To solve this trigonometric equation, we first need to rewrite it in terms of only one trigonometric function.
Using the double angle formula for sine:
sin(2x) = 2sinxcosx
Therefore, the equation becomes:
-\sqrt{3}cosx = 2sinxcosx - 5\pi
Combining like terms:
-\sqrt{3}cosx - 2sinxcosx = -5\pi
Factor out the common factor of cosx:
cosx(-\sqrt{3} - 2sinx) = -5\pi
Now, we have two possibilities:
Let's solve these two possibilities:
cosx = 0Since cosx = 0, x = nπ + (π/2) where n is an integer.
-\sqrt{3} - 2sinx = -5\piRearrange the equation:2sinx = 5pi + sqrt{3}
sinx = (5π + √3) / 2
x = arcsin((5π + √3) / 2)
So the solution to the trigonometric equation is:
x = nπ + (π/2) for n as an integer, and x = arcsin((5π + √3) / 2)
To solve this trigonometric equation, we first need to rewrite it in terms of only one trigonometric function.
Using the double angle formula for sine:
sin(2x) = 2sinxcosx
Therefore, the equation becomes:
-\sqrt{3}cosx = 2sinxcosx - 5\pi
Combining like terms:
-\sqrt{3}cosx - 2sinxcosx = -5\pi
Factor out the common factor of cosx:
cosx(-\sqrt{3} - 2sinx) = -5\pi
Now, we have two possibilities:
cosx = 0-\sqrt{3} - 2sinx = -5\piLet's solve these two possibilities:
cosx = 0
Since cosx = 0, x = nπ + (π/2) where n is an integer.
-\sqrt{3} - 2sinx = -5\pi
Rearrange the equation:
2sinx = 5pi + sqrt{3}
sinx = (5π + √3) / 2
x = arcsin((5π + √3) / 2)
So the solution to the trigonometric equation is:
x = nπ + (π/2) for n as an integer, and x = arcsin((5π + √3) / 2)