Energy, Work and Simple Machines
... A massive, fast-moving vehicle can do damage to the objects around it. A baseball hit at a high speed can rise high into the air. What property of an object can produce a change in the object itself or the world around it? Answer: Energy. Both the vehicle and the baseball possess energy that is asso ...
... A massive, fast-moving vehicle can do damage to the objects around it. A baseball hit at a high speed can rise high into the air. What property of an object can produce a change in the object itself or the world around it? Answer: Energy. Both the vehicle and the baseball possess energy that is asso ...
Centripetal force
... at 10 m/sec. • Find the motor cycle’s centripetal acceleration and compare it with g, the acceleration of gravity. ...
... at 10 m/sec. • Find the motor cycle’s centripetal acceleration and compare it with g, the acceleration of gravity. ...
Upcoming due dates
... great distance (in the absence of any other gravitational attraction) but will never return. With an initial speed greater than escape speed, the orbit is a hyperbola (similar shape); the cannonball keeps going indefinitely; never comes to rest. This is what it means to escape Earth’s gravity. Actua ...
... great distance (in the absence of any other gravitational attraction) but will never return. With an initial speed greater than escape speed, the orbit is a hyperbola (similar shape); the cannonball keeps going indefinitely; never comes to rest. This is what it means to escape Earth’s gravity. Actua ...
Lecture13
... • In any real systems, forces of frictions retard the motion induced by restoring forces and the system do not oscillate indefinitely. The friction reduces the mechanical energy of the system as time passes, and the motion is said to be damped. ...
... • In any real systems, forces of frictions retard the motion induced by restoring forces and the system do not oscillate indefinitely. The friction reduces the mechanical energy of the system as time passes, and the motion is said to be damped. ...
PowerPoint Slides - University of Toronto Physics
... Consider a head-on, perfectly elastic collision of a ball of mass m1 having initial velocity (vix)1, with a ball of mass m2 that is initially at rest. There are two equations, and two unknowns: vfx1 and vfx2. You can solve this. The solution is: Eq. 10.43: ...
... Consider a head-on, perfectly elastic collision of a ball of mass m1 having initial velocity (vix)1, with a ball of mass m2 that is initially at rest. There are two equations, and two unknowns: vfx1 and vfx2. You can solve this. The solution is: Eq. 10.43: ...
Jeopardy
... Speedy the snail accelerates from 2 m/s to 15 m/s at a constant acceleration of 5 m/s2. This is the distance Speedy covers as he accelerates. ...
... Speedy the snail accelerates from 2 m/s to 15 m/s at a constant acceleration of 5 m/s2. This is the distance Speedy covers as he accelerates. ...
Document
... conservative force equals the decrease in the potential energy of the system The work done by such a force, F, is ...
... conservative force equals the decrease in the potential energy of the system The work done by such a force, F, is ...
Alsana`s Science+of+Sports
... need to take care of our bodies and our environment to make sure fun sports can continue to be played! ...
... need to take care of our bodies and our environment to make sure fun sports can continue to be played! ...
AP PHYSICS C: MECHANICS
... Compare the rotational inertia of various shaped objects, and how it is affected by changes in the object’s dimensions. State and apply the parallel-axis theorem. Determine the magnitude and direction of torque on a rigid object. Apply Newton’s Second Law to rotational motion, relating torque, momen ...
... Compare the rotational inertia of various shaped objects, and how it is affected by changes in the object’s dimensions. State and apply the parallel-axis theorem. Determine the magnitude and direction of torque on a rigid object. Apply Newton’s Second Law to rotational motion, relating torque, momen ...
Forces - Wsfcs
... • Force that attracts all objects toward each other • More mass = more gravity • Acceleration because of gravity is 9.8 m/s/s • All objects accelerate at the same rate ...
... • Force that attracts all objects toward each other • More mass = more gravity • Acceleration because of gravity is 9.8 m/s/s • All objects accelerate at the same rate ...
Hunting oscillation
Hunting oscillation is a self-oscillation, usually unwanted, about an equilibrium. The expression came into use in the 19th century and describes how a system ""hunts"" for equilibrium. The expression is used to describe phenomena in such diverse fields as electronics, aviation, biology, and railway engineering.