Answer:
![\displaystyle \vec{d}=<440.99\ m ,\ 275.6\ m>](https://img.qammunity.org/2020/formulas/physics/middle-school/u8a97tzmv8gtc6sq54udpl9zspl6tp35hq.png)
Step-by-step explanation:
Displacement Vector
Suppose an object is located at a position
![\displaystyle P_1(x_1,y_1)](https://img.qammunity.org/2020/formulas/physics/middle-school/1t13ueaun5o4ixkzb786o9kpw3tj2n2h2a.png)
and then moves at another position at
![\displaystyle P_2(x_2,y_2)](https://img.qammunity.org/2020/formulas/physics/middle-school/7s53e7dm1shjyi2kz4x2orgc67e7y4eho3.png)
The displacement vector is directed from the first to the second position and can be found as
![\displaystyle \vec{d}=<x_2-x_1\ ,\ y_2-y_1>](https://img.qammunity.org/2020/formulas/physics/middle-school/u09ljzghox0q3ztpcfcds1mv0b6ikwjv7z.png)
If the position is given as magnitude-angle data ( z , α), we can compute its rectangular components as
![\displaystyle x=z\ cos\alpha](https://img.qammunity.org/2020/formulas/physics/middle-school/o0t1ywqguwoepaavqv07od7jzv8j6canq5.png)
![\displaystyle y=z\ sin\alpha](https://img.qammunity.org/2020/formulas/physics/middle-school/on2braklkit7a92a23hwf0amh82jh38vix.png)
The question describes the situation where the initial point is the base of the mountain, where both components are zero
![\displaystyle P_1(0,0)](https://img.qammunity.org/2020/formulas/physics/middle-school/yhjhonpmlqwqah64zaqrahp0yj5dxxh6so.png)
The final point is given as a 520 m distance and a 32-degree angle, so
![\displaystyle x_2=520\ cos32^o= 440.99\ m](https://img.qammunity.org/2020/formulas/physics/middle-school/d3x4enk0t3k2duoth7rfopvhm8okkl5r7v.png)
![\displaystyle y_2=520\ sin32^o=275.6\ m](https://img.qammunity.org/2020/formulas/physics/middle-school/ica8l7p7vafxxalktnf8whjj6qlufzen5z.png)
The displacement is
![\displaystyle \vec{d}=<440.99\ m ,\ 275.6\ m>](https://img.qammunity.org/2020/formulas/physics/middle-school/u8a97tzmv8gtc6sq54udpl9zspl6tp35hq.png)