Recitation 1
... Problem 12.18. A 2.00 kg object is attached to a spring and placed on a horizontal, smooth surface. A horizontal force of 20.0 N is required to hold the object at rest when it is pulled 0.200 m from its equilibrium position (the origin of the x axis). The object is now released from rest with an in ...
... Problem 12.18. A 2.00 kg object is attached to a spring and placed on a horizontal, smooth surface. A horizontal force of 20.0 N is required to hold the object at rest when it is pulled 0.200 m from its equilibrium position (the origin of the x axis). The object is now released from rest with an in ...
Forces
... In a nutshell: Law 1: An object’s velocity doesn’t change unless acted upon by a net force. Law 2: The acceleration of an object upon which a force is acting depends on the amount of net force being applied and on the mass of the object. Law 3: For every force, there is an equal and opposite ...
... In a nutshell: Law 1: An object’s velocity doesn’t change unless acted upon by a net force. Law 2: The acceleration of an object upon which a force is acting depends on the amount of net force being applied and on the mass of the object. Law 3: For every force, there is an equal and opposite ...
General Description of Motion
... of the same mass and radius down an inclined plane from a height H ...
... of the same mass and radius down an inclined plane from a height H ...
Vibrations and Waves
... velocity of the object when it is halfway to the equilibrium position if the surface is ...
... velocity of the object when it is halfway to the equilibrium position if the surface is ...
CSUN PHYSICS WORKSHOP SUMMER 2001 July 9
... constant speed along a straight road. You have a pendulum that is hanging freely. If the car now approaches a curve and makes a left turn, which way will the bob move? ____ a) left ____ b) right ____ c) up ____ d) forward ____ e) backward ...
... constant speed along a straight road. You have a pendulum that is hanging freely. If the car now approaches a curve and makes a left turn, which way will the bob move? ____ a) left ____ b) right ____ c) up ____ d) forward ____ e) backward ...
Unit 1 Motion and Forces
... • Friction is the force that opposes motion between two surfaces touching each other • There are 3 types: • 1. static = not moving • 2. sliding = pushing a heavy box across the floor • 3. rolling = your car spinning its wheels on the ice ...
... • Friction is the force that opposes motion between two surfaces touching each other • There are 3 types: • 1. static = not moving • 2. sliding = pushing a heavy box across the floor • 3. rolling = your car spinning its wheels on the ice ...
Motion and Forces
... Gravitational force is determined by the distance between the two masses. Everything falls at an acceleration of 9.8 m/s2 in the absence of air resistance Gravity is opposed by air resistance ...
... Gravitational force is determined by the distance between the two masses. Everything falls at an acceleration of 9.8 m/s2 in the absence of air resistance Gravity is opposed by air resistance ...
Lecture Notes: Chapter 2 Motion
... Q: Frame of reference picture: Using the picture on this slide what would you use as your frame of reference? ...
... Q: Frame of reference picture: Using the picture on this slide what would you use as your frame of reference? ...
2005 C Mechanics 1. (a) ____ increases
... The force of air resistance, F, depends on the speed. The magnitude of the air resistance force is directly proportional to the speed of the ball and in the opposite direction of the velocity. As the ball moves upward its speed decreases, so, the magnitude of F is decreasing and its direction is dow ...
... The force of air resistance, F, depends on the speed. The magnitude of the air resistance force is directly proportional to the speed of the ball and in the opposite direction of the velocity. As the ball moves upward its speed decreases, so, the magnitude of F is decreasing and its direction is dow ...
Circular Motion A rotation of an object about some axis, whether
... ( directed away from center) is called Centrifugal force. The centrifugal force is caused by the inertia of motion and is rather not a real force. Planets tend to stay in the elliptical orbits because of the gravitational attraction between their masses and the huge central object, the sun. It is no ...
... ( directed away from center) is called Centrifugal force. The centrifugal force is caused by the inertia of motion and is rather not a real force. Planets tend to stay in the elliptical orbits because of the gravitational attraction between their masses and the huge central object, the sun. It is no ...
Review - Hingham Schools
... Be able to identify and diagram the forces on an object. Know what net force means and understand the direction it points relative to a and v for different types of motion. Know the differences between mass and weight. Be able to calculate weight given the mass and vice versa. Be able to apply Newto ...
... Be able to identify and diagram the forces on an object. Know what net force means and understand the direction it points relative to a and v for different types of motion. Know the differences between mass and weight. Be able to calculate weight given the mass and vice versa. Be able to apply Newto ...
以人为本 深化改革 努力探索实验室开放的新路子
... 4. Assume that the Earth is a sphere and that the force of gravity (mg) points precisely toward the center of the Earth. Taking into account the rotation of the earth about its axis, calculate the angle between the direction of a plumb line and the direction of the Earth’s radius as a function of l ...
... 4. Assume that the Earth is a sphere and that the force of gravity (mg) points precisely toward the center of the Earth. Taking into account the rotation of the earth about its axis, calculate the angle between the direction of a plumb line and the direction of the Earth’s radius as a function of l ...
force problem set 1: 2/17/12
... 16. Refer back to the box in question 15. What is the mass of the box? 17. Refer back to the box in question 15. What is the acceleration of the box? 18. Refer back to the box in question 15. Which of the following could possibly be the velocity of the box? A. 8.5m/s B. 2.2m/s C. 16m/s D. 0m/s 19. W ...
... 16. Refer back to the box in question 15. What is the mass of the box? 17. Refer back to the box in question 15. What is the acceleration of the box? 18. Refer back to the box in question 15. Which of the following could possibly be the velocity of the box? A. 8.5m/s B. 2.2m/s C. 16m/s D. 0m/s 19. W ...
Some Introductory Concepts for Energy
... with units of (m/s)/s. When the fraction is simplified, you get meters per second squared. The “seconds squared” indicates that something that changes in time is changing in time, that is, the ratio of change in distance per unit of time is changing in ...
... with units of (m/s)/s. When the fraction is simplified, you get meters per second squared. The “seconds squared” indicates that something that changes in time is changing in time, that is, the ratio of change in distance per unit of time is changing in ...
Chapter_6_In-class_problems_(section_by_section_notes)
... 2000 m. At a certain instant in time, the jet’s speedometer reads 300 m/s and his scale reads 5000N. Find the angle between the back of the pilots seat and the vertical at this instant in time. 6. In the previous problem, it is assumed that the pilot’s head was constantly pointing inward, towards th ...
... 2000 m. At a certain instant in time, the jet’s speedometer reads 300 m/s and his scale reads 5000N. Find the angle between the back of the pilots seat and the vertical at this instant in time. 6. In the previous problem, it is assumed that the pilot’s head was constantly pointing inward, towards th ...
