Let \(P(x, y, z)\) be any point on plane \(P_1\)
Thereafter, \((x+4)^2+(y−2)^2+(z−1)^2=(x−2)^2+(y+2)^2+(z−3)^2\)
\(⇒12x−8y+4z+4=0\)
\(⇒3x−2y+z+1=0\)
Also, \(P_2 : 2x + y + 3z = 1\)
\(p_ 1\;and \; p_2\) create the angle of
\(Cos θ = | \frac{6-2+3}{14}|\)
\(⇒ θ = \frac{π }{ 3}\)
Hence, the correct option is (C): \(\frac{π}{3}\)
Let P be the plane passing through the intersection of the planes
r→.(i+3k−k)=5 and r→ .(2i−j+k)=3,
and the point (2, 1, –2). Let the position vectors of the points X and Y be
i−2j+4k and 5i−j+2k
respectively. Then the points
A plane is demarcated as two-dimensional in nature and the one which has a flat surface that prolongs infinitely far in two dimensions. It is set up by some stack of lines that are kept together.
Angles between two planes refer to the acute angle which is manifest by the standard vectors of the planes. If the standard vectors of two planes are rectangular, then we can say they are perpendicular. This specific portion tells us what a plane is and what is the angle between the two planes, it also shows us how to calculate the angles between the two planes in a Cartesian plane.