Study Guide for Final
... Friction - a force that opposes motion between two surfaces that are in contact A. The amount of friction between two surfaces depends on two factors: 1. The amount of force pushing the two surfaces together 2. The roughness of the surfaces Gravity - the force of attraction between objects that is d ...
... Friction - a force that opposes motion between two surfaces that are in contact A. The amount of friction between two surfaces depends on two factors: 1. The amount of force pushing the two surfaces together 2. The roughness of the surfaces Gravity - the force of attraction between objects that is d ...
FinalExamReview_D
... Solve For Time In Y-Direction Using A Kinematic Equation Use Vix = Dx/Dt In The X-Direction ...
... Solve For Time In Y-Direction Using A Kinematic Equation Use Vix = Dx/Dt In The X-Direction ...
Vector Test Practice Problems - School District of La Crosse
... 2. Trigonometrically determine the magnitude and direction of the velocity of a plane that is flying toward 180° at 120.0 km/h while the wind blows toward 90° at 55.0 km/h.(4) ...
... 2. Trigonometrically determine the magnitude and direction of the velocity of a plane that is flying toward 180° at 120.0 km/h while the wind blows toward 90° at 55.0 km/h.(4) ...
Calculate amount of work - worksheet File
... change in energy. Work is done if an object’s kinetic energy changes. Work is done if gravitational potential energy of the object changes. Imagine sliding a book across a table at constant speed; the work of friction will cause the temperature of the book to increase. So, a change in thermal energy ...
... change in energy. Work is done if an object’s kinetic energy changes. Work is done if gravitational potential energy of the object changes. Imagine sliding a book across a table at constant speed; the work of friction will cause the temperature of the book to increase. So, a change in thermal energy ...
Chapter 2 - Test Bank 1
... 53. Since it starts going up at 40 m/s and loses 10 m/s each second, its time going up is 4 seconds. Its time returning is also 4 seconds, so it’s in the air for a total of 8 seconds. Distance up (or down) is 1/2 gt2 = 5 42 = 80 m. Or from d = vt, where average velocity is (40 + 0)/2 = 20 m/s, and ...
... 53. Since it starts going up at 40 m/s and loses 10 m/s each second, its time going up is 4 seconds. Its time returning is also 4 seconds, so it’s in the air for a total of 8 seconds. Distance up (or down) is 1/2 gt2 = 5 42 = 80 m. Or from d = vt, where average velocity is (40 + 0)/2 = 20 m/s, and ...