Step 1: Normal vector:
Normals of the given planes: \(\vec n_1 = (1, 2, 2)\) and \(\vec n_2 = (3, 3, 2)\). The required plane is perpendicular to both, so its normal is \(\vec n = \vec n_1\times\vec n_2\).
Step 2: Cross product:
\[ \vec n = (2\cdot2 - 2\cdot3,\ 2\cdot3 - 1\cdot2,\ 1\cdot3 - 2\cdot3) = (-2, 4, -3) \]
So the plane is \(2x - 4y + 3z + d = 0\).
Step 3: Use the point:
\((1, 2, 1)\): \(2 - 8 + 3 + d = 0\), so \(d = 3\). The plane is \(2x - 4y + 3z + 3 = 0\).
Final Answer:
The required plane is \(2x - 4y + 3z + 3 = 0\), option (B).
\[ \boxed{2x - 4y + 3z + 3 = 0} \]