Let's solve the trigonometric equation ( \sin^2(x) + \sin(x) = 0 ):
We notice that both terms have a common factor of sin(x), so we can factor out sin(x) from the equation:
( \sin(x) (\sin(x) + 1) = 0 )
Now, we have two possibilities:
1) ( \sin(x) = 0 )
This occurs when x is a multiple of π:
( x = n\pi ) where n is an integer.
2) ( \sin(x) + 1 = 0 )
This implies that ( \sin(x) = -1 ), which occurs when x is in the form:
( x = (2n+1) \frac{\pi}{2} ) where n is an integer.
Therefore, the solutions to the equation ( \sin^2(x) + \sin(x) = 0 ) are:
( x = n\pi ) and ( x = (2n+1) \frac{\pi}{2} ) where n is an integer.
Let's solve the trigonometric equation ( \sin^2(x) + \sin(x) = 0 ):
We notice that both terms have a common factor of sin(x), so we can factor out sin(x) from the equation:
( \sin(x) (\sin(x) + 1) = 0 )
Now, we have two possibilities:
1) ( \sin(x) = 0 )
This occurs when x is a multiple of π:
( x = n\pi ) where n is an integer.
2) ( \sin(x) + 1 = 0 )
This implies that ( \sin(x) = -1 ), which occurs when x is in the form:
( x = (2n+1) \frac{\pi}{2} ) where n is an integer.
Therefore, the solutions to the equation ( \sin^2(x) + \sin(x) = 0 ) are:
( x = n\pi ) and ( x = (2n+1) \frac{\pi}{2} ) where n is an integer.