The graph below shows the force of friction vs. time on a 3.5kg object that is being pushed by a horizontal force on a flat surface. At first, the object doesn't budge. However, it eventually starts to slide. Estimate the value of the coefficient of kinetic friction. 15 10 5.

The graph below shows the force of friction vs. time on a 3.5kg object that is being pushed by a horizontal force on a flat surface. At first, the object doesn't budge. However, it eventually starts to slide. Estimate the value of the coefficient of kinetic friction. 15 10 5.

Name: The graph below shows the force of friction vs. time on a 3.5kg objec
Uploaded: 2024-03-20T06:57:57.000Z
Channel: Bartleby
Description: The graph below shows the force of friction vs. time on a 3.5kg object that is beingpushed by a horizontal force on a flat surface. At first, the object doesn't budge.However, it eventually starts to slide. Estimate the value of the coefficient of k

University Physics Volume 1

18th Edition

ISBN:9781938168277

Author:William Moebs, Samuel J. Ling, Jeff Sanny

Publisher:William Moebs, Samuel J. Ling, Jeff Sanny

Chapter6: Applications Of Newton's Laws

Section: Chapter Questions

Problem 2CQ: Friction The glue on a piece of tape can exert forces. Can these forces be a type of simple...

See similar textbooks

Similar questions

Physics Review A construction cranes cable lifts a 50.0-kg box upward with an acceleration of 1.50 m/s2. Find the tension in the rope. (See Section 4.5.)
A block slides down a frictionless plane having an inclination of 15.0. The block starts from rest at the top. and the length of the incline is 2.00 m. (a) Draw a free-body diagram of the block. Find (b) the acceleration of the block and (c) its speed when it reaches the bottom of the incline.
When you learn to drive, you discover that you need to let up slightly on the brake pedal as you come to a stop or the car will stop with a jerk. Explain this in terms of the relationship between static and kinetic friction.
A block of ice (m = 15.0 kg) with an attached rope is at rest on a frictionless surface. You pull the block with a horizontal force of 95.0 N for 1.54 s. a. Determine the magnitude of each force acting on the block of ice while you are pulling. b. With what speed is the ice moving after you are finished pulling?
A runaway piano starts from rest and slides down a 20.0 frictionless incline 5.00 m in length. a. Draw a free-body diagram of the piano. b. What is the acceleration of the piano? c. What is the speed of the piano at the bottom of the incline?
A 120-kg astronaut is riding in a rocket sled that is sliding along an inclined plane. The sled has a horizontal component of acceleration of 5.0m/s2 and a downward component of 3.8m/s2 . Calculate the magnitude of the force on the rider by the sled. (Hint: Remember that gravitational acceleration must be considered.)
When a 1.50-kg dress hangs midway from a taut clothesline stretched between two poles planted 7.50 m apart, the clothesline is seen to sag 0.0500 m. a. Draw a free-body diagram of the dress. b. What is the tension produced on the clothesline by the dress? Assume the clothesline is massless.
A force is a quantity that is ___ of producing motion or a change in motion. (3.1)
Friction The glue on a piece of tape can exert forces. Can these forces be a type of simple friction? Explain, considering especially that tape can stick to vertical walls and even to ceilings.
A car of mass 1600 kg travels at 30 m/s, slows down at a constant rate and stops after covering a distance of 1500 m. Calculate the magnitude of the braking force F| (in N used to stop the car
A block rests on a rough horizontal surface with a coefficient of static friction of 0.82). A constant horizontal force just sufficient to start the block in motion, is supplied causing the block to accelerate at 2.4 m/s2. What is the coefficient of kinetic friction?
A man is pulling a crate that has a mass of 50kg and it attains a velocity of 4 m/s after moving to the right by 5 meters. Considering the kinetic friction coefficient is equal to 0.3. Solve for the force P in which the man exerted to accelerate the box.