Final answer:
Bruce's vector is <4.53, 2.11> m/s, the current's vector is <-3.03, -1.75> m/s, and the vector representing Bruce's actual motion is <1.5, 0.36> m/s.
Step-by-step explanation:
To determine Bruce's vector, we need to break down his speed into its horizontal and vertical components. Bruce's speed is 5 m/s and he is swimming in a direction 25° east of north. Using trigonometry, we can find that the horizontal component, or the vector in the east-west direction, is 5 * cos(25°) = 4.53 m/s, and the vertical component, or the vector in the north-south direction, is 5 * sin(25°) = 2.11 m/s.
The current's vector is given as <-3.03, -1.75> m/s, which represents the west-east and south-north components respectively. The vector representing Bruce's actual motion is obtained by adding Bruce's and the current's vectors componentwise. So, the resulting vector is <4.53 + (-3.03), 2.11 + (-1.75)> = <1.5, 0.36> m/s.