To solve the equation sin(2π - t) - cos(3π/2 + t) + 1 = 0, we can use trigonometric identities.
Given:sin(2π - t) - cos(3π/2 + t) + 1 = 0
We know that sin(2π - t) = sin(2π)cos(t) - cos(2π)sin(t) = 0 - (-1)sin(t) = sin(t) and cos(3π/2 + t) = cos(3π/2)cos(t) + sin(3π/2)sin(t) = 0*cos(t) + (-1)sin(t) = -sin(t).
Therefore, the equation becomes:sin(t) - (-sin(t)) + 1 = 02sin(t) + 1 = 02sin(t) = -1sin(t) = -1/2
Now, we know that sin(t) = -1/2 at t = 7π/6 and t = 11π/6.
So, the solutions to the equation are t = 7π/6 and t = 11π/6.
To solve the equation sin(2π - t) - cos(3π/2 + t) + 1 = 0, we can use trigonometric identities.
Given:
sin(2π - t) - cos(3π/2 + t) + 1 = 0
We know that sin(2π - t) = sin(2π)cos(t) - cos(2π)sin(t) = 0 - (-1)sin(t) = sin(t) and cos(3π/2 + t) = cos(3π/2)cos(t) + sin(3π/2)sin(t) = 0*cos(t) + (-1)sin(t) = -sin(t).
Therefore, the equation becomes:
sin(t) - (-sin(t)) + 1 = 0
2sin(t) + 1 = 0
2sin(t) = -1
sin(t) = -1/2
Now, we know that sin(t) = -1/2 at t = 7π/6 and t = 11π/6.
So, the solutions to the equation are t = 7π/6 and t = 11π/6.