33) (USCS units) What's the increase in length of a steel bar whose length 100ft, if the bar is heated from a room temperature of 70°F to 480°F. Use table 4.1 for reference. Round to the nearest 1000th of an inch. Note: Watch your units Table 4.1 Volumetric properties in U.S. customary units for selected engineering materials Coefficient of Thermal Melting Point, T Density, p Expansion, a Material Cx 10CF 10 g/em (Ib/in) C CF) Metals Aluminum (13.3) (9.4) 2.70 (1220) (0.098) 24 660 Copper 8.97 1083 (0.324) 17 (1981) Iron 7.87 (0.284) (2802) 12.1 (6.7) 1539 Lead 11.35 (0.410) 29 (16.1) (621) 327 Magnesium 1.74 (0.063) 26 (1202) (14.4) 650 Nickel 8.92 (0.322) 13.3 (7.4) 1455 (2651) Steel 7.87 (0.284) 12 (6.7) (12.7) a a Tin 7.31 (0.264) 23 232 (449) Titanium 4.51 (0.163) 8.6 (4.7) 1668 (3034) Tungsten 19.30 (0.697) 4.0 (2.2) 3410 (6170) Zinc 7.15 (0.258) 40 (22.2) 420 (787) Ceramics and Silicon Glass 2.5 (0.090) 1.8-9.0 (1.0-5.0) Alumina 3.8 (0.137) 9.0 (5.0) 2072 (3762) Silica 2.66 (0.096) 0.55 (0.31) 1600 (2912) Silicon 2.33 (0.085) 2.6 (14) 1414 (2577) Polymers Phenol resins 1.3 (0.047) 60 (33) Nylon 1.16 (0.042) 100 (55) 260 (500) Polyethylene 0.92 (0.033) 180 (100) 115 (240) Polystyrene Polyvinylchloride 1.05 (0.038) 70 (39) (464 240 1.40 (0.051) 50 (28) 212 (414) Compiled from, 121. 131. 14). I5], and other sources Melting temperature depends on composition. Low-density polyethylene Chemically degrades at high temperatures because it is a thermosetting polymer, other polymers listed are thermoplastic
33) (USCS units) What's the increase in length of a steel bar whose length 100ft, if the bar is heated from a room temperature of 70°F to 480°F. Use table 4.1 for reference. Round to the nearest 1000th of an inch. Note: Watch your units Table 4.1 Volumetric properties in U.S. customary units for selected engineering materials Coefficient of Thermal Melting Point, T Density, p Expansion, a Material Cx 10CF 10 g/em (Ib/in) C CF) Metals Aluminum (13.3) (9.4) 2.70 (1220) (0.098) 24 660 Copper 8.97 1083 (0.324) 17 (1981) Iron 7.87 (0.284) (2802) 12.1 (6.7) 1539 Lead 11.35 (0.410) 29 (16.1) (621) 327 Magnesium 1.74 (0.063) 26 (1202) (14.4) 650 Nickel 8.92 (0.322) 13.3 (7.4) 1455 (2651) Steel 7.87 (0.284) 12 (6.7) (12.7) a a Tin 7.31 (0.264) 23 232 (449) Titanium 4.51 (0.163) 8.6 (4.7) 1668 (3034) Tungsten 19.30 (0.697) 4.0 (2.2) 3410 (6170) Zinc 7.15 (0.258) 40 (22.2) 420 (787) Ceramics and Silicon Glass 2.5 (0.090) 1.8-9.0 (1.0-5.0) Alumina 3.8 (0.137) 9.0 (5.0) 2072 (3762) Silica 2.66 (0.096) 0.55 (0.31) 1600 (2912) Silicon 2.33 (0.085) 2.6 (14) 1414 (2577) Polymers Phenol resins 1.3 (0.047) 60 (33) Nylon 1.16 (0.042) 100 (55) 260 (500) Polyethylene 0.92 (0.033) 180 (100) 115 (240) Polystyrene Polyvinylchloride 1.05 (0.038) 70 (39) (464 240 1.40 (0.051) 50 (28) 212 (414) Compiled from, 121. 131. 14). I5], and other sources Melting temperature depends on composition. Low-density polyethylene Chemically degrades at high temperatures because it is a thermosetting polymer, other polymers listed are thermoplastic
Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
ChapterMA: Math Assessment
Section: Chapter Questions
Problem 1.1MA
Related questions
Question
Transcribed Image Text:33) (USCS units) What's the increase in length of a steel bar whose length 100ft, if the bar is
heated from a room temperature of 70°F to 480°F. Use table 4.1 for reference. Round to
the nearest 1000th of an inch. Note: Watch your units
![Table 4.1 Volumetric properties in U.S. customary units for selected engineering materials
Coefficient of Thermal
Melting Point, T
Density, p
Expansion, a
Material
Cx 10CF 10
g/em
(Ib/in)
C
CF)
Metals
Aluminum
(13.3)
(9.4)
2.70
(1220)
(0.098)
24
660
Copper
8.97
1083
(0.324)
17
(1981)
Iron
7.87
(0.284)
(2802)
12.1
(6.7)
1539
Lead
11.35
(0.410)
29
(16.1)
(621)
327
Magnesium
1.74
(0.063)
26
(1202)
(14.4)
650
Nickel
8.92
(0.322)
13.3
(7.4)
1455
(2651)
Steel
7.87
(0.284)
12
(6.7)
(12.7)
a
a
Tin
7.31
(0.264)
23
232
(449)
Titanium
4.51
(0.163)
8.6
(4.7)
1668
(3034)
Tungsten
19.30
(0.697)
4.0
(2.2)
3410
(6170)
Zinc
7.15
(0.258)
40
(22.2)
420
(787)
Ceramics and Silicon
Glass
2.5
(0.090)
1.8-9.0
(1.0-5.0)
Alumina
3.8
(0.137)
9.0
(5.0)
2072
(3762)
Silica
2.66
(0.096)
0.55
(0.31)
1600
(2912)
Silicon
2.33
(0.085)
2.6
(14)
1414
(2577)
Polymers
Phenol resins
1.3
(0.047)
60
(33)
Nylon
1.16
(0.042)
100
(55)
260
(500)
Polyethylene
0.92
(0.033)
180
(100)
115
(240)
Polystyrene
Polyvinylchloride
1.05
(0.038)
70
(39)
(464
240
1.40
(0.051)
50
(28)
212
(414)
Compiled from, 121. 131. 14). I5], and other sources
Melting temperature depends on composition.
Low-density polyethylene
Chemically degrades at high temperatures because it is a thermosetting polymer, other polymers listed are thermoplastic](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fae5712de-4746-4ba5-a688-ed474b665cfb%2F9cecfe4a-67f8-450f-a7bf-7fb99ef75c4e%2Fv12iv9.jpeg&w=3840&q=75)
Transcribed Image Text:Table 4.1 Volumetric properties in U.S. customary units for selected engineering materials
Coefficient of Thermal
Melting Point, T
Density, p
Expansion, a
Material
Cx 10CF 10
g/em
(Ib/in)
C
CF)
Metals
Aluminum
(13.3)
(9.4)
2.70
(1220)
(0.098)
24
660
Copper
8.97
1083
(0.324)
17
(1981)
Iron
7.87
(0.284)
(2802)
12.1
(6.7)
1539
Lead
11.35
(0.410)
29
(16.1)
(621)
327
Magnesium
1.74
(0.063)
26
(1202)
(14.4)
650
Nickel
8.92
(0.322)
13.3
(7.4)
1455
(2651)
Steel
7.87
(0.284)
12
(6.7)
(12.7)
a
a
Tin
7.31
(0.264)
23
232
(449)
Titanium
4.51
(0.163)
8.6
(4.7)
1668
(3034)
Tungsten
19.30
(0.697)
4.0
(2.2)
3410
(6170)
Zinc
7.15
(0.258)
40
(22.2)
420
(787)
Ceramics and Silicon
Glass
2.5
(0.090)
1.8-9.0
(1.0-5.0)
Alumina
3.8
(0.137)
9.0
(5.0)
2072
(3762)
Silica
2.66
(0.096)
0.55
(0.31)
1600
(2912)
Silicon
2.33
(0.085)
2.6
(14)
1414
(2577)
Polymers
Phenol resins
1.3
(0.047)
60
(33)
Nylon
1.16
(0.042)
100
(55)
260
(500)
Polyethylene
0.92
(0.033)
180
(100)
115
(240)
Polystyrene
Polyvinylchloride
1.05
(0.038)
70
(39)
(464
240
1.40
(0.051)
50
(28)
212
(414)
Compiled from, 121. 131. 14). I5], and other sources
Melting temperature depends on composition.
Low-density polyethylene
Chemically degrades at high temperatures because it is a thermosetting polymer, other polymers listed are thermoplastic
Expert Solution
This question has been solved!
Explore an expertly crafted, step-by-step solution for a thorough understanding of key concepts.
This is a popular solution!
Trending now
This is a popular solution!
Step by step
Solved in 2 steps with 2 images
Recommended textbooks for you
Elements Of Electromagnetics
Mechanical Engineering
ISBN:
9780190698614
Author:
Sadiku, Matthew N. O.
Publisher:
Oxford University Press
Mechanics of Materials (10th Edition)
Mechanical Engineering
ISBN:
9780134319650
Author:
Russell C. Hibbeler
Publisher:
PEARSON
Thermodynamics: An Engineering Approach
Mechanical Engineering
ISBN:
9781259822674
Author:
Yunus A. Cengel Dr., Michael A. Boles
Publisher:
McGraw-Hill Education
Elements Of Electromagnetics
Mechanical Engineering
ISBN:
9780190698614
Author:
Sadiku, Matthew N. O.
Publisher:
Oxford University Press
Mechanics of Materials (10th Edition)
Mechanical Engineering
ISBN:
9780134319650
Author:
Russell C. Hibbeler
Publisher:
PEARSON
Thermodynamics: An Engineering Approach
Mechanical Engineering
ISBN:
9781259822674
Author:
Yunus A. Cengel Dr., Michael A. Boles
Publisher:
McGraw-Hill Education
Control Systems Engineering
Mechanical Engineering
ISBN:
9781118170519
Author:
Norman S. Nise
Publisher:
WILEY
Mechanics of Materials (MindTap Course List)
Mechanical Engineering
ISBN:
9781337093347
Author:
Barry J. Goodno, James M. Gere
Publisher:
Cengage Learning
Engineering Mechanics: Statics
Mechanical Engineering
ISBN:
9781118807330
Author:
James L. Meriam, L. G. Kraige, J. N. Bolton
Publisher:
WILEY