Activity 4: Inelastic Collisions. On the menu to the right, slide the indicator all the way to the left to ensure perfectly inelastic collision. Ball Mass (kg) Before the Collision After the Collision v (m/s) Momentum (kg.m/s) v (m/s) Momentum (kg.m/s) 10.702.601.820.000.0020.7000.002.601.82 Total Momentum initial= 1.82 Total Momentum final= 1.82 Ball Mass (kg) Before the Collision After the Collision v (m/s) Momentum (kg.m/s) v (m/s) Momentum (kg.m/s) 13.002.40 7.201.344.0320.50-1.30-0.655.042.52 Total Momentum initial= 6.55 Total Momentum final= 6.55Question: In these two trials, is the momentum conserved? How do you know?

We are given 2 cases of inelastic collision. We are given masses of 2 bodies which are colliding and…

Answered: Activity 4: Inelastic Collisions. On…

Activity 4: Inelastic Collisions. On the menu to the right, slide the indicator all the way to the left to ensure perfectly inelastic collision.

Ball	Mass (kg)	Before the Collision	After the Collision
		v (m/s)	Momentum (kg.m/s)	v (m/s)	Momentum (kg.m/s)
1	0.70	2.60	1.82	0.00	0.00
2	0.70	0	0.00	2.60	1.82

Total Momentum initial= 1.82

Total Momentum final= 1.82

Ball	Mass (kg)	Before the Collision	After the Collision
		v (m/s)	Momentum (kg.m/s)	v (m/s)	Momentum (kg.m/s)
1	3.00	2.40	7.20	1.34	4.03
2	0.50	-1.30	-0.65	5.04	2.52

Total Momentum initial= 6.55

Total Momentum final= 6.55

Question: In these two trials, is the momentum conserved? How do you know?

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