The 12.7-in spring is compressed to a 120-in. length, where it is released from rest and accelerates the sliding block A. The acceleration has an initial value of 210 ft/sec² and then decreases linearly with the x-movement of the block, reaching zero when the spring regains its original 12.7-in. length. Calculate the time t for the block to go (a) 1.35 in and (b) 2.7 in. 10.0 -12.7 Answers: To go 1.35 in. to to i 00185 00514 sec sec
The 12.7-in spring is compressed to a 120-in. length, where it is released from rest and accelerates the sliding block A. The acceleration has an initial value of 210 ft/sec² and then decreases linearly with the x-movement of the block, reaching zero when the spring regains its original 12.7-in. length. Calculate the time t for the block to go (a) 1.35 in and (b) 2.7 in. 10.0 -12.7 Answers: To go 1.35 in. to to i 00185 00514 sec sec
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![The 12.7-in. spring is compressed to a 120-in. length, where it is released from rest and accelerates the sliding block A. The
acceleration has an initial value of 210 ft/sec² and then decreases linearly with the x-movement of the block, reaching zero when the
spring regains its original 12.7-in. length. Calculate the time t for the block to go (a) 1.35 in, and (b) 2.7 in.
-10.0
wwwwwww
Answers:
To go 1.35 in, ti 0.0185
To go 2.7 in.
00514
sec
sec](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F87e9d353-9fbf-4544-8543-ad6243c7195a%2Fb0458e5d-ea8d-4913-b660-f2029453ff15%2Fwygct1j_processed.jpeg&w=3840&q=75)
Transcribed Image Text:The 12.7-in. spring is compressed to a 120-in. length, where it is released from rest and accelerates the sliding block A. The
acceleration has an initial value of 210 ft/sec² and then decreases linearly with the x-movement of the block, reaching zero when the
spring regains its original 12.7-in. length. Calculate the time t for the block to go (a) 1.35 in, and (b) 2.7 in.
-10.0
wwwwwww
Answers:
To go 1.35 in, ti 0.0185
To go 2.7 in.
00514
sec
sec
![The 12.7-in spring is compressed to a 10.0-in length, where it is released from rest and accelerates the sliding block A. The
acceleration has an initial value of 210 ft/sec? and then decreases linearly with the x-movement of the block, reaching zero when the
spring regains its original 12.7-in. length. Calculate the time t for the block to go (a) 1.35 in, and (b) 2.7 in.
10.0
12.7
wwwww
Answers:
To go 1.35 in t-
To go 2.7 in..
i
th i
0.178
0.0593
sec
sec](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F87e9d353-9fbf-4544-8543-ad6243c7195a%2Fb0458e5d-ea8d-4913-b660-f2029453ff15%2Frws62dr_processed.jpeg&w=3840&q=75)
Transcribed Image Text:The 12.7-in spring is compressed to a 10.0-in length, where it is released from rest and accelerates the sliding block A. The
acceleration has an initial value of 210 ft/sec? and then decreases linearly with the x-movement of the block, reaching zero when the
spring regains its original 12.7-in. length. Calculate the time t for the block to go (a) 1.35 in, and (b) 2.7 in.
10.0
12.7
wwwww
Answers:
To go 1.35 in t-
To go 2.7 in..
i
th i
0.178
0.0593
sec
sec
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