 |
IN
CIVIL ENGINEERING
Year : I Part
: I
|
|
Teaching
Schedule |
|
|
|
|
|
|
Examination Scheme |
Total |
Remark |
|||||
|
S. N. |
Course Code |
Course Title |
Credits |
L |
T |
P |
Total |
|
Theory |
Practical |
|||||
|
Assessment Marks |
Final |
Assessment Marks |
Final |
||||||||||||
|
Duration hours |
Marks |
Duration hours |
Marks |
||||||||||||
|
1 |
SH 101 |
Engineering Mathematics I |
3 |
3 |
2 |
- |
5 |
40 |
3 |
60 |
- |
- |
- |
100 |
|
|
2 |
SH 103 |
Engineering Chemistry |
3 |
3 |
1 |
3 |
7 |
40 |
3 |
60 |
25 |
- |
- |
125 |
|
|
3 |
CT 101 |
Computer Programming |
3 |
3 |
1 |
3 |
7 |
40 |
3 |
60 |
50 |
- |
- |
150 |
|
|
4 |
EE 103 |
Basic Electrical and Electronics Engineering |
3 |
3 |
1 |
1.5 |
5.5 |
40 |
3 |
60 |
25 |
- |
- |
125 |
|
|
5 |
CE 101 |
Engineering Mechanics |
4 |
4 |
2 |
- |
6 |
40 |
3 |
60 |
- |
- |
- |
100 |
|
|
6 |
CE 102 |
Engineering Geology I |
2 |
2 |
- |
1 |
3 |
20 |
1.5 |
30 |
25 |
- |
- |
75 |
|
|
7 |
CE 103 |
Civil Engineering Materials |
2 |
2 |
- |
1 |
3 |
20 |
1.5 |
30 |
25 |
- |
- |
75 |
|
|
|
Total |
20 |
20 |
7 |
9.5 |
36.5 |
240 |
- |
360 |
150 |
- |
- |
750 |
|
|
|
Year : I |
|
|
|
|
|
|
|
|
Part : II |
||||||
|
|
Teaching
Schedule |
|
|
|
|
|
|
Examination Scheme |
Total |
Remark |
|||||
|
S. N. |
Course Code |
Course Title |
Credits |
L |
T |
P |
Total |
|
Theory |
Practical |
|||||
|
Assessment Marks |
Final |
Assessment Marks |
Final |
||||||||||||
|
Duration hours |
Marks |
Duration hours |
Marks |
||||||||||||
|
1 |
SH 151 |
Engineering Mathematics II |
3 |
3 |
2 |
- |
5 |
40 |
3 |
60 |
- |
- |
- |
100 |
|
|
2 |
SH 152 |
Engineering Physics |
4 |
4 |
1 |
2 |
7 |
40 |
3 |
60 |
25 |
- |
- |
125 |
|
|
3 |
ME 158 |
Engineering Drawing |
2 |
2 |
- |
4 |
6 |
20 |
3 |
30 |
50 |
- |
- |
100 |
|
|
4 |
CE 151 |
Strength of Materials |
3 |
3 |
1 |
1 |
5 |
40 |
3 |
60 |
25 |
- |
- |
125 |
|
|
5 |
CE 152 |
Engineering Geology II |
2 |
2 |
- |
1 |
3 |
20 |
1.5 |
30 |
25 |
- |
- |
75 |
|
|
6 |
CE 153 |
Engineering Survey I |
3 |
3 |
1 |
4 |
8 |
40 |
3 |
60 |
50 |
- |
- |
150 |
|
|
|
Total |
17 |
17 |
5 |
12 |
34 |
200 |
- |
300 |
175 |
- |
- |
675 |
|
|
ENGINEERING MATHEMATICS I
SH 101
Lecture : 3 Year
: I
Tutorial
: 2 Part
: I
Practical : 0
Course Objectives:
To equip the students with the
essential mathematical skills and techniques that are relevant to the
engineering fields and enable them to solve engineering problems using
mathematical methods.
1
Derivatives and its Applications (10
hours)
1.1
Review of derivative and differentiability, mean
value theorems with interpretations
1.2
Indeterminate forms, types and their real life
examples, L-Hospital's Rule
1.3
Power series of single valued functions
1.3.1
Taylor's series
1.3.2
Maclaurin's series
1.4
Asymptotes to Cartesian and Polar curves
1.5
Pedal equation to Cartesian and Polar curves
1.6
Curvature and radius of curvature for Cartesian
curves
2
Antiderivatives and its Applications (11
hours)
2.1
Review of definite and indefinite integrals
2.2
Differentiation under integral sign
2.3
Improper integrals
2.4
Application of Beta and Gamma functions
2.5
Area, arc length, volume and surface of
revolution in plane for Cartesian curves
2.6
Centroid and moment of inertia under area of
curve
3
Ordinary Differential Equations and its
Applications (10
hours)
3.1
Review of: Order, degree, solution of first
order first degree differential equations by variable separation method and
solution of homogeneous equations.
3.2
Linear differential equation and equations
reducible to linear differential equation of first order Bernoulli’s equation,
modeling electric circuit
3.3
First order and higher degree differential
equations; Clairaut’s form
3.4
Linear second order differential equations with
constant coefficient and variable coefficients reducible to constant
coefficients, Cauchy’s equations and modeling mass spring system
3.5
Application in physical sciences and engineering
4
Plane Analytic Geometry (4
hours)
4.1
Transformation of coordinates: Translation and
Rotation
4.2
Equation of conic in Cartesian and polar form,
identification of conics
5
Three dimensional geometry (10
hours)
5.1
The Straight line: symmetrical and general form
5.2
Coplanar lines
5.3
Shortest Distance
5.4
Sphere: General equation, plane section by
planes, tangent planes
5.5
Introduction to right circular cone and right
circular cylinder
Tutorials
There shall be related tutorials exercised in class and
given as regular homework exercise. Tutorial can be as following for each
specified chapters
1.
Derivatives and its Applications
2.
Antiderivatives and its Applications
3.
Ordinary Differential Equations and its
Applications
4.
Plane Analytic Geometry
5.
Three dimensional geometry
Reference
1.
Jeffery A., (2001), Advanced Engineering
Mathematics (1st ed.), Academic Press.
2.
O’Neill, P.V., (2003), Advanced Engineering
Mathematics (5th ed.), Thomson Learning.
3.
Kreyszig , A. (1993), Advanced engineering
Mathematics (7th ed.), John Wiley & Sons.
4.
Sastry S.S. (2008), Engineering Mathematics
Volume I and II (4th ed.). PHI India.
5.
Wylie C. and Barrett L.(1995), Advanced Engineering Mathematics (6th ed.),
McGraw-Hill College.
6.
Thomas, T. and Finny, R. (1984), Calculus and
Analytic Geometry (6th ed.), Addison-Wesley.
ENGINEERING CHEMISTRY
SH
103
Lecture : 3 Year
: I
Tutorial
: 1 Part
: I
Practical : 3
Course Objectives:
To develop the basic concepts of
physical chemistry, inorganic chemistry, analytical chemistry, environmental
chemistry, green & sustainable chemistry, nano chemistry, polymer chemistry
and organic chemistry relevant to the different disciplines of engineering.
1
Electrochemistry and Buffer (8
hours)
1.1 Electrochemistry
1.1.1 Introduction
1.1.2 EMF
of galvanic cell, Nernst equation
1.1.3 Polarization
and Overpotential
1.1.4 Butler-Volmer
equation and Tafel plots
1.2 Electrode
processes and mechanisms
1.2.1 Charge
transfer processes at electrodes
1.2.2 Mass
transfer and diffusion in electrochemical systems
1.3 Industrial
and applied electrochemistry
1.3.1 Batteries:
Lead acid and lithium ion
1.3.2 Solar-photovoltaic
cell, fuel cell
1.3.3 Corrosion
1.4 Buffer,
buffer range, buffer capacity and buffer solution and its applications
2
Catalyst and Catalysis (4
hours)
2.1 Definition
and types
2.2 Design
and criteria
2.2.1 Structure-activity
relationships
2.2.2 Selection
criteria of catalyst
2.3 Photocatalysis
and electrocatalysis
2.4 Catalysis
for energy and environmental applications
2.4.1 Catalytic
conversion of fossil fuels
2.4.2 Renewable
energy catalysts
2.4.3 Catalyst
for pollution control
3
Analytical Techniques and their Applications (6
hours)
3.1 Chromatography
3.2 Mass
spectroscopy
3.3 X
– ray diffraction (XRD)
3.4 UV
– visible spectroscopy
3.5 Infrared
– spectroscopy (IR)
3.6 Nuclear
magnetic resonance spectroscopy (NMR)
4
Metal Complexes, Rare Earth Elements and Metal
alloys (6
hours)
4.1 Complexes
4.1.1 Introduction
and Werner’s theory
4.1.2 Geometry
of complex by VBT and its applications
4.1.3 Crystal
Field Theory: Principle and applications
4.2 Rare
earth elements: Introduction and applications
4.3 Metallic
alloys and applications
5
Sustainable Chemistry (7
hours)
5.1 Green
chemistry: Introduction and principles
5.2 Water
chemistry
5.2.1 Importance
of water quality standards
5.2.2 Degree
of hardness, scale formation in boiler and softening of hard water
5.2.3 Water
pollution with reference to turbidity, COD, BOD, heavy metals, radioactive
substances, and plastic
5.2.4 Industrial
wastewater and its treatment
5.3 Air
pollution
5.3.1 Particulate
matter, SOx, NOx, GHGs, VOCs, their impacts and remedies
5.4 Waste
management
5.4.1 Segregation
and management of solid waste
5.4.2 Management
of biodegradable waste into energy
5.4.3 E-waste
and its management
6
Nanoscience and Nanotechnology (3
hours)
6.1 Introduction
and types of nano materials (0-, 1-, 2-, and 3- dimensional)
6.2 Nanoparticles,
Nanofibers, Nanowires, Carbon nanotubes, graphene, Mxene, quantum dots, and
their uses
6.3 Preparation
of nanomaterials
7
Engineering Materials (7
hours)
7.1 Polymers
7.1.1 Natural
and synthetic, organic and inorganic, conducting and nonconducting
7.1.2 Types
of polymerizations: Addition and condensation polymerization
7.1.3 Preparation
and applications of – Epoxy resin, polyurethane, Kevlar, polycarbonate,
polymethyl methacrylate, polyacrylonitrile, silicones; phosphorus based
polymer, Sulphur based polymer
7.1.4 Conducting
polymers: Synthesis and application
7.1.5 Composite:
Fiber reinforced polymer
7.1.6 Natural
polymers: cellulose, chitin, chitosan, collagen
7.2 Cement: Hydration and
setting chemistry of cement
8
Explosives, Lubricants and Paints (4
hours)
8.1 Explosives
8.1.1 Types
of explosives: Primary, low and high explosives
8.1.2 Preparation
and applications of TNT, TNG, Nitrocellulose and
Plastic
explosives
8.2 Lubricants:
Introduction, function and classification
8.3 Paints
8.3.1 Introduction,
requisites, types and applications
8.3.2 Environmental
and health impact
Laboratory
1.
Determine of total, temporary and permanent
hardness of water sample using complexometric titration.
2.
Determine the alkalinity of water sample A and B
by double indicator titration.
3.
Estimate the amount of residual chlorine in
water by iodometric titration.
4.
Prepare the standard buffer solution (acidic or
basic) and measure the approximate pH of given unknown solution by using
Universal Indicator.
5.
Compare the cleansing power of two sample of
detergents by determining the reduction they cause in surface tension of
water.
6.
Construct Daniell cell and study the variation
of cell potential with concentration.
7.
To separate the pigments through the process of
paper / thin layer chromatography.
8.
Determination of total iron in ground water using
spectrophotometer technique.
9.
Determination of amount of copper and iron in a
given mixture solution by K2Cr2O7 titration.
10.
To prepare Cross – linked polymer by
condensation polymerization method.
11.
Standardize Potassium Permanganate Solution and
use it to estimate the amount of Iron and determine the Percentage purity in
the sample of Ferrous salt Solution.
12.
Prepare Ni-DMG Complex and to estimate the
amount of Nickel in it.
Reference
1.
S.H. Maron and C. Prutton, Principles of
Physical Chemistry, 4th Edition, Oxford and IBH Pub. Co., 1992.
2.
J.D. Lee, Concise Inorganic Chemistry, 5th
Edition, John Wiley and sons, Inc., 2007.
3.
R.D. Madan & Satya Prakash, Inorganic
Chemistry, S. Chand & Company
Ltd., 1994.
4.
S. Bahl, G.D. Tuli & A. Bahl, Essential of
Physical Chemistry, Revised Multicolor Edition, S. Chand & Co. Ltd., New
Delhi, 2009.
5.
A.K. Bhagi & G.R.T. Morrison & R.N.
Boyd, Organic Chemistry, 6th and 7th Edition, Prentice – Hall of India Pvt.
Ltd., 2008.
6.
R.T. Morrison & R.N. Boyd, Organic
Chemistry, 6th and 7th Edition,
Prentice – Hall of India Pvt. Ltd., 2008.
7.
Vogel’s Textbook of Quantitative Chemical
Analysis, 6th Edition, Pearson Education 2008.
8.
B.S. Murthy, P. Shankar, Baldev R, B. B. Rath
& James Murday, Textbook of Nanoscience and Nanotechnology, Series in
Metallurgy and Materials Science, Baldev Raj (Ed.), Universities Press Private
Hyderabad, India, 2012.. Chatwal, Environmental Chemistry, Himalaya Publishing
House, Mumbai.
COMPUTER PROGRAMMING
CT
101
Lecture : 3 Year
: I
Tutorial
: 1 Part
: I
Practical : 3
Course Objectives:
The primary goal of this course is
to provide students with a solid foundation in the principles of programming
and to impart practical skills in the C programming language. This course
ensures that students comprehend the fundamental concepts of variables, data
types, control structures, and functions within the context of C. Advanced
topics such as pointers, structures, file handling and the Standard C Library
are explored to broaden students' programming capabilities. Also, through
project-based assessments and evaluations, students apply their knowledge to
real-world scenarios, fostering creativity and project development skills.
1
Introduction to Computer Programming (3 hours)
1.1 Definition
of a computer program and programming language
1.2 Types
and Generations of Programming Languages
1.3 Problem-Solving
using a Computer
1.3.1 Problem
Analysis
1.3.2 Algorithm
and Flowchart
1.3.3 Programming
1.3.4 Compilation,
Linking and Execution
1.3.5 Debugging
and Testing
1.3.6 Documentation
2
Overview of C Programming (3 hours)
2.1 Introduction
to C programming
2.2 History
and Importance of C
2.3 C
Headers and Library Functions
2.4 Basic
Structure of a C Program
2.5 Preprocessor
Directives
2.6 Tokens
in C (Character set, Keywords and Identifiers)
2.7 Type
Casting (Implicit and Explicit)
2.8 Data
Types, Variables and Constants
2.9 Compiler
and IDE for C Programming
3
Operators and Expressions (4 hours)
3.1 Introduction
to Operators and Expressions
3.2 Arithmetic,
Relational and Logical Operators
3.3 Assignment,
Increment and Decrement Operators
3.4 Conditional,
Bitwise and Special Operators
3.5 Comma
Operator, size of Operator
3.6 Evaluation
and Type Conversion in Expressions
3.7 Operator
Precedence and Associativity
4
Input and Output (3 hours)
4.1 Introduction
to data I/O in C
4.2 Unformatted
I/O
4.2.1 Character
I/O
4.2.2 String
I/O
4.3 Formatted
I/O
4.3.1 Control
String (flags, field width, precision, and specifier) 4.3.2 Formatted I/O
(scanf(), printf())
5
Control Structures (8 hours)
5.1 Introduction
to Simple and Compound Statement
5.2 Sequential
Statement
5.3 Branching
Statement
5.3.1 Simple
if Statement
5.3.2 if-else
Statement
5.3.3 Nested
if-else Statement
5.3.4 else-if
Ladder
5.3.5 switch
Statement
5.3.6 go
to statement
5.4 Looping
Statement
5.4.1 for
loop
5.4.2 while
loop
5.4.3 do
while
5.4.4 Nested
loop
5.5 Loop
Interruption
5.5.1 break
5.5.2 continue
6
Array and Pointer (7 hours)
6.1 Introduction
to an Array
6.2 One-dimensional
Array
6.3 Two-dimensional
Array
6.4 Multidimensional
Array
6.5 Introduction
to String
6.6 String
Handling Functions
6.7 Definition
of a Pointer
6.8 Pointer
Declaration
6.9 Pointer
Arithmetic
6.10 Relationship
between Pointer and Arrays
7
User-defined Functions (6 hours)
7.1 Introduction
to Function
7.2 Advantages
of Function
7.3 Elements
of User-defined Function
7.3.1 Function
Definition
7.3.2 Function
Prototype
7.3.3 Function
Parameters
7.4 Storage
Class
7.5 Scope
Rules
7.6 Category
of Functions
7.6.1 Functions
with no arguments and no return values
7.6.2 Functions
with arguments and no return values 7.6.3 Functions
with arguments and return values
7.6.4 Functions with no arguments and return
values
7.7 Recursive
functions
7.8 Function
Call by Values and Reference
7.9 Passing
Array and String to Function
8
Structures (5
hours)
8.1 Defining
a Structure
8.2 Declaring
and Accessing Structure Elements
8.3 Initializing
Structure
8.4 Array
of Structure
8.5 Array
as member to Structure
8.6 Pointer
as member to Structure
8.7 Structure
as a member to Structure
8.8 Passing
and Returning Structures to/from Function
9
File management (4
hours)
9.1 Introduction
9.2 Binary
and Text File in C
9.3 File
Opening Modes
9.4 Defining,
Opening and Closing File
9.5 Input-output
operations on files
9.5.1 Character
I/O (fputc(), fgetc())
9.5.2 String
I/O (fgets(), fputs())
9.5.3 Formatted
I/O (fscanf(), fprintf())
9.5.4 Record
I/O (fwrite(), fread())
9.6 Overview
of Random File Access
9.7 Error
handling
10
Recent Trends in Programming (2 hours)
10.1 Introduction
to Object Oriented Programming (OOP)
10.2 Definitions
of Class, Method and Object in OOP
10.3 Difference
between Procedure Oriented and OOP
10.4 Overview
of other High Level Programming Languages
,
Laboratory
1.
Lab 1: Introduction and Demonstrations of
projects written in C
2.
Lab 2: Formatted and Unformatted Input/output in
C
3.
Lab 3: Branching in Control Structure
4.
Lab 4: Looping in Control Structure
5.
Lab 5: Array in C
6.
Lab 6: String in C
7.
Lab 7: Pointers in C
8.
Lab 8: User Defined functions in C
9.
Lab 9: Structure in C
10.
Lab 10: File handling in C
11.
Group project on C maximum 4 students in a group
at the end of the course.
Reference
1. Robert Lafore, “C Programming Using Turbo C++”, SAMS
publication 2. E. Balagurusamy, “Programming in Ansi C”, McGraw Hill
Education
3. Bryons S. Gotterfried, “Programming
with C”, TMH ….
BASIC ELECTRICAL AND
ELECTRONICS ENGINEERING
EE
103
Lecture
: 3 Year : I Tutorial :
1 Part
: I
Practical : 1.5
Course Objectives:
The course aims to provide a comprehensive understanding
of electrical engineering basics, encompassing circuits, components, and
related laws, emphasizing safety in installations. It also seeks to familiarize
students with electrical machines, semiconductor devices, and initiate them
into applications in digital electronics.
1
Fundamentals of Electrical and Electronics
Circuits (12 hours)
1.1
Current and Potential
1.2
Circuit Components: Source, Conductor, Resistor,
Inductor, Capacitor
1.3
Ohms Law
1.4
Series and Parallel Circuits
1.5
Kirchhoff’s Law and its application
1.5.1 Nodal
Analysis
1.5.2 Mesh
Analysis
1.6
Introduction to AC Circuits and Parameters
1.6.1 Generation
of AC Voltage
1.6.2 Waveforms
1.6.3 Average
value
1.6.4 RMS
Value
1.7
Single Phase AC Circuit Analysis with R, RL, RC
and RLC Load
1.8
Three phase AC Circuits
1.8.1 Waveform
and Advantage
1.8.2 Line
and Phase Quantities in Star and Delta Connection
1.8.3 Voltage
& current computation in Balance Circuits
1.8.4 Power
Measurement in Three Phase Circuits
2
Electrical Machines (14 hours)
2.1
Faraday’s Law of Electromagnetic Induction
2.2
Dynamically and Statically Induced EMFs
2.3
Transformer
2.3.1 Introduction
of Single-Phase Transformer
2.3.2 Working
Principle of Transformer
2.3.3 Components
of Transformer
2.3.4 Transformation
Ratio
2.3.5 EMF
Equation of Transformer
2.3.6 Types
of Transformers
2.3.7 Load
and No-Load Operation
2.3.8 Ideal
and Practical Transformer
2.3.9 Losses
and Efficiency
2.3.10 Applications
2.4
Three phase induction motor
2.4.1 Construction
2.4.2 Rotating
Magnetic Field
2.4.3 Working
Principle
2.4.4 Direction
of Rotor and Slip
2.4.5 Types
of Rotors
2.4.6 Standstill
and Running Condition
2.4.7 Modes
of Operation
2.4.8 Torque
Equations
2.4.9 Torque-Slip
Characteristics
2.4.10 Applications
2.5
DC Motors
2.5.1 Construction
2.5.2 Working
Principle
2.5.3 Back
EMF and its Significance
2.5.4 Power
Torque Relationships
2.5.5 Types
of Motors
2.5.6 Losses
and Efficiency
2.5.7 Applications
2.6
Synchronous Generator
2.6.1 Construction
2.6.2 Working
Principle
2.6.3 EMF
Equation
2.6.4 Applications
3
Introduction to Electronics Engineering (11 hours)
3.1
Semiconductor and Doping
3.2
Introduction to Diode
3.3
Characteristics of PN junction diode
3.4
Half-wave and full-wave rectifiers
3.5
Zener Effect
3.6
Zener diode and its characteristics
3.7
Zener diode as a Voltage regulation
3.8
Bipolar junction transistor
3.8.1 Biasing
3.8.2 BJT
as a switch
3.8.3 BJT
as an amplifier
3.9
Introduction to Digital Electronics
3.10 Logic
Gates and Boolean Algebra
4
Electrical Installations (8 hours)
4.1
Consumer Power Supply System
4.2
Overview of Electrical Wiring Components:
Switches, Sockets, and Distribution
Boards
4.3
Protective devices, their constructions and Sizing,
4.3.1 Fuse
4.3.2 MCB
4.3.3 MCCB
4.4
Wires and Power Cable
4.5
Types of Wiring System
4.6
Determination of Size of Conductor
4.7
Earthing System and its importance
4.8
Electrical Safety Rules
Tutorial
The tutorial sessions will focus on chapter-specific
exercises aimed at enhancing understanding and application in Electrical and
Electronics Engineering (15
hours)
Assignment
1. Numerical and theory works
Laboratory
1.
Verification of Ohms law and Kirchhoff’s law
2.
Measurement of AC quantities using oscilloscope
and study phase relation of RL and RC load.
3.
Measurement of line, phase and power in
three-phase balanced load.
4.
Load test on single phase transformer and T-S
characteristics of induction Machine.
5.
Connection of electrical installations of
residential buildings.
6.
To study Characteristics of PN and Zener Diodes
and Perform Half wave
and
Full Wave rectifiers.
Reference
1.
Mehta, V. K., and Mehta Rohit. Principle of
Electrical Engineering and Electronics. S. Chand Publishing, 2014.
2.
Bhattacharya, S. K. Basic Electrical and
Electronics Engineering I, Pearson Education India, 2010.
3.
Bakshi, Uday A., and Mayuresh V. Bakshi. Electrical
technology. Technical Publications, 2020.
4.
Floyd, Thomas L. Digital fundamentals, 10/e.
Pearson Education India, 2011.
5.
Neidle, Michael. Electrical installation
technology. Elsevier, 2016
ENGINEERING MECHANICS CE
101
Lecture :
4 Year : I Tutorial : 2 Part
: I
Practical : 0
Course Objectives:
This course helps to analyze the
effect of various types of Forces on the particle and rigid body at rest and
motion. It also provides concept and knowledge of Engineering Application and
helps to understand Structural Engineering in later courses by using basics of
Mechanics in their branch of engineering.
1
Basic Concept of Mechanics and Static
Equilibrium (5 hours)
1.1
Definitions, Type and Scope of Mechanics
1.2
Fundamental Concepts and Principles of
Engineering Mechanics
1.3
Concept of Particle, Rigid and Deformed Bodies
1.4
Physical Meaning of Equilibrium and its Essence
in Structural Application
1.5
Equation of Equilibrium in 2D and 3D Analysis of
Particle and Rigid Body 1.6 Concept of Free Body Diagram with Examples
2
Forces Acting on Particle and Rigid Body (9 hours)
2.1
Different Types of Forces: Internal/External
Force, Adhesive/ Cohesive Force, Point/
Line/ Surface Force and Contact/ Body Force
2.2
Resolution and Composition of Forces
2.3
Principle of Transmissibility and Equivalent
Forces
2.4
Varignon’s Theorem and it’s Application
2.5
Moments of a Force About a Point and About an
Axis
2.6
Definition, Types and Characteristics of Couple
2.7
Resolution of a Force into a Force and a Couple
2.8
Resultant of Force and Moment for a System:
Coplanar, Concurrent and General Force System
2.9
Concept and Formation of Wrench (Force and
Couple Lying on a Single Plane)
3
Friction (4
hours)
3.1
Definition, Types and Uses of Friction, Laws of
Friction, Static and Dynamic Coefficient
of Friction, Angle of Friction
3.2
Sliding and Overturning Condition of a Body
3.3
Concept and Working Principle of Jackscrew
3.4
Practical Examples of Dry Friction (Ladder and
Wedge Friction)
4
Analysis of Simple Beams and Frames (10 hours)
4.1
Introduction to Structures
4.2
Various Types of Load on the Structure
4.3
Various Types of Supports; Reactions and Degree
of Freedom
4.4
Internal and External Forces in the
Structure
4.5
Relationship Between Load, Shear Force and
Bending Moment
4.6
Statically and Geometrically Stable/ Unstable
Beams and Frames
4.7
Statically Determinate and Indeterminate Beams
and Frames, Degree of Static Indeterminacy
4.8
Axial Force, Shear Force and Bending Moment
Diagrams for Determinate Beams and
Frames
5
Analysis of Plane Trusses (5
hours)
5.1
Definition of Truss, Assumption of Ideal Truss,
Types and Uses of Truss in
Engineering
5.2
Statically and Geometrically Stable and Unstable
Truss
5.3
Statically Determinate and Indeterminate Truss,
Degree of Static
Indeterminacy
5.4
Analysis of Truss by the Method of Joint and
Section/ Moment
5 Centre of Gravity, Centroid, Moment of Inertia, and
Mass Moment of Inertia
(5
hours)
6.1 Concepts of
Centre of Gravity and Centroid of Line, Area and Volume
6.2 Second Moment
of Area/Moment of Inertia and Radius of Gyration
6.3
Perpendicular and Parallel Axis Theorem for Moment of Inertia 6.4 Concept of Mass Moment of Inertia
7
Kinematics of Particles (Rectilinear and Curvilinear
Motion) (7
hours)
7.1
Position, Velocity and Acceleration of a
Particle for Rectilinear Motion
7.2
Dependent and Relative Motion of Particles
7.3
Position, Velocity and Acceleration of a
Particle for Curvilinear Motion
7.4
Projectile Motion
7.5
Tangential and Normal Components of Velocity and
Acceleration
7.6
Radial and Transverse Components of Velocity and
Acceleration
8
Kinetics of Particles: Force, Acceleration,
Energy and Momentum (8 hours)
8.1
Newton’s Second Law of Motion, Linear Momentum
and Impulsive Motion
8.2
Equation of Motion and Dynamic Equilibrium
8.3
Angular Momentum and Rate of Change of Angular
Momentum
8.4
Equation of Motion for Rectilinear and Curvilinear
Motion (Rectangular
Components, Tangential & Normal Components and Radial &
Transverse Components) of Particle
8.5
Work and Energy Principle
8.6
Principle of Conservation of Energy, Concept of
Conservative and Non-
Conservative System
8.7
Definition and Types of Impact
9
Kinematics and Kinetics of Rigid Body in Plane
Motion, Energy and
Momentum Methods (7
hours)
9.1
Translation, Rotation and General Plane Motion
9.2
Absolute and Relative Velocity in Plane Motion
9.3
Instantaneous Centre of Rotation
9.4
Equation of Motion: D’Alembert’s Principle
9.5
Angular Momentum of Rigid Body
9.6
Principle of Work and Energy for a Rigid Body
9.7
Kinetic Energy for a Rigid Body
Tutorials
There shall be related tutorials
exercised in class and given as regular homework exercise. Tutorial can be as
following for each specified chapters
1.
Basic Concept of Mechanics and Static
Equilibrium (2 hours)
2.
Forces Acting on Particle and Rigid Body (4 hours)
3.
Friction
(2 hours)
4.
Analysis of Simple Beams and Frames (6
hours)
5.
Analysis of Plane Trusses (3
hours)
6.
Centre of Gravity, Centroid, Moment of Inertia
and Mass Moment of Inertia
(4 hours)
7.
Kinematics of Particles (Rectilinear and
Curvilinear Motion) (3 hours)
8.
Kinetics of Particles: Force, Acceleration,
Energy and Momentum (3 hours)
9.
Kinematics and Kinetics of Rigid Body in Plane
Motion, Energy and
Momentum Methods
(3 hours)
Reference
1.
Beer F.P. and E.R. Johntson “Vector Mechanics
for Engineers”, Tata McGraw Hill Publishing Co.Ltd.
2.
R.C. Hibbler, Ashok Gupta, “Engineering
Mechanics –Statics and Dynamics”, New Delhi, Pearson,
3.
I.C. Jong and B.G. Rogers, “Engineering
Mechanics- Statics and Dynamics”,
4.
R. Suwal, “A Text Book of Applied Mechanics”
Second Edition, Mark Line Publication
5.
H.R. Parajuli and S. Neupane “Applied Mechanics
for Engineers” M.K. Publishers and Distributors
6.
H.R. Parajuli and S. Neupane “Applied Mechanics
II (Dynamics) for Engineers” M.K. Publishers and Distributors
7.
M.R. Dhital, “A Course Manual on Applied
Mechanics I (Statics)”, TU, IOE, CIMDU,
8.
M.R. Dhital, “A Course Manual on Applied
Mechanics II (Dynamics)”, TU, IOE, CIMDU,
9.
Shame, I.H., “Engineering Mechanics- Statics and
Dynamics”, Prentice Hall of India, New Delhi,
10.
D.K. Anand and P.F. Cunnif, “Engineering
Mechanics- Statics and Dynamics”,
11.
R.S. Khurmi, “A Text Book of Engineering
Mechanics”,
12.
Egor. P. Popov “Engineering Mechanics of
Solids”, New Delhi, Prentice Hall of India.
ENGINEERING GEOLOGY I
CE
102
Lecture : 2 Year
: I
Tutorial
: 0 Part
: I
Practical : 1
Course Objectives:
The course will provide the basic
knowledge of engineering geology to the civil engineering students. Students
will be able to understand the fundamental of engineering geology and various
natural process and their influence on the surface as well as sub-surface
features, identification of rocks and their significance, enhance the knowledge
of mountain building process and importance in the field of civil engineering
1
Introduction to Engineering Geology (2
hours)
1.1
Introduction to Geology, its branches, and their
interrelationships
1.2
Definition of engineering geology and its
importance in civil engineering 1.3 Importance
of engineering geology in the context of Nepal
2
Structure of the Earth (3
hours)
2.1
Origin, and internal structure of earth
2.2
Plate tectonics and mountain building process
2.3
Geological time scale and evolution of life
3
Mineralogy and Petrology (7
hours)
3.1
Formation of minerals, crystal morphology,
physical and chemical properties of
minerals
3.2
Rock forming minerals and their engineering
significance
3.3
Formation of rocks and their classifications
3.4
Introduction, classification, structure,
texture, uses, engineering significance and field identification criteria of
igneous rock, sedimentary rock, and
metamorphic rock
4
Structural Geology (8
hours)
4.1
Introduction of geological plane and its
orientation (Dip, Strike, Plunge, and Trend)
4.2
Study of different geological structures:
Primary sedimentary structures (bedding, lamination, cross-bedding, ripple
marks etc.) and secondary structures (Lineation, foliation, folds, joints,
faults, and thrusts)
4.3
Field identification criteria of the different
geological structure with their importance in civil engineering
5
Physical Geology (6
hours)
5.1
Introduction, definition, different geological
agents (river, groundwater, glacier,
wind, and sea water)
5.2
Weathering and erosion, different
geomorphological features produced by geological agents
5.3
Volcanism
6
Geology of the Himalaya (4
hours)
6.1
Evolution of the Himalayas
6.2
Tectonic sub-division of the Himalaya
(Indo-Gangetic Plain, Siwalik, Lesser Himalayas, Higher Himalaya,
Tibetan-Tethys Himalayan zone) and physiographic sub-division of the Himalaya
6.3
Major discontinuities systems and their
engineering significance and engineering geological problems in the different
tectonic sub-division of the Himalaya
Laboratory
1.
Identification of common rock forming minerals
(Quartz, Feldspar, Muscovite, Biotite, Chlorite, Calcite, Dolomite, Tourmaline,
Pyrite, Talc, Fluorite, Apatite, Corundum, Diamond, Kyanite, Sillimanite,
Garnet and clay minerals)
2.
Identification of rocks: Shale, Limestone,
Sandstone, Siltstone, Conglomerate, Slate, Phyllite, Schist, Gneiss, Quartzite,
Marble, Granite, Rhyolite, Gabbro, Basalt, Amphibolite, Syenite)
3.
Study of different geological structures in the
block diagram
4.
Study of maps: Topographic and geological maps,
construction of
geological cross-section and their interpretation
Field works (2 days)
A two-day fieldwork to provide practical on-site knowledge on
preparation and interpretation of engineering geological mapping (measurement
of geological plane using geological compass, identification of minerals and
rocks, geomorphology, and geological structures etc). Students submit report
after the fieldwork (Attendance in Fieldwork is Compulsory).
Reference
1.
A. Holmes (1978). Principles of Physical
Geology”, ELBS English Language Society
2.
Bell, F. G. (2006). Engineering Geology. 2nd
Edition, Elsevier.
3.
Krynine, D., & Judd, W. R. (2005).
Principles of Engineering Geology and Geotechnics. CBS Publishers.
4.
Deoja, B., Dhital, M., Wagner, A., & K.B, T.
(1991). Mountain Risk Engineering Handbooks I and II. ICIMOD.
5.
Dhital, M.R. (2015), Geology of the Nepal
Himalaya, Springer International
Published, Switzerland
6.
Price, D. (2009). Engineering Geology-
Principles and Practice. (M. H. de Freitas, Ed.) Springer.Hoek, E., and Brown,
E.T. (2019). The Hoek-Brown failure criterion and GSI-2018 edition, Journal of
Rock Mechanics and Geotechnical Engineering, 11, 445-463.
7.
Vallejo, L.G.de., Ferrer, M. (2011). Geological
Engineering, Routledge,
Taylor and Francis Group,
CIVIL ENGINEERING MATERIALS
CE 103
Lecture : 2 Year
: I
Tutorial
: 0 Part
: I
Practical : 1
Course Objectives:
To provide students an introductory
knowledge about the wide range of materials used in the construction of
engineering projects. This course emphasizes on the property, defects,
productions, preservation, alternatives and utilities of various civil engineering
materials which would help in selection of the suitable materials for
construction projects. This helps to build a base for the selection, adequate
consideration and precautions in aspect of materials during design and
construction.
1
Basics of Civil Engineering Materials (2
hours)
1.1
Materials used in engineering constructions:
buildings; road and bridges; irrigation and hydropower; water, gas and
petroleum supply
1.2
Classification of materials on various basis:
existence in nature, functions or usage; metallurgy; composition of materials
1.3
Properties: physical; chemical; mechanical;
thermal; optical; electrical; magnetic
1.4
Failure of materials: ductile and brittle
failure
1.5
Factors affecting selection of materials:
properties and performance; attributes and suitability; durability, safety and
requirements; availability, reliability and disposability; and economy and
environment
1.6
Material and environment interactions:
corrosion; weathering; erosion; thermal strain; exposure to moisture, sunlight,
and chemicals
2
Stones (3
hours)
2.1
Classification of rocks and aggregates:
geological, physical and chemical classifications of rocks; introduction to
coarse and fine aggregates
2.2
Properties of stones: physical, chemical and
mechanical properties
2.3
Characteristics of good stones: appearance;
structure; strength; porosity and absorption; weathering; fire resistance;
hardness and toughness; specific gravity; thermal properties
2.4
Selection and use of stones: selection criteria;
various uses of stones in engineering constructions
2.5
Deterioration and preservation of stones:
deterioration and its retardation; preservation and preservatives used in
stones
2.6
Production, storage and handling of stones:
natural bed of stones; selection of quarry site; methods of quarrying; dressing
of stones
3
Clay and Clay Products (3
hours)
3.1
Clay: use of clay in constructions;
classification/types of clays; properties of clays
3.2
Brick earth: constituents; properties, testing
(consistency test; molding property test; deformation and shrinkage test on
burning, strength and quality of brick test)
3.3
Bricks: use of bricks; manufacturing of local
bricks; classification and properties (including) mechanical properties) of
bricks (unburnt and burnt bricks); characteristics of good bricks; standard
tests for bricks (shape and size test; color test; structure test; soundness
test; hardness test; water adsorption test; efflorescence test; compressive
strength test)
3.4
Tiles: use of tiles; manufacturing process of
tiles; types and properties of tiles
(roof tiles, wall tiles, floor tiles, drain tiles); characteristics of good
tiles
3.5
Terracotta, earthenware and glazing: properties;
use; composition; production
3.6
Storage and handling of clay and clay products
4
Lime (2
hours)
4.1
Sources and constituent of limestones:
limestones and stone lime; kankar lime; shell lime; magnesian lime; impurities
in limestones
4.2
Classification/types of limes: quick lime; flat
lime, hydraulic lime, poor lime; hydrated lime; milk lime; lump lime
4.3
Characteristics of lime, hydration of lime,
slaking nature of lime, solidification of lime
4.4
Manufacture/production of lime: Flow diagram of
lime production from limestone and kankar
4.5
Storage, handling and use of different types of
lime
4.6
Types of pozzolanic materials and use with lime:
volcanic ash; calcinated clay
products; clay/kaolin pozzolana; mineral slag; ashes of organic origin
5
Cement (4
hours)
5.1
Fundamentals of cement: ingredients of cement;
type and properties of cement; storage, handling and use of cement;
characteristics of good cement
5.2
Classification of cements: natural and
artificial; different types of cements, their composition, properties and
applications (ordinary Portland cement (OPC), rapid hardening cement, slow
setting cement, Portland pozzolana cement (PPC), white cement, colored cement)
5.3
Manufacture of ordinary cement: dry
manufacturing process; wet manufacturing process
5.4
Tests of cement: field test; laboratory tests
(fineness test, consistency test, initial and final setting time test,
soundness test, compressive and tensile strength test)
5.5
Cement clinkers: compounds of cement clinkers
and their functions in cement
5.6
Hydration of cement and admixtures: function and
examples of admixture like water proofers, accelerators, retarders,
plasticizers, air entraining agents.
6
Mortar (2
hours)
6.1
Function and use of mortar
6.2
Properties of mortar: workability, inertness,
setting and hardening, adhesion
6.3
Types of mortars: classification (on the basis
of binding materials, bulk density, nature of applications; special mortars);
properties and use of different types of mortar
6.4
Preparation, storage and handling of mortar:
hand mixing, machine mixing; storage and handling of mortar
6.5
Selection of mortar for different construction
works: selection criteria; characteristics of a good mortar
6.6
Testing of mortars: crushing strength test, tensile
strength test, adhesiveness test on building unit
7
Timber (3
hours)
7.1
Tree and timber: growth and structure of tree;
properties (including mechanical) and use of timber; defects in timber (during
growth of trees, after felling of trees); characteristics of good timber
7.2
Classification of tree and properties of wood:
hard wood, soft wood
7.3
Seasoning of timber: definition and importance
of seasoning; types of seasoning (natural and artificial seasoning)
7.4
Deterioration and preservation of timber:
deterioration (physical, chemical, biological); types of preservatives; methods
of preservation
7.5
Commercial product of timber: veneers and ply
wood; boards (laminated boards, fiber boards, block boards, and batten boards);
impreg and compreg timbers
7.6
Bamboo: properties (including mechanical) of
bamboo; structural use of bamboo
8
Metals and Alloys (4
hours)
8.1
Metals: classification (ferrous and nonferrous
metals); properties (physical, chemical, mechanical, electrical, thermal,
magnetic)
8.2
Sources, composition, properties and uses of
ferrous metals: pig iron, cast iron, wrought iron, steel, alloys of steel
8.3
Sources, properties and uses of nonferrous
metals: aluminum, copper, lead, tin, zinc, magnesium, nickel
8.4
Heat treatment process and its importance in
metals: annealing, normalizing, quenching or hardening, tempering, surface
hardening (case hardening, nitriding, cyaniding, flame/ induction/laser
hardening), defects in heat treatments
8.5
Commercial forms of metals and their uses:
sheets, channel sections (I, C, angle, tubular), bars
8.6
Corrosion and its prevention in steel: theory of
corrosion and its prevention with enameling; applying metal coatings –
galvanizing, tin plating, electroplating; applying coatings – painting and
tarring.
9
Paints and Varnishes
(3
hours)
9.1
Paints: function and ingredients of paints;
characteristics of good paint
9.2
Type, composition, properties and uses of
paints: Oil paints; Aluminum paints; Asbestos paints; Bituminous paints;
Cellulose paints; Cement paints; Colloidal paints; Emulsion paints; Enamel
paints; Graphite paints; Silicate paints; Anticorrosion paints; Plastic paints;
Synthetic rubber paints; Distempers
9.3
Varnishes: function and ingredients of
varnishes; characteristics of good varnishes
9.4
Type, composition, properties and uses of
varnishes: Oil varnish; Turpentine varnish; Spirit varnish; Water varnish;
Asphalt varnish; Spar varnish; Flat varnish
9.5
Process of application of different paints and
varnishes: application in new surfaces; application in old surfaces
9.6
Defects in paints and varnishes: effects of
background (dampness, cleanness movement reactions); effects of weather
(blistering, peeling, checking, cracking, flaking, chalking, alligatoring,
wrinkling, running and sagging, mildew, bloom, flashing, grining)
10
Miscellaneous Materials (4
hours)
10.1
Asphalt: origin, composition, properties, types
and uses
10.2
Bitumen: origin, composition, properties, types
and uses
10.3
Tar: origin, composition, properties, types and
uses
10.4
Other materials: composition, properties, types
and uses of – glass, plastic materials, rubber materials, insulating materials,
gypsum products, adhesive and sealant materials, anti-termite treatment, water
proofers, geosynthetics , carbon fiber)
10.5
Composite materials: composition, properties,
types and uses of – cement steel reinforced concrete, fiber reinforced
plastics, glass fiber reinforced cement concrete or plastics, metal matrix
composite
10.6
Emerging materials: Calcium silicate bricks;
Concrete blocks; Aerated Autoclave Concrete blocks (AAC blocks); Interlocking
Compressed
Stabilized
Earth Blocks (Interlocking CSEB), panels and boards
Assignments
1.
Various ways to join timbers and metals
2.
Commercially available other new materials used
in constructions
Laboratory
1.
Water absorption test and bulk density, specific
gravity test on brick sample
2.
Compressive strength test of brick and stones
3.
Consistency test of cement
4.
Fineness and soundness test of cement
5.
Setting time test of cement
6.
Compressive strength of cement
7.
Toughness test on steel and timber
Reference
1.
Duggal, S. K. (2008). Building Materials. New
Delhi: New Age International (P) Ltd., Publishers.
2.
Mamlouk, M. S., & Zaniewski, J. P. (2018).
Materials for Civil and Construction Engineers. Harlow: Pearson Education
Limited.
3.
Rajput, R. K. (2004). Engineering Materials. S.
Chand & Company Ltd
4.
Singh, P. (2010). Civil Engineering Materials.
New Delhi: S K Kataria & Sons
Thornton, P. A., & Prentice, V. J. (1985). Fundadmental of Engineering Materials . Hall Publishing company
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