In the design of a spring bumper for a 3670-lb car, it is desired to bring the car to a stop from a speed of 8.2 mi/hr in a distance equal to 10 in. of spring deformation. Specify the required stiffness k for each of the two springs behind the bumper. The springs are undeformed at the start of impact. Answer: ki 8.2 mi/hr lb/in.
In the design of a spring bumper for a 3670-lb car, it is desired to bring the car to a stop from a speed of 8.2 mi/hr in a distance equal to 10 in. of spring deformation. Specify the required stiffness k for each of the two springs behind the bumper. The springs are undeformed at the start of impact. Answer: ki 8.2 mi/hr lb/in.
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![In the design of a spring bumper for a 3670-lb car, it is desired to bring the car to a stop from a speed of 8.2 mi/hr in a distance equal to
10 in. of spring deformation. Specify the required stiffness k for each of the two springs behind the bumper. The springs are
undeformed at the start of impact.
Answer: k = i
8.2 mi/hr
lb/in.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F278ecef9-29e8-4432-9e71-9c6b88f466da%2F725d616a-a1fe-4ab7-bde6-7344bc4cb8fd%2F9k0raz8_processed.png&w=3840&q=75)
Transcribed Image Text:In the design of a spring bumper for a 3670-lb car, it is desired to bring the car to a stop from a speed of 8.2 mi/hr in a distance equal to
10 in. of spring deformation. Specify the required stiffness k for each of the two springs behind the bumper. The springs are
undeformed at the start of impact.
Answer: k = i
8.2 mi/hr
lb/in.
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