
Jeopardy Review
... The Earth’s weight depends on the object you’re measuring it against. So since the Earth pulls on the pear with a force of 1-N, the pear pulls back on the Earth gravitationally with a force of 1-N. ...
... The Earth’s weight depends on the object you’re measuring it against. So since the Earth pulls on the pear with a force of 1-N, the pear pulls back on the Earth gravitationally with a force of 1-N. ...
Collisions in 1- and 2-D Outline Energies from Binary Star
... • A. The car stops, and the truck moves off in the same direction. • B. Both vehicles move on in the same direction, but the car is slower. • C. The car rebounds and moves backward, and the truck moves more slowly in the same direction that the car was moving. C • D. None of the above. ...
... • A. The car stops, and the truck moves off in the same direction. • B. Both vehicles move on in the same direction, but the car is slower. • C. The car rebounds and moves backward, and the truck moves more slowly in the same direction that the car was moving. C • D. None of the above. ...
Lecture Three (Powerpoint format)
... The amount by which an ellipse differs from a circle is characterized by its eccentricity -- ranging from zero for an exact circle, to 1 to a highly elongated ellipse. ...
... The amount by which an ellipse differs from a circle is characterized by its eccentricity -- ranging from zero for an exact circle, to 1 to a highly elongated ellipse. ...
Gravity, Projectiles, and Satellites
... Definition of Apparent Weight • The apparent weight of an object is not exactly the force due to gravity acting on that object, but it is the SUPPORT FORCE acting on that object. • Remember: for an object at rest on a horizontal surface, support force and the force due to gravity are equal in magni ...
... Definition of Apparent Weight • The apparent weight of an object is not exactly the force due to gravity acting on that object, but it is the SUPPORT FORCE acting on that object. • Remember: for an object at rest on a horizontal surface, support force and the force due to gravity are equal in magni ...
Torques and Levers
... output force advantage (high mechanical advantage) does not also produce high velocity (or distance) advantage. For an organism to enjoy some of both, the overall system must be designed to compensate, as for example happens in high and low gear muscles moving the same bony elements of the lever sys ...
... output force advantage (high mechanical advantage) does not also produce high velocity (or distance) advantage. For an organism to enjoy some of both, the overall system must be designed to compensate, as for example happens in high and low gear muscles moving the same bony elements of the lever sys ...
to full article
... You might have been the trainee flight officer occupying the captain’s seat as he rested in the after cabin on that Airbus flight from Brazil to Paris when you were to climb through a storm. The airspeed increased which is not what should be happening. You pull up until your side stick shakes. The F ...
... You might have been the trainee flight officer occupying the captain’s seat as he rested in the after cabin on that Airbus flight from Brazil to Paris when you were to climb through a storm. The airspeed increased which is not what should be happening. You pull up until your side stick shakes. The F ...
document
... “The net force on a body is equal to the product of the body’s mass and its acceleration.” The Newton’s second law in equation form ...
... “The net force on a body is equal to the product of the body’s mass and its acceleration.” The Newton’s second law in equation form ...
Lecture 6: Announcements
... a) the swing & the earth b) the swing & the earth & air c) the swing & the earth & air & support structure 2. When I drive my car at 30 miles per hour, it has more kinetic energy than it does at 10 miles per hour. a) Yes, it has three times as much kinetic energy b) Yes, it has nine times as much ki ...
... a) the swing & the earth b) the swing & the earth & air c) the swing & the earth & air & support structure 2. When I drive my car at 30 miles per hour, it has more kinetic energy than it does at 10 miles per hour. a) Yes, it has three times as much kinetic energy b) Yes, it has nine times as much ki ...
Classical Dynamics for a System of Particles (Chapter 9)
... An elastic collision in the center of mass frame is p particularly y simple: p First, the angle between the outgoing particles is 180 degrees; i.e., if the scattering angle is θ then the recoil angle is π − θ . Second, the final speeds are equal to the initial speeds. [[Proof: Because with these fin ...
... An elastic collision in the center of mass frame is p particularly y simple: p First, the angle between the outgoing particles is 180 degrees; i.e., if the scattering angle is θ then the recoil angle is π − θ . Second, the final speeds are equal to the initial speeds. [[Proof: Because with these fin ...
Force & Motion
... Magicians use this force to Pull a table cloth out from under Dishes on a table. The dishes Stay at rest as the cloth is ...
... Magicians use this force to Pull a table cloth out from under Dishes on a table. The dishes Stay at rest as the cloth is ...
Classical central-force problem
In classical mechanics, the central-force problem is to determine the motion of a particle under the influence of a single central force. A central force is a force that points from the particle directly towards (or directly away from) a fixed point in space, the center, and whose magnitude only depends on the distance of the object to the center. In many important cases, the problem can be solved analytically, i.e., in terms of well-studied functions such as trigonometric functions.The solution of this problem is important to classical physics, since many naturally occurring forces are central. Examples include gravity and electromagnetism as described by Newton's law of universal gravitation and Coulomb's law, respectively. The problem is also important because some more complicated problems in classical physics (such as the two-body problem with forces along the line connecting the two bodies) can be reduced to a central-force problem. Finally, the solution to the central-force problem often makes a good initial approximation of the true motion, as in calculating the motion of the planets in the Solar System.