A polymer cylinder (2) is clamped between rigid heads by two steel bolts (1), as shown. The steel [E= 29.000 ksi; ar = 6.5 x 10-6/°F] bolts have a diameter of 0.50 in. The polymer [E= 370 ksi; a = 39.0 × 10 6/°F] cylinder has an outside diameter of 6.625 in. and a wall thickness of 0.432 in. Assume that a 24 in. and b= 28 in. If the temperature of this assembly changes by AT= 100°F, determine (1) the normal stress in the polymer cylinder in ksi. (2) the normal strain in the polymer cylinder in ksi. (3) the normal strain in the steel bolts in microstrain. (4) the length of the polymer cylinder after the temperature change to the nearest thousandth of an inch. Tension is positive, compression is negative. (2) (1)
A polymer cylinder (2) is clamped between rigid heads by two steel bolts (1), as shown. The steel [E= 29.000 ksi; ar = 6.5 x 10-6/°F] bolts have a diameter of 0.50 in. The polymer [E= 370 ksi; a = 39.0 × 10 6/°F] cylinder has an outside diameter of 6.625 in. and a wall thickness of 0.432 in. Assume that a 24 in. and b= 28 in. If the temperature of this assembly changes by AT= 100°F, determine (1) the normal stress in the polymer cylinder in ksi. (2) the normal strain in the polymer cylinder in ksi. (3) the normal strain in the steel bolts in microstrain. (4) the length of the polymer cylinder after the temperature change to the nearest thousandth of an inch. Tension is positive, compression is negative. (2) (1)
Chapter2: Loads On Structures
Section: Chapter Questions
Problem 1P
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Question
![A polymer cylinder (2) is clamped between rigid heads by two steel bolts (1), as
shown. The steel [E 29,000 ksi; a = 6.5 x 10-6/°F] bolts have a diameter of 0.50
in. The polymer [E= 370 ksi; a = 39.0 × 106/°F] cylinder has an outside diameter of
6.625 in. and a wall thickness of 0.432 in.
%3!
Assume that a = 24 in. and b 28 in. If the temperature of this assembly changes
by AT= 100°F, determine
(1) the normal stress in the polymer cylinder in ksi.
(2) the normal strain in the polymer cylinder in ksi.
(3) the normal strain in the steel bolts in microstrain.
(4) the length of the polymer cylinder after the temperature change to the nearest
thousandth of an inch.
Tension is positive, compression is negative.
(2)
(1)](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F2be92ecd-5ca9-4325-9aec-1c2876f60162%2Fc31261a5-571e-4654-b2e4-9e73b6d2c59a%2F3abobhs_processed.jpeg&w=3840&q=75)
Transcribed Image Text:A polymer cylinder (2) is clamped between rigid heads by two steel bolts (1), as
shown. The steel [E 29,000 ksi; a = 6.5 x 10-6/°F] bolts have a diameter of 0.50
in. The polymer [E= 370 ksi; a = 39.0 × 106/°F] cylinder has an outside diameter of
6.625 in. and a wall thickness of 0.432 in.
%3!
Assume that a = 24 in. and b 28 in. If the temperature of this assembly changes
by AT= 100°F, determine
(1) the normal stress in the polymer cylinder in ksi.
(2) the normal strain in the polymer cylinder in ksi.
(3) the normal strain in the steel bolts in microstrain.
(4) the length of the polymer cylinder after the temperature change to the nearest
thousandth of an inch.
Tension is positive, compression is negative.
(2)
(1)
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