Answer:
34.8 N at 2.5 degrees from the positive x-axis
Explanation:
From the given information:
The force F makes an angle A with the positive x axis can be expressed in terms horizontal and vertical components.

Given that



= 50 × cos 30
= 43.3 N

= 50 × sin 30
= 25 N
Similarly;



= 25 × cos 250
= - 8.55 N

= 25 × sin 250
= -23.5 N
The total net force;







Finally, the direction of the angle for the net force is:




