left(6x-5\right)\, \mathrm d x $$ | 1 |
| 7099 | $$ \displaystyle\int {x}^{2}{\cdot}{\mathrm{e}}^{{x}^{3+1}}\, \mathrm d x $$ | 1 |
| 7100 | $$ \displaystyle\int^{2}_{-1} {x}^{2}{\cdot}{\mathrm{e}}^{{x}^{3+1}}\, \mathrm d x $$ | 1 |
