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IA Question Paper Template
IQAC
KLS Gogte Institute of Technology, Belgaum
Department of Mechanical Engineering
Academic Year: 2011-12 (Even Sem)
Code :10ME43 I Internal Assessment IV Sem (A & B)
Max. Marks : 25 Applied Thermodynamics Duration : 1 Hr.
Part A: 5 Marks
Answer the following
1. Define Theoretical Air.
2. Write the complete combustion equation for burning of Ethane C 2 H 6 .
3. The normal range of compression ratio of diesel cycle is _____ a) 4 to 6 b) 6 to 8 c) 15 to 20 d) > 20
4. For same compression ratio and suction conditions which engine is most efficient? a)Otto b)Diesel c)Dual d)None
5. A perfect engine works on the Carnot cycle between temperature limits of 727 O C and 227 O C. The efficiency of the
engine is_________ a)0.5 b)2 c)227/727 d)500/727
Part B: Answer any four questions (4* 5 = 20)
1. With a neat sketch explain the analysis of exhaust gases by Orsat apparatus. [L2]
2. Derive an expression for the air standard efficiency of diesel cycle in terms of compression ratio and cut off ratio
with usual notations. [L1]
3. The products of combustion of hydrocarbon fuel of unknown composition have the following composition as
measured on dry basis. CO 2 = 8%, CO=0.9% O 2 =8.8%, N 2 =82.3%. Evaluate i) Air fuel ratio ii) Percent theoretical
air on mass basis iii) Composition of fuel on mass basis. [L5] (06ME43 Jan 2010)
4. The compression ratio of an ideal Otto cycle is 6.2:1. The pressure and temperature at the commencement of
compression are 1 bar and 28 O C. The heat added during the constant volume process is 1205kJ/kg. Examine the
peak pressure and temperature, work output per kg of air and air standard efficiency. Take C V =0.717 kJ/kg K &
γ=1.4 for air. [L4] (ME5T3 July 2008)
5. With P-v and T-S diagrams compare Otto and Diesel cycles for same max pressure and temperature and different
compression ratio. [L4]

IA Question Paper Template
IQAC
Department of Mechanical Engineering
KLS Gogte Institute of Technology, Belgaum
Academic Year: 2011-12 (Even Sem)
Code :10ME46B I Internal Assessment IV Sem (A & B)
Max. Marks : 25 Fluid Mechanics Duration : 1 Hr.
Part A: 5 Marks
Answer the following
6. A fluid is a substance that________
a) Always expands until it fills any container b) is practically incompressible
c) cannot withstand any shear force d)cannot remain at rest under the action of any shear force
7. Mention the units of kinematic viscosity ________
8. The center of pressure of a submerged plane surface ______
a) should always coincide with centroid of the surface b) may be above or below the centroid
c) cannot be above the centroid of the surface d) none of the above
9. The buoyant force acting on a floating body passes through the ______
a) metacentre of the body b) Center of gravity of the body
c) centroid of the volume of the body d)centroid of the displaced volume
10. An inverted U tube manometer is more sensitive that an upright manometer because
a) Manometric fluid is lighter than working fluid b)Height of the levels is greater
c) Manometric fluid is heavier than working fluid d) none of the above
Part B: Answer any two full questions (10 * 2 = 20)
Q1.a) Define with SI units: Specific gravity, Viscosity, Surface tension and Capillarity [L1] (4)
Q1.b) A 150 mm diameter vertical cylinder rotates concentrically inside another cylinder of diameter 151 mm. both the
cylinders are of 250 mm height. The space between the cylinders is filled with a liquid of viscosity 10 poise. Examine
the torque required to rotate the cylinder at 100 rpm. [L4] (06ME36B July 2011) (6)
Q2.a) State Pascal’s law and hydrostatic law [L1] (2)
Q2.b) Derive an expression for the hydrostatic force and its location on an inclined plane surface submerged in
liquid. [L3] (8)
Q3.a) A triangular plate having base 5 m and altitude 4.5m is immersed in fresh water and its vertex is 2 m below the
free surface of water. The surface of the plate is inclined at 30 0 to free water surface. Evaluate total pressure force on
the plate and its location. [L5] (ME45 Jan 10) (5)
Q3.b) A differential mercury manometer is used for measuring pressure difference between two pipes A and B. Pipe A
is 500 mm above pipe B and deflection in mercury manometer is 200mm. Pressure intensity in pipe A is greater than
pipe B. Pipes carry oil of specific gravity 0.90. Examine the pressure difference between the two pipes. [L4]
(06ME46B June 2010)

IA Question Paper Template
IQAC
KLS GOGTE INSTITUTE OF TECHNOLOGY, BELGAUM.
DEPARTMENT OF MECHANICAL ENGG. 4 th SEM Mech ( A&B) I A Test I
Sub Metrology and Measurement Code 10ME42B Max Marks 25
Metrology
Q1 (i) The Fundamental Deviation for „H‟ hole is (zero / Positive / Negative / Bilateral) (02)
(ii) Tolerance on only one side of the ZERO line is referred as (Unilateral / Bilateral/ zero ) tolerance
Q2 Build the following dimensions using M112 set of slip gauges. Give the details of M112 set of slip gauges (i) 29.975
(ii)38.4205 [ L5, Dec 2007]
OR
Describe with a neat sketch “International Prototype Meter”[L4] (05)
Q3. Two End bars A & B of approximately 500 mm each in length are to be calibrated using standard Meter Bar. When A
& B are mounted over each other and compared with standard Meter Bar it is found that the combined length of A &B
together is 0.0002 mm shorter than standard Meter Bar. When compared among them selves End Bar A is found to be
0.0004 mm longer than B. Establish the actual dimensions two End bars A & B[ L5, Dec 2008]
OR
Distinguish between End Standards and Line Standards [L4] (05)
Measurement
Q4 (i) Accuracy is the difference between ______ and __________ (03) (ii)
Static sensitivity = --------- / _______
Q5 Explain the working of “Generalised Measurement System” with block diagram taking the example of Bourdon
Tube Pressure Gauge [ L2, Dec 2010]
(05)
Q6 Define the following terms
(i)Accuracy (ii) Sensitivity (iii) Precision (iv) Threshold [ L1, Dec 2010] (05)

IA Question Paper Template
IQAC
KLS Gogte Institute of Technology, Belgaum
Department of Mathematics Internal Assessment Test I Academic Year: 2011-12 (even semester)
Subject : Engineering Mathematics – IV Code : 10MAT41 Semester : IV Branch: ALL
Max. Marks : 25 Date : 20/03/2012 Duration : 1 Hr.
_________________________________________________________________________________
Instructions: i) Section A is compulsory and to be attempted on first page only
ii) Answer any FOUR question form Section B. Each carries 5 marks
_____________________________________________________________________________________________________
Section A: 5 marks (Choose correct answer)
dy x
a) Taylor’s series of the equation e at y(0) = 0 is
dx
(i) 1
2
2
2
3
x
x
x
x
x (ii) 1 x (iii) x (iv) 1 x
2
2
2
3
dy
b) Picard’s method is applicable to solve f ( x,
y)
if f(x, y) is …….
dx
(i) differentiable (ii) integrable (iii) geometrical (iv) none
c) Which of the following is a step by step method
(i) Milne’s (ii) Adams-Bashforth (iii) Both (iv) none
d) Corrector formula in Admas-Bashforth method is
h
h
(i) y
4
y3
(55 f3
59 f2
37 f1
9 f0)
(ii) y
4
y3
(9 f4
19 f3
5 f2
f1)
24
24
h
h
(iii) y
4
y3
(55 f3
59 f2
37 f1
9 f0)
(iv) y
4
y3
(9 f4
19 f3
5 f2
f1)
24
24
e) y + y + y = 0 is equivalent to a set of two first order differential equations ……
(i) y = x and x + x + y = 0 (ii) y = z and z + z + y = 0
(iii) y = z and z + z + z = 0 (iv) y = z and y – y – y = 0
Section B: 20 marks
1. Employ Taylor’s series method to obtain y(0.2) from the differential equation
dy = 2y + 3e x , y (0) = 0. [L3]
dx
dy
2. Using modified Euler’s method find y at x = 0.1 given = x 2 + y, y(0) = 1 (Jan 2010) [L3]
dx
3. Using Runge-Kutta method find approximate value of y for x = 0.8 given
dy
dx
x
y , y = 0.41 when x = 0.4. [L3]
4. Employ Milne’s method to solve y = x – y 2 at x = 0.8 given that
y(0) = 0, y(0.2) = 0.02, y(0.4) = 0.0795, y(0.6) = 0.1762.
5. Evaluate y and z at x = 0.1 by Picard’s method from y(0) = 2, z(0) = 1 and
dy = x + z,
dx
dz = x – y 2 .
dx
6. Solve by Runge – Kutta method at x = 0.2 given y = x(y ) 2 – y 2 and x = 0, y = 1, y = 0. [L3]
[L3]
[L5]

IA Question Paper Template
IQAC
KLS Gogte Institute of Technology, Belgaum
Department of Mechanical Engineering Academic Year: 2011-12
Internal Assessment Test I
Subject: Manufacturing Process-II
Code: 10EME45
Semester: IV Marks: 25 Divisions: A & B Faculty: ASD/AVK/SJP
Note: Part A is compulsory. Answer any FOUR in part B
A. Answer the following (5 × 1 mark = 5 marks)
1. A ductile work material usually produces _________ chips, while a brittle work material
produces _________ chips.
2. During a machining operation, the tool life equation was found to be VT 0.39 = 150. If the
cutting speed is 25m/min, then the tool life is __________ min.
3. The Ernst-Merchant’s solution with usual notation is ______________
4.In facing operation on a lathe a cylindrical surface is produced. (True/False)
5. In a planer, the primary (or cutting) motion is provided to:
a) The tool b) The work piece c) Both work piece and tool d) None
B. Answer any four of the following (4 × 5 mark = 20marks)
1. Illustrate the different types of chips produced in metal cutting. Also distinguish between
the machining conditions during which these chips are produced.
[L3,4]
2. Draw the Merchant’s circle indicating all the force components and also state the expressions
for the force components Fs, Fn, F, N and µ (with usual notations).
[L1,3]
3.With a simple sketch, describe the working of the turret indexing mechanism of a Capstan lathe.
[L3,4]
4. With a neat sketch describe the working of a hydraulic shaper mechanism. [L3,4]
5. In an orthogonal cutting operation on a material with yield strength of 300 N/mm 2 , the following data are
obtained:
Rake angle of the tool = 15degrees
Uncut chip thickness= 0.25 mm
Width of chip= 2 mm
Chip thickness ratio = 0.46
Friction angle = 40degrees.
Estimate the shear angle, the cutting force component and the resultant force on the tool. [L5]
6.Estimate the machining time required to machine 5mm thick layer from a work piece of
200mm(wide) × 400mm (length) × 50mm (thick) MS material. The available stroke rates are 10, 20,40 and 8
0 strokes/min. The feed was considered to be 0.28mm/stroke. The depth of cut was
given as 1mm during each cut. Consider cutting speed 30 m/min and ratio of return stroke time
to cutting stroke time as 2:3. Assume clearance of 30mm at each end of the stroke. Also
determine material removal rate (MRR).
[L5]
------------- Good Luck! ---------------