
Chapter 7: Momentum
... A vector quantity, linear momentum p = mv points in the same direction as the velocity and has units kg • m/s. Newton expressed his second law in terms of momentum. ...
... A vector quantity, linear momentum p = mv points in the same direction as the velocity and has units kg • m/s. Newton expressed his second law in terms of momentum. ...
Slide 1
... • It is accelerating for its entire trip. • Fnet = 0 when it’s flung from the tire. • It could complete the whole circle if the radius of the tire were halved. • There Fnet on the mud is too small for to complete the circle. ...
... • It is accelerating for its entire trip. • Fnet = 0 when it’s flung from the tire. • It could complete the whole circle if the radius of the tire were halved. • There Fnet on the mud is too small for to complete the circle. ...
Circular Motion
... various given speeds and radii. Calculate the A(c) and F(c) for each situation. Compare. • 1. speed = 10 m/s; radius 10 m • 2. speed = 20 m/s; radius 10 m • 3. speed = 30 m/s; radius 10 m • 4. speed = 10 m/s; radius 20 m • 5. speed = 10 m/s; radius 30 m ...
... various given speeds and radii. Calculate the A(c) and F(c) for each situation. Compare. • 1. speed = 10 m/s; radius 10 m • 2. speed = 20 m/s; radius 10 m • 3. speed = 30 m/s; radius 10 m • 4. speed = 10 m/s; radius 20 m • 5. speed = 10 m/s; radius 30 m ...
Document
... What is your metric weight? (reminder 1 kg=~2.2 lb.) Divide your weight by 2.2 lbs to convert it to mass, then multiply by 9.8m/sec2. This will give your wt. in newtons. ...
... What is your metric weight? (reminder 1 kg=~2.2 lb.) Divide your weight by 2.2 lbs to convert it to mass, then multiply by 9.8m/sec2. This will give your wt. in newtons. ...
Inclined Planes
... vector that runs along the plane. This is also the force due to gravity. To solve for this we can use the formula Fgsin=Fg ...
... vector that runs along the plane. This is also the force due to gravity. To solve for this we can use the formula Fgsin=Fg ...
The E80 Wind Tunnel Experiment
... At low speeds (typically below 200 mph), the density of the fluid remains fairly constant. At high speeds, some of the object’s energy compresses the fluid and changes its density and alters the resulting force on the object. Near and beyond the speed of sound (approximately 700 mph), shock waves ar ...
... At low speeds (typically below 200 mph), the density of the fluid remains fairly constant. At high speeds, some of the object’s energy compresses the fluid and changes its density and alters the resulting force on the object. Near and beyond the speed of sound (approximately 700 mph), shock waves ar ...
Chapter 8
... The force of gravity acting on an object must be considered In finding the torque produced by the force of gravity, all of the weight of the object can be considered to be concentrated at a single point, the center of gravity ...
... The force of gravity acting on an object must be considered In finding the torque produced by the force of gravity, all of the weight of the object can be considered to be concentrated at a single point, the center of gravity ...
physics - IIT Portal.com
... Two bodies M and N of equal masses are suspended from two separate massless springs of spring constants K1 and K2 respectively. If the two bodies oscillate vertically such that maximum velocities are equal, the ratio of the amplitude of vibrations of M to that of N is ...
... Two bodies M and N of equal masses are suspended from two separate massless springs of spring constants K1 and K2 respectively. If the two bodies oscillate vertically such that maximum velocities are equal, the ratio of the amplitude of vibrations of M to that of N is ...
Free fall

In Newtonian physics, free fall is any motion of a body where its weight is the only force acting upon it. In the context of general relativity, where gravitation is reduced to a space-time curvature, a body in free fall has no force acting on it and it moves along a geodesic. The present article only concerns itself with free fall in the Newtonian domain.An object in the technical sense of free fall may not necessarily be falling down in the usual sense of the term. An object moving upwards would not normally be considered to be falling, but if it is subject to the force of gravity only, it is said to be in free fall. The moon is thus in free fall.In a uniform gravitational field, in the absence of any other forces, gravitation acts on each part of the body equally and this is weightlessness, a condition that also occurs when the gravitational field is zero (such as when far away from any gravitating body). A body in free fall experiences ""0 g"".The term ""free fall"" is often used more loosely than in the strict sense defined above. Thus, falling through an atmosphere without a deployed parachute, or lifting device, is also often referred to as free fall. The aerodynamic drag forces in such situations prevent them from producing full weightlessness, and thus a skydiver's ""free fall"" after reaching terminal velocity produces the sensation of the body's weight being supported on a cushion of air.