Answer:
[tex]\displaystyle \vec{d}=<440.99\ m ,\ 275.6\ m>[/tex]
Explanation:
Displacement Vector
Suppose an object is located at a position
[tex]\displaystyle P_1(x_1,y_1)[/tex]
and then moves at another position at
[tex]\displaystyle P_2(x_2,y_2)[/tex]
The displacement vector is directed from the first to the second position and can be found as
[tex]\displaystyle \vec{d}=<x_2-x_1\ ,\ y_2-y_1>[/tex]
If the position is given as magnitude-angle data ( z , α), we can compute its rectangular components as
[tex]\displaystyle x=z\ cos\alpha[/tex]
[tex]\displaystyle y=z\ sin\alpha[/tex]
The question describes the situation where the initial point is the base of the mountain, where both components are zero
[tex]\displaystyle P_1(0,0)[/tex]
The final point is given as a 520 m distance and a 32-degree angle, so
[tex]\displaystyle x_2=520\ cos32^o= 440.99\ m[/tex]
[tex]\displaystyle y_2=520\ sin32^o=275.6\ m[/tex]
The displacement is
[tex]\displaystyle \vec{d}=<440.99\ m ,\ 275.6\ m>[/tex]