Linear momentum - Gymnázium Slovanské náměstí
... A body is at …… or in uniform ……. …… unless made to …… its …… by …… forces The …… of a body is directly …… to the net force acting on the body, and inversely …… to its mass If there are more …… acting on an object, and they are ……, i.e. their …… is a zero vector, then it is the same …… as if …… are ...
... A body is at …… or in uniform ……. …… unless made to …… its …… by …… forces The …… of a body is directly …… to the net force acting on the body, and inversely …… to its mass If there are more …… acting on an object, and they are ……, i.e. their …… is a zero vector, then it is the same …… as if …… are ...
Chapter 5 Applications of Newton`s Laws
... The gravitational force mg and the spring force Fs which is given by: Fs = k|y|. Here y is the elongation of the spring The net force Fynet = Fs - mg = may = 0 because the grapes are stationary. Thus mg = Fs = k|y| ...
... The gravitational force mg and the spring force Fs which is given by: Fs = k|y|. Here y is the elongation of the spring The net force Fynet = Fs - mg = may = 0 because the grapes are stationary. Thus mg = Fs = k|y| ...
Wednesday, February 13, 2008
... Galileo’s statement on natural states of matter: Any velocity once imparted to a moving body will be rigidly maintained as long as the external causes of retardation are removed!! Galileo’s statement is formulated by Newton into the 1st law of motion (Law of Inertia): In the absence of external forc ...
... Galileo’s statement on natural states of matter: Any velocity once imparted to a moving body will be rigidly maintained as long as the external causes of retardation are removed!! Galileo’s statement is formulated by Newton into the 1st law of motion (Law of Inertia): In the absence of external forc ...
Yr 8 Core Knowledge Booklet
... Suggest a suitable astronomical unit Calculate the time taken for an object to travel 16m at a speed of 4m/s ...
... Suggest a suitable astronomical unit Calculate the time taken for an object to travel 16m at a speed of 4m/s ...
When objects are thrown or launched at an
... the weight of the block is balanced by the force of the spring, F1. Suppose you start the motion as shown in Figure 7-15b by pulling the block down just a few centimeters and letting go. At first, the restoring force of the spring is more than the weight. There is a net upward force, so the block is ...
... the weight of the block is balanced by the force of the spring, F1. Suppose you start the motion as shown in Figure 7-15b by pulling the block down just a few centimeters and letting go. At first, the restoring force of the spring is more than the weight. There is a net upward force, so the block is ...
1.1 _ 1.2 - Impulse and Momentum
... • When a gun fires, the bullet goes one way, the gun goes in the opposite way (recoil). The momentum adds ...
... • When a gun fires, the bullet goes one way, the gun goes in the opposite way (recoil). The momentum adds ...
40 N m
... Rotational Inertia The quantity is called the rotational inertia of an object. The distribution of mass matters here – these two objects have the same mass, but the one on the left has a greater rotational inertia, as so much of its mass is far from the axis of rotation. ...
... Rotational Inertia The quantity is called the rotational inertia of an object. The distribution of mass matters here – these two objects have the same mass, but the one on the left has a greater rotational inertia, as so much of its mass is far from the axis of rotation. ...
Chapter 2
... 1)Its strength depends on how hard the two surfaces are pressed against one another. 2)Its strength depends on how slippery the two surfaces are. 3)Its strength depends on whether or not the two surfaces are moving relative to one another. 4)Its strength does not depend much on the area of contact b ...
... 1)Its strength depends on how hard the two surfaces are pressed against one another. 2)Its strength depends on how slippery the two surfaces are. 3)Its strength depends on whether or not the two surfaces are moving relative to one another. 4)Its strength does not depend much on the area of contact b ...
II 1 — Newton`s Laws - Carroll`s Cave of Knowledge
... Physics 12 — II Dynamics and Statics Newton’s third law: If object A exerts a force on object B, then object B exerts a force on object A of equal magnitude, but in the opposite direction. Explain how a runner can accelerate by pushing their feet ...
... Physics 12 — II Dynamics and Statics Newton’s third law: If object A exerts a force on object B, then object B exerts a force on object A of equal magnitude, but in the opposite direction. Explain how a runner can accelerate by pushing their feet ...