k= 400 N/m 1- 00000000000000 Figure I Figure II 1. A massless spring with force constant k = 4.0 x 10² N/m is fastened to a a wall as shown in the diagram above. Two blocks are placed against (not attached to) the spring in its uncompressed length. The spring is then compressed by pushing block C (m = 4.0 kg) to the left by 0.50 m, whereas block D (m= 2.0 kg) remains at its original location. a. Determine the elastic energy stored in the compressed spring. 4 kg 2 kg C D C. C Determine where the blocks will come to rest. 0.5 m Block C is then released and accelerates towards D. Note the coefficient of kinetic friction between the surface and each block is 0.40. b. Determine the speed of block C just before it collides perfectly inelastically with block D. μ=0.4

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Chapter1: Units, Trigonometry. And Vectors
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k = 400 N/m
-
¨¨¨¨¨¨¨¨¨¨¨¨¨¨¨
a.
4 kg 2 kg
с D
C
0.5 m
C. Determine where the blocks will come to rest.
D
Figure I
Figure II
1. A massless spring with force constant k = 4.0 x 10² N/m is fastened to a a wall as shown in the diagram above.
Two blocks are placed against (not attached to) the spring in its uncompressed length. The spring is then
compressed by pushing block C (m= 4.0 kg) to the left by 0.50 m, whereas block D (m = 2.0 kg) remains at its
original location.
Determine the elastic energy stored in the compressed spring.
μ= 0.4
Block C is then released and accelerates towards D. Note the coefficient of kinetic friction between the surface and
each block is 0.40.
b. Determine the speed of block C just before it collides perfectly inelastically with block D.
Transcribed Image Text:k = 400 N/m - ¨¨¨¨¨¨¨¨¨¨¨¨¨¨¨ a. 4 kg 2 kg с D C 0.5 m C. Determine where the blocks will come to rest. D Figure I Figure II 1. A massless spring with force constant k = 4.0 x 10² N/m is fastened to a a wall as shown in the diagram above. Two blocks are placed against (not attached to) the spring in its uncompressed length. The spring is then compressed by pushing block C (m= 4.0 kg) to the left by 0.50 m, whereas block D (m = 2.0 kg) remains at its original location. Determine the elastic energy stored in the compressed spring. μ= 0.4 Block C is then released and accelerates towards D. Note the coefficient of kinetic friction between the surface and each block is 0.40. b. Determine the speed of block C just before it collides perfectly inelastically with block D.
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