Answer:
The bee should fly 17.7º east of north.
Step-by-step explanation:
Please, see the figure for a description of the problem.
Assuming the hive as the center of our reference system
The vector velocity of the bee is:
v bee = (0, 8.75)
The vector velocity of the wind is:
v wind = (-2.79, 0)
Without course correction, the resulting vector velocity of the bee would be:
v bee + v wind = (0, 8.75) + (-2.79, 0) = (0-2.79, 8.75 + 0) = (-2.79, 8.75)
to anulate the effect of the wind, the bee should move with a velocty vector: v corrected = (2.79, 8.75) (see figure).
Now, the sum of the vector velocity of the wind and v correctd will give this resulting vector:
v wind + v corrected = (-2.79, 0) + (2.79, 8.75) = (0, 8.75) which is the original vector of the bee heading north.
Using trigonometry we can obtain the angle θ. (see figure)
sin θ = opposite / hypotenuse
then:
sin θ = magnitude of v wind / magnitude of v corrected
or
cos θ = adjacent / hypotenuse
cos θ = magnitude of v bee / magnitude of v corrected
magnitude of v wind =
![|v wind| = \sqrt{(-2.79)^(2)+0^(2)} = 2.79](https://img.qammunity.org/2020/formulas/physics/college/b4gr07cnt5s8hanqf31jvoqthlulimo5lg.png)
magnitude of v corrected =
![|v corrected| = \sqrt{(2.79)^(2) + (8.75)^(2)}= 9.18](https://img.qammunity.org/2020/formulas/physics/college/newyxv6t1t84olol6lsqt0xu172zvf46ey.png)
Then:
sin θ = 2.79 / 9.18
θ = 17.7º
The bee should fly 17.7º east of north.