A 2.00-kg block starts sliding from the top of a frictionless incline. At the bottom of the incline, the mass slides along a horizonal surface and collides with a spring compressing it a distance x. The spring will compress 1 meter with an applied force of 400 Newtons
A. Calculate the speed of the block at the halfway down the incline?
B. Calculate the speed of the block at the bottom of the incline?
C. How much work is done on the block by the spring to bring it to rest?
D. How far does the block compress the spring?
The height of the incline plane should be used (not given) to get the numerical values.
A 2.00-kg block starts sliding from the top of a frictionless incline. At the bottom of...
A
4.00 kg block starts sliding from rest from the top of a
frictionless incline, the mass slides along a horizontal surface
and collides with a spring compressing it a distance x. The spring
will compress 3 meters with an applied force of 300N.
A) Calulate the speed of the block at the halfway down the
incline.
B) Calculate the speed of the block at the bottom of the
incline
C) How much work is done on the block by...
A 9.00-kg block slides down a frictionless plane having an incline of 27.0 The block starts from rest from the top of the incline, and the length of the incline is 2.00 m. Draw a free-body diagram for the block. Determine the normal force acting on the block Answer: Check If the block starts from rest, determine the speed of the block at the bottom of the incline. (Hint: determine the acceleration of the block down the incline, then use...
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A 3.00-kg block starts from rest at the top of a 25.5° incline and slides 2.00 m down the incline in 1.30 s. (a) Find the acceleration of the block. (b) Find the coefficient of kinetic friction between the block and the incline. (c) Find the frictional force acting on the block. (d) Find the speed of the block after it has slid 2.00 m.
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In the figure, block 1 of mass 2.00 kg slides from rest along a frictionless ramp from height h = 2.60 m and then collides with stationary block 2, which has mass 4.50 kg. The spring shown has a spring constant of 31.5 N/m. (a) How fast is block 1 moving just before contacting block 2? (b) Assume the whole path is frictionless, and the collision is completely inelastic, how far does the spring compress? (c) Now, assume you test...
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