3.) Create a data table, graph and find a model: Answer the following questions after the lab: A.) Explain how the mass of the box and acceleration are related. B.) If you double the mass of the box, what happens to its acceleration? C.) If you triple the mass, what happens to its acceleration? D.) You push a shopping cart with 2 packs of water bottles. You stop the cart and add two more packs. You push the cart again. Does the cart behave differently? Explain using science terms. E.) A bricklayer goes to a brickyard and adds 2000 lbs of bricks to the back of the truck. The driver pulls out and drives away. Would the driver notice a difference in driving and stopping the truck? Explain. F.) A rocket accelerates faster and faster as it leaves the surface of the earth. If the force of the engines on the rocket is the same, explain why it accelerates.Force, Acceleration, Mass Lab Part 1: 1.) Go to the following site: Net Force Lab 2.) Write the following lab in your lab book. 3.) Title the top of the page: "Mass, Acceleration, Force" 4.) Write the objective next: "The purpose of this lab is to determine how the acceleration of the box depends on the net force applied" 5.) Set the following: Forces Sum of Forces Valum Speed F Friction 6.) Now apply a force of 100 N to the box. Applied Force 100 Newtons C 7.) Quickly remove the frictional force. Friction None Lots 8.) Record the acceleration. Acceleration -20 0 209.] Record your results in the following data table. Change mass and repeat steps 5 - B. 10.1 Data table. 11.} Graph the data in your lab boolt. 12.} Create a model. {equation} Answer the following Questions in your lab book. At} What was the independent variable? Why? 8.} What was the dependent variable? 13.} What variables did you control? I1} What relationship did you find between the force and acceleration? E.} If you double the net force. what happens to the acceleration?I Part 2: 1.] In the same lab book. create an experiment where you can find the relationship between mass and acceleration. 2.] Independent variable - mass {kg} Dependent variable - acceleration {rnls'} Control Variables - Fet Force