According to Newton’s third law of motion, which statement is always correct?(1 point)

Responses

If a moving object hits another object, then the second object will push back.
If a moving object hits another object, then the second object will push back.

If two moving objects collide, then both will stop moving.
If two moving objects collide, then both will stop moving.

If two moving objects collide, then they will bounce off each other.
If two moving objects collide, then they will bounce off each other.

If a moving object hits another object, then the second object will start moving.

If a moving object hits another object, then the second object will push back.

Two metal balls with the same mass hang so that they are touching each other. The ball on the left is pulled to the side and released. What will happen when it swings back and hits the ball on the right?(1 point)

Responses

Both balls will swing to the right.
Both balls will swing to the right.

The ball on the right will swing to the right.
The ball on the right will swing to the right.

The ball on the left will stop, and the ball on the right will remain still.
The ball on the left will stop, and the ball on the right will remain still.

Both balls will swing to the left.

Both balls will swing to the right.

How do bumper cars at an amusement park demonstrate Newton’s third law?(1 point)

Bumper cars at an amusement park demonstrate Newton's third law of motion by showing how the cars are able to move and bounce off each other. When one bumper car hits another, the force of the collision causes both cars to push back on each other with equal force. This action-reaction forces between the bumper cars is a clear demonstration of Newton's third law of motion.

How do bumper cars at an amusement park demonstrate Newton’s third law?(1 point)

Responses

If two bumper cars collide with a certain force, then they will move away from each other in opposite directions with the same force.
If two bumper cars collide with a certain force, then they will move away from each other in opposite directions with the same force.

If two bumper cars collide with a certain force, then one car will transfer its force to the other car and they will move together in the same direction.
If two bumper cars collide with a certain force, then one car will transfer its force to the other car and they will move together in the same direction.

If two bumper cars collide with a certain force, then one car will transfer its force to the other car and they will move away from each other in opposite directions.
If two bumper cars collide with a certain force, then one car will transfer its force to the other car and they will move away from each other in opposite directions.

If two bumper cars collide with a certain force, then they will move away from each other in opposite directions with a stronger force.

If two bumper cars collide with a certain force, then they will move away from each other in opposite directions with the same force.

An octopus propels itself through the water by ejecting water through a funnel in its body. How does this demonstrate Newton’s third law?(1 point)

Responses

When the octopus ejects the water out, the water acts with an equal force on the octopus in the same direction.
When the octopus ejects the water out, the water acts with an equal force on the octopus in the same direction.

When the octopus ejects the water out, the water acts with an equal force on the octopus in the opposite direction.
When the octopus ejects the water out, the water acts with an equal force on the octopus in the opposite direction.

When the octopus ejects the water out, the water acts with an equal force on the surrounding water in the opposite direction.
When the octopus ejects the water out, the water acts with an equal force on the surrounding water in the opposite direction.

When the octopus ejects the water out, the water acts with an equal force on the surrounding water in the same direction.

When the octopus ejects the water out, the water acts with an equal force on the octopus in the opposite direction.