We are given to solve:
$$\sqrt{3}\sin(x)(\cos(x)-\sin(x))+(2-\sqrt{6})\cos(x)+2\sin(x)+\sqrt{3}-2\sqrt{2}=0$$
First, let's do the distribution dance...
$$\sqrt{3}\sin(x)\cos(x)-\sqrt{3}\sin^2(x)+2\cos(x)-\sqrt{6}\cos(x)+2\sin(x)+\sqrt{3}-2\sqrt{2}=0$$
Now, regroup...
$$\sqrt{3}(\sin(x)\cos(x)+1-\sin^2(x))+2(\sin(x)+\cos(x))-\sqrt{6}\cos(x)-2\sqrt{2}=0$$
Within the second factor of the first term, apply a Pythagorean identity:
$$\sqrt{3}(\sin(x)\cos(x)+\cos^2(x))+2(\sin(x)+\cos(x)-\sqrt{2}-\sqrt{6}\cos(x)=0$$
Now factor:
$$\sqrt{3}\cos(x)(\sin(x)+\cos(x))+2(\sin(x)+\cos(x)-\sqrt{2}(\sqrt{3}\cos(x)+2)=0$$
$$(\sin(x)+\cos(x))(\sqrt{3}\cos(x)+2)-\sqrt{2}(\sqrt{3}\cos(x)+2)=0$$
$$(\sin(x)+\cos(x)-\sqrt{2})(\sqrt{3}\cos(x)+2)=0$$
The second factor has no real root, hence we are left with:
$$\sin(x)+\cos(x)=\sqrt{2}$$
$$\sin\left(x+\frac{\pi}{4} \right)=1$$
$$x+\frac{\pi}{4}=\frac{\pi}{2}+2k\pi$$ where $$k\in\mathbb{Z}$$
$$x=\frac{\pi}{4}+2k\pi=\frac{\pi}{4}(8k+1)$$