SITUATION III: The cross section of a tension member is shown below: Use Fy=275 MPa, Fu=400 MPa. 25 350 16 mm o 30 25 350 12. Compute for the gross area of the cross section. a. 28 000 mm2 C. 23 490 mm? b. 29750 mm? d. 23000 mm? 13. Compute for the allowable tensile capacity due to yielding. a. 4698.00 kN b. 4654.39 kN - C. 4610.78 kN d. 6706.59 kN 14. Compute for effective net area if shear lag factor is 0.90. Diameter of holes is 3mm more than that of bolts. a. 28 000 mm? c. 23 490 mm? b. 29750 mm? d. 23000 mm? 15. Compute for the allowable tensile capacity due to rupture. b. 4654.39 kN d. 6706.59 kN a. 4698.00 kN C. 4610.78 kN 16. Compute for the safe load that could be carried by the tension member. a. 4698.00 kN b. 4654.39 kN C. 4610.78 kN d. 6706.59 kN

SITUATION III: The cross section of a tension member is shown below: Use Fy=275 MPa, Fu=400 MPa. 25 350 16 mm o 30 25 350 12. Compute for the gross area of the cross section. a. 28 000 mm2 C. 23 490 mm? b. 29750 mm? d. 23000 mm? 13. Compute for the allowable tensile capacity due to yielding. a. 4698.00 kN b. 4654.39 kN - C. 4610.78 kN d. 6706.59 kN 14. Compute for effective net area if shear lag factor is 0.90. Diameter of holes is 3mm more than that of bolts. a. 28 000 mm? c. 23 490 mm? b. 29750 mm? d. 23000 mm? 15. Compute for the allowable tensile capacity due to rupture. b. 4654.39 kN d. 6706.59 kN a. 4698.00 kN C. 4610.78 kN 16. Compute for the safe load that could be carried by the tension member. a. 4698.00 kN b. 4654.39 kN C. 4610.78 kN d. 6706.59 kN

Engineering Fundamentals: An Introduction to Engineering (MindTap Course List)

5th Edition

ISBN:9781305084766

Author:Saeed Moaveni

Publisher:Saeed Moaveni

Chapter12: Electric Current And Related Variables In Engineering

Section12.2: Electrical Circuits And Components

Problem 6BYG

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Concept explainers

Length and Length related Variables

Length can de defined as the measurement or extent of physical quantities or objects from one terminal to another terminal. Stone age humans used finger length, step length, and so on to measure the size or displacement of an object. Nowadays, depending on how precise the measurement requires to be and the object’s size is measured, we use measuring devices for measurements like rulers and steel tape. Most people have used a ruler or tape measure to measure a particular distance or the size of an object. For more precise measurements of tiny objects, the development of measurement tools such as the Vernier caliper, which permits us to measure dimensions within 1/1000 of an inch. In the last few decades, electronic distance measuring instruments (EDMI) have been implemented that permit us to measure distances from a few feet to many miles with reasonable accuracy.

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Answer 15&16

SITUATION III:
The cross section of a tension member
is shown below: Use Fy=275 MPa,
Fu=400 MPa.
25
350
16 mm O
30
25
350
12. Compute for the gross area of the
cross section.
a. 28 000 mm²
C. 23 490 mm?
b. 29750 mm²
d. 23000 mm?
13. Compute for the allowable tensile
capacity due to yielding.
a. 4698.00 kN
b. 4654.39 kN
- C. 4610.78 kN
d. 6706.59 kN
14. Compute for effective net area if
shear lag factor is 0.90. Diameter of
holes is 3mm more than that of bolts.
a. 28 000 mm?
C. 23 490 mm?
b. 29750 mm?
d. 23000 mm?
15. Compute for the allowable tensile
capacity due to rupture.
b. 4654.39 kN
d. 6706.59 kN
a. 4698.00 kN
C. 4610.78 kN
16. Compute for the safe load that
could be carried by the tension
member.
b. 4654.39 kN
d. 6706.59 kN
a. 4698.00 kN
C. 4610.78 kN

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