Final answer:
Using the conservation of momentum, Vic's final velocity is calculated to be 0.0578 m/s after he sacks Braxton, who comes to a stop.
Step-by-step explanation:
To solve this problem, we apply the principle of conservation of momentum. In a closed system (like the one described in the football scenario), the total momentum before collision is equal to the total momentum after the collision. The formula is given by:
m1 * v1initial + m2 * v2initial = (m1 + m2) * vfinal
Here, m1 is the mass of Vic Beasley (102 kg), m2 is the mass of Braxton Miller (98 kg), v1initial is Vic's initial velocity (0.25 m/s), and v2initial is Braxton's initial velocity (-0.2 m/s). The problem tells us that after the collision, Braxton's final velocity (v2final) is 0 m/s. Since they collided, we assume they do not cling to each other and thus calculate Vic's final velocity (v1final) separately:
102 kg * 0.25 m/s + 98 kg * (-0.2 m/s) = 102 kg * v1final + 98 kg * 0 m/s
25.5 kg*m/s - 19.6 kg*m/s = 102 kg * v1final
5.9 kg*m/s = 102 kg * v1final
v1final = 5.9 kg*m/s / 102 kg
v1final = 0.0578 m/s
Therefore, Vic's final velocity after the collision is 0.0578 m/s in the direction he was originally chasing Braxton.