A new skateboarder of mass M initially moves with velocity 4V on a horizontal path. The skateboarder travels a new distance as she slows to a stop. Assume friction is constant. How does this new distance compare to a skateboarder with velocity V?

A new skateboarder of mass M initially moves with velocity V on a horizontal path. The skateboarder travels a new distance as she slows to a stop because friction is now doubled. How does this new distance compare to when we have friction F?

A new skateboarder of mass 4M initially moves with velocity V on a horizontal path. The skateboarder travels a new distance as she slows to a stop. Assume friction is constant. How does this new distance compare to a skateboarder with mass M?

A new skateboarder of mass 2M initially moves with velocity 4V on a horizontal path. The skateboarder travels a new distance as she slows to a stop because friction is halved. How does this new distance compare to the original skateboarder (Mass M, velocity V, friction F)?

A student pushes a table across the floor. There is a force of friction constantly at 5 N. What is happening to the motion of the object between 35-40m?

A student pushes a table across the floor. There is a force of friction constantly at 5 N. What is happening to the motion of the object between 0-5m?

A student pushes a table across the floor. There is a force of friction constantly at 5 N. What is happening to the motion of the object between 5-35m?

A student pushes a table across the floor. There is a force of friction constantly at 5 N. At what point do you have the highest speed?

What is the amount of work done between 0-4 m?

What is the work done for the whole graph?

What is the total change of kinetic energy for this graph?

If I wanted to find the velocity of the object whose motion is depicted in this graph, what other variable(s) would I need?