Point of release frictionless friction only here 160 As shown in the figure, a block of mass m 16.5 kg is released from rest (at position A) near the top of an incline that makes an angle of 32° with the horizontal. As it slides down, the block experiences kinetic friction (k = 0.5) only over a distance L = 1.6 m, as illustrated in the figure. The incline is frictionless everywhere else. After passing the section with friction, and sliding further down, the block encounters a spring (at position B) and compresses it an amount = 0.22 m (to point C), before ing momentarily to rest. The distance between points A and B is 5.5 m. The system is subject to the regular force of gravity (g = 9.80665 m/s²). (a) Determine the speed of the block at position B. UB= 0.75 m/s (b) Determine the force constant k of the spring. k = 1.5 N/m Instructions A 10:30 PM
Point of release frictionless friction only here 160 As shown in the figure, a block of mass m 16.5 kg is released from rest (at position A) near the top of an incline that makes an angle of 32° with the horizontal. As it slides down, the block experiences kinetic friction (k = 0.5) only over a distance L = 1.6 m, as illustrated in the figure. The incline is frictionless everywhere else. After passing the section with friction, and sliding further down, the block encounters a spring (at position B) and compresses it an amount = 0.22 m (to point C), before ing momentarily to rest. The distance between points A and B is 5.5 m. The system is subject to the regular force of gravity (g = 9.80665 m/s²). (a) Determine the speed of the block at position B. UB= 0.75 m/s (b) Determine the force constant k of the spring. k = 1.5 N/m Instructions A 10:30 PM
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Question
![(8/10)
Point of release
B
frictionless
friction only here
xc
→
F
As shown in the figure, a block of mass m 16.5 kg is released from rest (at position A) near the top of an incline that makes an angle of
32° with the horizontal. As it slides down, the block experiences kinetic friction (uk= 0.5) only over a distance L = 1.6 m, as illustrated in
the figure. The incline is frictionless everywhere else. After passing the section with friction, and sliding further down, the block
encounters a spring (at position B) and compresses it an amount xc = 0.22 m (to point C), before coming momentarily to rest. The
distance between points A and B is 5.5 m. The system is subject to the regular force of gravity (g = 9.80665 m/s²).
(a) Determine the speed of the block at position B.
UB= 0.75
m/s
(b) Determine the force constant k of the spring.
k = 1.5
N/m
a
1
77
O
C
Instructions ^
10:30 PM
10/23/2022
22](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fb5f3e4ce-f46c-48a5-a74c-9a62ffe7be87%2F05e42f5d-100d-40fc-bbf0-79797e626a7d%2F69nuied_processed.jpeg&w=3840&q=75)
Transcribed Image Text:(8/10)
Point of release
B
frictionless
friction only here
xc
→
F
As shown in the figure, a block of mass m 16.5 kg is released from rest (at position A) near the top of an incline that makes an angle of
32° with the horizontal. As it slides down, the block experiences kinetic friction (uk= 0.5) only over a distance L = 1.6 m, as illustrated in
the figure. The incline is frictionless everywhere else. After passing the section with friction, and sliding further down, the block
encounters a spring (at position B) and compresses it an amount xc = 0.22 m (to point C), before coming momentarily to rest. The
distance between points A and B is 5.5 m. The system is subject to the regular force of gravity (g = 9.80665 m/s²).
(a) Determine the speed of the block at position B.
UB= 0.75
m/s
(b) Determine the force constant k of the spring.
k = 1.5
N/m
a
1
77
O
C
Instructions ^
10:30 PM
10/23/2022
22
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