Answer:
< 2.11, 4.53 >, < -3.03, -1.75 >, <2.93 cos 108.26, 2.93 sin 108.26 >
Explanation:
First, let's decompose Bruce's velocity along the x- and y- direction. Bruce is moving 5 m/s at 25 degrees east of north, so its angle with respect to the positive x-direction is actually 90 - 25 = 65 degrees. So its components are
![b_x = (5 m/s) cos 65^(\circ) =2.11 m/s\\b_y = (5 m/s) sin 65^(\circ) =4.53 m/s](https://img.qammunity.org/2020/formulas/mathematics/high-school/3hxwk4phngn89n0k4r3znni8zqeb3a318w.png)
So, Bruce's vector is
< 2.11, 4.53 >
The current is moving 3.5 m/s at an angle 60 degrees west of south, which means an overall angle of 210 degrees, measured counterclockwise from the positive x-axis. So, the components of the current's velocity are
![c_x = (3.5 m/s) cos 210^(\circ)=-3.03 m/s\\c_y = (3.5 m/s) sin 210^(\circ)=-1.75 m/s](https://img.qammunity.org/2020/formulas/mathematics/high-school/xzrxw8huajfctut4uvztd0j3ofnhaff6kv.png)
So, the current's vector is
< -3.03, -1.75 >
Finally, we can add the components of the two vectors to find Bruce's actual velocity:
![v_x = b_x + c_x = 2.11 + (-3.03)=-0.92 m/s\\v_y = b_y + c_y = 4.53+(-1.75)=2.78 m/s](https://img.qammunity.org/2020/formulas/mathematics/high-school/fksllsngprnqwlzuho0cnkthhb6wlgtp1q.png)
So, Bruce's actual velocity is
< -0.92, 2.78 >
The magnitude is
![v=√((-0.92)^2+(2.78)^2)=2.93 m/s](https://img.qammunity.org/2020/formulas/mathematics/high-school/qx8yw7simii08yejqjofhdpqc9mzn1xvzk.png)
And the direction is
![\theta=180^(\circ) - tan^(-1) ((v_y)/(v_x))=180^(\circ) - tan^(-1)((2.78)/(-0.92))=180^(\circ)-71.7^(\circ)=108.3^(\circ)](https://img.qammunity.org/2020/formulas/mathematics/high-school/bgqppfr2x2cpuj63obztvzxvp37ok9i5l2.png)