Exercise 6.44 E Review A small glider is placed against a compressed spring at the bottom of an air track that slopes upward at an angle of 49.0° above the horizontal. The glider has mass 5.00x10-2 kg. The spring has 670 N/m and negligible mass. When the spring is released, the glider travels a maximum distance of 1.60 m along the air track before sliding back down. Before reaching this maximum distance, the glider loses contact with the spring. Part A What distance was the spring originally compressed? Express your answer in meters. ? Submit Previous Answers Request Answer X Incorrect; Try Again Part B When the glider has traveled along the air track 0.600 m from its initial position against the compressed spring, isa contact with the spring? O Yes No 12.206 étv S ali T MacBook Air 340 80 888 F4 DO F3 FS F7 %23 %24 & 4 5 7 8 R Y P ( (O

Exercise 6.44 E Review A small glider is placed against a compressed spring at the bottom of an air track that slopes upward at an angle of 49.0° above the horizontal. The glider has mass 5.00x10-2 kg. The spring has 670 N/m and negligible mass. When the spring is released, the glider travels a maximum distance of 1.60 m along the air track before sliding back down. Before reaching this maximum distance, the glider loses contact with the spring. Part A What distance was the spring originally compressed? Express your answer in meters. ? Submit Previous Answers Request Answer X Incorrect; Try Again Part B When the glider has traveled along the air track 0.600 m from its initial position against the compressed spring, isa contact with the spring? O Yes No 12.206 étv S ali T MacBook Air 340 80 888 F4 DO F3 FS F7 %23 %24 & 4 5 7 8 R Y P ( (O

Name: O YesO NoA small glider is placed against a compressedspring at the b
Uploaded: 2024-03-20T06:57:25.000Z
Channel: Bartleby
Description: O YesO NoA small glider is placed against a compressedspring at the bottom of an air track that slopesupward at an angle of 49.0° above the horizontal.The glider has mass 5.00x10-2 kg. The spring has670 N/m and negligible mass. When the spring isrel

College Physics

11th Edition

ISBN:9781305952300

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter1: Units, Trigonometry. And Vectors

Section: Chapter Questions

Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...

See similar textbooks

Similar questions

p15
A 7.00 ✕ 105 kg subway train is brought to a stop from a speed of 0.500 m/s in 0.500 m by a large spring bumper at the end of its track. What is the force constant k of the spring?N/m
The spring in a retractable ballpoint pen is 1.8 cm long, with a 320 N/m spring constant. When the pen is retracted, the spring is compressed by 1.0 mm. When you click the button to extend the pen, you compress the spring by an additional 5.0 mm. How much energy is required to extend the spring?
Q27
Exercise 2: A 2.0 kg package of tamales slides along a floor with speed v1 = 4.0 m/s. It then runs into and compresses a spring, until the package momentarily stops. Its path to the initially relaxed spring is frictionless, but as it compresses the spring, a kinetic frictional force from the floor, of magnitude 15 N, acts on the package. If k =10 000 N/m, by what distance d is the spring compressed when the package stops? Package k ell Tamales Friction /- Frictionless Stop First touch
I have tried this problem several times how do I do it correctly?
A 5.50 ✕ 105 kg subway train is brought to a stop from a speed of 0.500 m/s in 0.300 m by a large spring bumper at the end of its track. What is the force constant k of the spring (in N/m)? N/m A 70.0 kg skier with an initial speed of 10.0 m/s coasts up a 2.50 m high rise as shown in the following figure. Find her final speed at the top (in m/s), given that the coefficient of friction between her skis and the snow is 0.0800. (Hint: Find the distance traveled up the incline assuming a straight-line path as shown in the figure.) m/s
An m = 12.0kg block is released from rest on a frictionless incline that makes an angle of 0 = 27.0°, as shown in the figure. Below the block is a spring that has a spring constant of 1.55 × 10¹ N/m. The block momentarily stops when it compresses the spring by 5.50 cm. How far I does the block move down the incline from its release point to the stopping point? Answer in units of centimeters. m eeeeeee 0
Two blocks with masses 0.342 kg (A) and 0.719 kg (B) sit on a frictionless surface. Between them is a spring with spring constant 27.7 N/m, which is not attached to either block The two blocks are pushed together, compressing the spring by 0.270 meter, after which the system is released from rest. What is the final speed of the block A? (Hint: you will need to use both conservation of energy and conservation of momentum to solve this problem).
*Chapter 8, Problem 63 The cable of the 1600 kg elevator cab in the figure snaps when the cab is at rest at the first floor, where the cab bottom is a distance d = 3.1 m above a spring of spring constant k = 0.24 MN/m. A safety device clamps the cab against guide rails so that a constant frictional force of 2.1 kN opposes the cab's motion. (a) Find the speed of the cab just before it hits the spring. (b) Find the maximum distance x that the spring is compressed (the frictional force still acts during this compression). (c) Find the distance (above the point of maximum compression) that the cab will bounce back up the shaft. (d) Using conservation of energy, find the approximate total distance that the cab will move before coming to rest. (Assume that the frictional force on the cab is negligible when the cab is stationary.) (a) Number |•1 Units (b) Number |•2 Units (c) Number 3 Units (d) Number |•4 Units
The magnitude of the force required to compress an imperfect horizontal spring a distance x is given by Fbs = kx +bx^3 where k=120N/m and b=18N/m^3. If you use a 7.5kg block to compress the spring a distance of 1.6m and then let it go, what speed will the block have when it leaves the spring? Assume the surfaces are smooth enough that any frictional forces can be neglected.