Final answer:
To find a vector orthogonal to both <-3,-2,0> and <0,-2,-5>, we can take their cross product. The cross product of the given vectors is <1,-10,15>.
Step-by-step explanation:
To find a vector orthogonal to both \(\langle -3,-2,0 \rangle\) and \(\langle 0,-2,-5 \rangle\) in the form \(\langle 1,x,y \rangle\), we can take their cross product.
The cross product of two vectors, \(\vec{u}\) and \(\vec{v}\), can be found using the formula:
\(\vec{u} \times \vec{v} = \langle u_yv_z - u_zv_y, u_zv_x - u_xv_z, u_xv_y - u_yv_x \rangle\)
Plugging in the given vectors:
\(\langle -3,-2,0 \rangle \times \langle 0,-2,-5 \rangle = \langle (-2)(-5) - 0(-2), 0(0) - (-3)(-5), (-3)(-2) - (-2)(0) \rangle\)
Simplifying the calculations gives us:
\(\langle -3,-2,0 \rangle \times \langle 0,-2,-5 \rangle = \langle -10,15,-6 \rangle\)
Therefore, the vector \(\langle 1,-10,15 \rangle\) is orthogonal to both \(\langle -3,-2,0 \rangle\) and \(\langle 0,-2,-5 \rangle\).