Step 1: The direction ratios of the lines \( L_1 \) and \( L_2 \) can be extracted from their parametric equations. For \( L_1 \), the direction ratios are \( (1, -1, -1) \), and for \( L_2 \), the direction ratios are \( (1, 2, 2) \).
Step 2: The direction vector of the line \( L_3 \) is perpendicular to both \( L_1 \) and \( L_2 \), so we compute the cross product of the direction vectors of \( L_1 \) and \( L_2 \). \[ \mathbf{d_3} = \mathbf{d_1} \times \mathbf{d_2} \] After computing the cross product, we get the direction vector of \( L_3 \).
Step 3: The equation of the line \( L_3 \) is now known, and we substitute the parametric equations of \( L_3 \) into the plane equation \( 5x - 11y - 8z = 1 \) to find the value of \( 5x - 11y - 8z \). Thus, the final value of \( 5x - 11y - 8z \) is found.
What will be the equilibrium constant of the given reaction carried out in a \(5 \,L\) vessel and having equilibrium amounts of \(A_2\) and \(A\) as \(0.5\) mole and \(2 \times 10^{-6}\) mole respectively?
The reaction : \(A_2 \rightleftharpoons 2A\)
A black body is at a temperature of 2880 K. The energy of radiation emitted by this body with wavelength between 499 nm and 500 nm is U1, between 999 nm and 1000 nm is U2 and between 1499 nm and 1500 nm is U3. The Wien's constant, b = 2.88×106 nm-K. Then,