Exam Details
Subject | advanced steel design | |
Paper | ||
Exam / Course | m.tech | |
Department | ||
Organization | Institute Of Aeronautical Engineering | |
Position | ||
Exam Date | July, 2017 | |
City, State | telangana, hyderabad |
Question Paper
Hall Ticket No Question Paper Code: BST006
INSTITUTE OF AERONAUTICAL ENGINEERING
(Autonomous)
M.Tech II Semester End Examinations (Regular) July, 2017
Regulation: IARE-R16
ADVANCED STEEL DESIGN
(Structural Engineering)
Time: 3 Hours Max Marks: 70
Answer ONE Question from each Unit
All Questions Carry Equal Marks
All parts of the question must be answered in one place only
UNIT I
1. What are types of defects in welded connection? Explain any three defects in weld with sketches.
Two plates of thickness 16 mm each are joined by a triple bolted lap joint.Use ordinary bolts of
property class 5.6. Design the joint and calculate the efficiency.Grade of steel is Fe 490. Sketch
the details. Can the joint be made economical? Justify with numerical
2. Discuss the assumptions in the design of HSFG bolted connections as a non slip joint.
Design a fillet weld (Three sides and site weld) to join a tension member consisting of 2 ISA 100
X 75 X 10 mm to a 12 mm thick gusset plate. The service tensile load is 410 kN. Use Fe 540
Grade steels.
UNIT II
3. A double plate bracket is provided using 12mm thick plates connected to flanges of a steel column
having flange thickness of 12.7 mm and transmit a factored load of 600 kN at an eccentricity of 225
mm to induce torsion in the bolt. Design the bracket using M24 grade 5.8 bolts. The load is included
at 80 w.r.t horizontal acting outwards.
4. An ISMB 500 86.9kg/m is connected to the flange of a column ISHB 400 82.2kg/m carrying a
vertical service load of 200kN at a distance of 300mm from the flange of the column and a horizontal
service load of 50kN at the top of the flange acting outwards. Assume flange welds and web welds
of same size. Adopt shop welds and Fe410 grade steel. Design the connection using fillet welds and
sketch the details.
UNIT III
5. Design the following members of a roof truss and the forces are shown in Figure 1. Design the
connection also and sketch the details. All the forces indicated are service load.
Page 1 of 2
Figure 1
6. Design members AB, AC and joint A of a roof truss, 25440 apart for the following data as shown in
Table 1.
Table 1
Member Length Compressive force Tensile force
AB 2.4 m 80kN 65kN
AC 1.85 m 62kN 82kN
Also design the welded connections at joint A. Use tubes of grade Yst 210.
UNIT IV
7. Write the procedure followed in the design of tension member in truss.
Discuss wind loads and wind effects on truss girder bridges.
8. Analyse and design of portal bracing of a through type truss girder bridge subjected to load Q 70
kN, shown in Figure 2.
Figure 2
UNIT V
9. Explain the different failure modes of steel bins.
Write the procedure followed in the design of Silos.
10. Explain with neat sketch the design of bunker by Jansen theory.
INSTITUTE OF AERONAUTICAL ENGINEERING
(Autonomous)
M.Tech II Semester End Examinations (Regular) July, 2017
Regulation: IARE-R16
ADVANCED STEEL DESIGN
(Structural Engineering)
Time: 3 Hours Max Marks: 70
Answer ONE Question from each Unit
All Questions Carry Equal Marks
All parts of the question must be answered in one place only
UNIT I
1. What are types of defects in welded connection? Explain any three defects in weld with sketches.
Two plates of thickness 16 mm each are joined by a triple bolted lap joint.Use ordinary bolts of
property class 5.6. Design the joint and calculate the efficiency.Grade of steel is Fe 490. Sketch
the details. Can the joint be made economical? Justify with numerical
2. Discuss the assumptions in the design of HSFG bolted connections as a non slip joint.
Design a fillet weld (Three sides and site weld) to join a tension member consisting of 2 ISA 100
X 75 X 10 mm to a 12 mm thick gusset plate. The service tensile load is 410 kN. Use Fe 540
Grade steels.
UNIT II
3. A double plate bracket is provided using 12mm thick plates connected to flanges of a steel column
having flange thickness of 12.7 mm and transmit a factored load of 600 kN at an eccentricity of 225
mm to induce torsion in the bolt. Design the bracket using M24 grade 5.8 bolts. The load is included
at 80 w.r.t horizontal acting outwards.
4. An ISMB 500 86.9kg/m is connected to the flange of a column ISHB 400 82.2kg/m carrying a
vertical service load of 200kN at a distance of 300mm from the flange of the column and a horizontal
service load of 50kN at the top of the flange acting outwards. Assume flange welds and web welds
of same size. Adopt shop welds and Fe410 grade steel. Design the connection using fillet welds and
sketch the details.
UNIT III
5. Design the following members of a roof truss and the forces are shown in Figure 1. Design the
connection also and sketch the details. All the forces indicated are service load.
Page 1 of 2
Figure 1
6. Design members AB, AC and joint A of a roof truss, 25440 apart for the following data as shown in
Table 1.
Table 1
Member Length Compressive force Tensile force
AB 2.4 m 80kN 65kN
AC 1.85 m 62kN 82kN
Also design the welded connections at joint A. Use tubes of grade Yst 210.
UNIT IV
7. Write the procedure followed in the design of tension member in truss.
Discuss wind loads and wind effects on truss girder bridges.
8. Analyse and design of portal bracing of a through type truss girder bridge subjected to load Q 70
kN, shown in Figure 2.
Figure 2
UNIT V
9. Explain the different failure modes of steel bins.
Write the procedure followed in the design of Silos.
10. Explain with neat sketch the design of bunker by Jansen theory.
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