By placing the vector as the hypotenuses of a right triangle we can see the distance can be broken up into two components (vertical and horizontal). These can be found with trig:

Doing the same for the other force we get:

Adding up all vertical and horizontal we get:

The magnitude is the hypotenuse. Therefore:
![\sqrt[]{80.756^2+160.798^2}=179.94](https://img.qammunity.org/2023/formulas/mathematics/college/urfhwo56eb9gi2ffucgzvnl6i6anyerqpf.png)
Answer: 179.94 pounds