forces
... always be ________, which resists the object’s motion in the opposite direction of the net force. Also, on any planet, there will also be _________ which pulls the object down towards the center of the planet. ...
... always be ________, which resists the object’s motion in the opposite direction of the net force. Also, on any planet, there will also be _________ which pulls the object down towards the center of the planet. ...
Lecture 6
... Newton’s First Law of Motion Inertial Reference Frames Newton’s 1st Law: • Doesn’t hold in every reference frame. In particular, it doesn’t work in such a reference frame that is accelerating or rotating. ...
... Newton’s First Law of Motion Inertial Reference Frames Newton’s 1st Law: • Doesn’t hold in every reference frame. In particular, it doesn’t work in such a reference frame that is accelerating or rotating. ...
forces
... A is twice as close to Earth as planet B, then which one will Earth have the greatest attraction for? Also, suppose planet C is the same distance from Earth as planet A, but is ¼ as heavy. Now which planet would Earth have the greatest gravitational attraction for? Planet A for both cases because it ...
... A is twice as close to Earth as planet B, then which one will Earth have the greatest attraction for? Also, suppose planet C is the same distance from Earth as planet A, but is ¼ as heavy. Now which planet would Earth have the greatest gravitational attraction for? Planet A for both cases because it ...
7-8 Center of Mass In
... The ballistic pendulum is a device used to measure the speed of a projectile, such as a bullet. The projectile, of mass m, is fired into a large block (of wood or other material) of mass M, which is suspended like a pendulum. (Usually, M is somewhat greater than m.) As a result of the collision, the ...
... The ballistic pendulum is a device used to measure the speed of a projectile, such as a bullet. The projectile, of mass m, is fired into a large block (of wood or other material) of mass M, which is suspended like a pendulum. (Usually, M is somewhat greater than m.) As a result of the collision, the ...
Summary of Chapters 1-3 Equations of motion for a uniformly acclerating object
... A force is a push or a pull acting on an object. A force is a vector! Contact forces arise from physical contact, and are due to stretching or compressing at the point of contact. Action-at-a-distance forces do not require contact and include gravity and electrical forces. ...
... A force is a push or a pull acting on an object. A force is a vector! Contact forces arise from physical contact, and are due to stretching or compressing at the point of contact. Action-at-a-distance forces do not require contact and include gravity and electrical forces. ...
given a space curve r(t)
... Velocity and Acceleration: assuming r(t) is position of an object in space; • the velocity of the object is v(t) = r0(t); • the speed of the object is v(t) = |v(t)| = |r0(t)|; • the acceleration of the object is a(t) = v0(t) = r00(t); • Newton’s Second Law of Motion: F = ma = mr00(t), for a force F ...
... Velocity and Acceleration: assuming r(t) is position of an object in space; • the velocity of the object is v(t) = r0(t); • the speed of the object is v(t) = |v(t)| = |r0(t)|; • the acceleration of the object is a(t) = v0(t) = r00(t); • Newton’s Second Law of Motion: F = ma = mr00(t), for a force F ...
Measurments
... day. The rotation of the Earth is now known to vary slightly with time, however, and therefore this motion is not a good one to use for defining a standard. Thus, in 1967 the SI unit of time, the second, was redefined using the characteristic frequency of a particular kind of cesium atom as the “ref ...
... day. The rotation of the Earth is now known to vary slightly with time, however, and therefore this motion is not a good one to use for defining a standard. Thus, in 1967 the SI unit of time, the second, was redefined using the characteristic frequency of a particular kind of cesium atom as the “ref ...
transferred.
... • If you push on an object gravity and friction pull back on it. The forces act in pairs but always in opposite directions • Forces do not act on the the same object ex swimmer pg 361 ...
... • If you push on an object gravity and friction pull back on it. The forces act in pairs but always in opposite directions • Forces do not act on the the same object ex swimmer pg 361 ...
Gravity & Motion
... • Acceleration due to gravity – Fall at same rate because acceleration due to gravity is the same for all objects – Force of gravity larger between Earth and a larger object than Earth and a small object – Difference in force canceled by difference in mass ...
... • Acceleration due to gravity – Fall at same rate because acceleration due to gravity is the same for all objects – Force of gravity larger between Earth and a larger object than Earth and a small object – Difference in force canceled by difference in mass ...
Newton`s Laws of Motion
... Discovered the law of gravity Discovered the three laws of motion. Today these laws are known simply as Newton’s Laws of Motion. Published findings in the book Philosophiae Naturalis Principia Mathematica (mathematic principles of natural philosophy) in 1687. ...
... Discovered the law of gravity Discovered the three laws of motion. Today these laws are known simply as Newton’s Laws of Motion. Published findings in the book Philosophiae Naturalis Principia Mathematica (mathematic principles of natural philosophy) in 1687. ...
Chapter 2
... • The acceleration is constant for all objects in free fall. During each second of fall the object gains 9.8 m/s in velocity. • This gain is the acceleration of the falling object, 9.8 m/s2, or 32 ft/s2. The symbol g is used for this. Thus g= 9.8 m/s2, or 32 ft/s2 • The acceleration of free falling ...
... • The acceleration is constant for all objects in free fall. During each second of fall the object gains 9.8 m/s in velocity. • This gain is the acceleration of the falling object, 9.8 m/s2, or 32 ft/s2. The symbol g is used for this. Thus g= 9.8 m/s2, or 32 ft/s2 • The acceleration of free falling ...
