The general antiderivative of cosx is sinx+C, and the general antiderivative of ex is ex+C. In both cases, C represents an arbitrary constant, indicating that any vertical shift of these base functions is also a valid antiderivative.
Conditions: The variable is x.; The domain is all real numbers (or a connected interval thereof).
The general antiderivative of cosx is sinx+C, and the general antiderivative of ex is ex+C. In both cases, C represents an arbitrary constant, indicating that any vertical shift of these base functions is also a valid antiderivative.
Conditions: The variable is x.; The domain is all real numbers (or a connected interval thereof).
The final antiderivative is 2ex(sinx+cosx)+C. This result is obtained by solving the algebraic equation formed when the original integral reappears after two rounds of integration by parts.
Conditions: The function integrated is excosx.; The constant of integration C is included.; The algebraic solution for the recurring integral is correct.
The final antiderivative is 2ex(sinx+cosx)+C. This result is obtained by solving the algebraic equation formed when the original integral reappears after two rounds of integration by parts.
Conditions: The function integrated is excosx.; The constant of integration C is included.; The algebraic solution for the recurring integral is correct.
Treat the recurring integral as an algebraic variable (e.g., I). Move the term containing I from the right-hand side to the left-hand side by adding it to both sides.
Conditions: The integral I appears on both sides of the equation.; The coefficient of I on the right side is −1 (or another constant).; Algebraic manipulation is permitted.
Treat the recurring integral as an algebraic variable (e.g., I). Move the term containing I from the right-hand side to the left-hand side by adding it to both sides.
Conditions: The integral I appears on both sides of the equation.; The coefficient of I on the right side is −1 (or another constant).; Algebraic manipulation is permitted.