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for fun, people drive bumper cars designed to safely collide and bounce…

Question

for fun, people drive bumper cars designed to safely collide and bounce off each other.
two identical cars collide head - on. each car is carrying one driver. during the collision, car a experiences a greater acceleration than car b does.
complete the statements.
assume the only horizontal forces each other. re those they exert on
greater than
less than
equal to

  • during the collision, the stre rom car a on car b is the force from car b
  • the mass of car as driver is car bs driver.

Explanation:

First Statement (Force Relationship)
Brief Explanations

According to Newton's Third Law of Motion, when two objects interact (like the bumper cars colliding), the force exerted by object A on object B is equal in magnitude and opposite in direction to the force exerted by object B on object A. So the force from car A on car B is equal to the force from car B on car A.

Step1: Recall Newton's Second Law

Newton's Second Law states that $F = ma$, where $F$ is the net force, $m$ is the mass, and $a$ is the acceleration. For each car - driver system, the net horizontal force (from the collision) is the force from the other car (let's call this force $F$).

Step2: Analyze the acceleration and mass relationship

We know that for car A: $F = m_A\times a_A$ and for car B: $F = m_B\times a_B$ (since the forces between them are equal, as per Newton's Third Law). We are given that $a_A>a_B$. From $F = m_A\times a_A$ and $F = m_B\times a_B$, we can rewrite them as $m_A=\frac{F}{a_A}$ and $m_B=\frac{F}{a_B}$. Since $a_A > a_B$, and $F$ is the same for both (the collision force), when we divide $F$ by a larger acceleration ($a_A$), the resulting mass ($m_A$) will be smaller than $m_B$. The total mass of each car - driver system is the mass of the car (which is identical for both cars) plus the mass of the driver. Let the mass of each car be $M$. So total mass of car A system: $M + m_{A_{driver}}$, total mass of car B system: $M + m_{B_{driver}}$. We know that $M + m_{A_{driver}}

Answer:

equal to

Second Statement (Driver's Mass Relationship)