Department of Energy Science and Engineering · 01 Ch 1113 Chemistry I 3 3.00 - - 3.00 02 Ch 1114...

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Department of Energy Science and Engineering

Khulna University of Engineering & Technology

Summary of Undergraduate Courses

FIRST YEAR FIRST TERM

Sl.

No.

Course No. Course Title Theory Sessional Total

Credit Contact

Hours

Credit Contact

Hours

Credit

01 Ch 1113 Chemistry I 3 3.00 - - 3.00

02 Ch 1114 Sessional on Ch 1113 - - 3/2 0.75 0.75

03 Hum 1113 Sociology and Behavioral Science 3 3.00 - - 3.00

04 Math 1113 Differential and Integral Calculus 3 3.00 - - 3.00

05 Ph 1113 Physics 4 4.00 - - 4.00

06 Ph 1114 Sessional on Ph 1113 - - 3/2 0.75 0.75

07 MES 1114 Workshop Practice - - 3/2 0.75 0.75

08 ESE 1100 Engineering Drawing I - - 3 1.50 1.50

09 ESE 1101 Fundamentals of Energy Resources 3 3.00 - - 3.00

10 ESE 1102 Sessional on ESE 1101 - - 3/2 0.75 0.75

No. of Theory Courses: 5 Total Contact hours: T16 + S9.0= 25.0hrs

No. of Sessional Courses: 5 Total Credit:20.50

FIRST YEAR SECOND TERM

Sl.

No.


Credit Contact

Hours

Credit Contact

Hours

Credit

01 Ch 1213 Chemistry II 3 3.00 - - 3.00

02 EE 1213 Electrical Circuits and Electronics 4 4.00 - - 4.00

03 EE 1214 Sessional on EE 1213 - - 3/2 0.75 0.75

04 Hum 1213 Technical English 3 3.00 - - 3.00

05 Hum 1214 Sessional on Hum 1213 - - 3/2 0.75 0.75

06 Math 1213 Differential Equation and Co-

ordinate Geometry

3 3.00 - - 3.00

07 ESE 1205 Thermodynamics for Energy

Engineering

4 4.00 - - 4.00


09 ESE 1200 Engineering Drawing II - - 3 1.50 1.50

No. of Theory Courses: 5 Total Contact hours: T17 + S7.5 = 24.5 hrs


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SECOND YEAR FIRST TERM

Sl.

No.


Credit Contact

Hours

Credit Contact

Hours

Credit

01 CSE 2113 Computer Programming 3 3.00 - - 3.00

02 CSE 2114 Sessional on CSE 2113 - - 3 1.50 1.50

03 EE 2113 Electrical Machines 3 3.00 - - 3.00


05 Math 2113 Linear Algebra and Vector Analysis 4 4.00 - - 4.00

06 ME 2113 Statics and Solid Mechanics 3 3.00 - - 3.00

07 ME 2114 Sessional on ME 2113 - - 3/2 0.75 0.75

08 ME 2115 Fluid Mechanics 3 3.00 - - 3.00


No. of Theory Courses: 5 Total Contact hours: T16 + S7.5 = 23.5


SECOND YEAR SECOND TERM

Sl.

No.


Credit Contact

Hours

Credit Contact

Hours

Credit

01 EE 2213 Power Electronics 4 4.00 - - 4.00


03 Hum 2213 Economics and Accounting 3 3.00 - - 3.00

04 Math 2213 Complex Variables and Fourier

Analysis

3 3.00 - - 3.00

05 ME 2213 Dynamics and Kinematics of

Machineries

3 3.00 - - 3.00


07 ESE 2209 Bio and Wind Energy Engineering 3 3.00 - 3.00


09 ESE 2230 Energy Engineering Simulation I - - 3/2 0.75 0.75


No. of Sessional Courses: 4 Total Credit: 19.00

THIRD YEAR FIRST TERM

Sl.

No.


Credit Contact

Hours

Credit Contact

Hours

Credit

01 Math 3113 Statistics and Numerical Methods 3 3.00 - - 3.00

02 Math 3114 Sessional on Math 3113 - - 3 1.50 1.50

03 EE 3113 Power System Engineering 3 3.00 - - 3.00


05 ESE 3105 Heat and Mass Transfer 4 4.00 - - 4.00


07 ESE 3107 Solar Thermal Engineering 3 3.00 - - 3.00


09 ESE 3123 Thermo-Fluid Devices 3 3.00 - - 3.00




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THIRD YEAR SECOND TERM*

Sl.

No.

Course

No.

Course Title Theory Sessional Total

Credit Contact

Hours

Credit Contact

Hours

Credit

01 ESE 3200 Seminar on Special Topics - - 3/2 0.75 0.75

02 ESE 3202 Energy Innovation Lab - - 3/2 0.75 0.75

03 ESE 3203 Petroleum and Natural Gas

Processing

3 3.00 - - 3.00


05 ESE 3207 Solar Photovoltaic Systems 3 3.00 - - 3.00


07 ESE 3211 Coal Power Generation 4 4.00 - - 4.00

08 ESE 3217 Instrumentation and Control 3 3.00 - - 3.00


10 ESE 3221 Energy Storage Systems 3 3.00 - - 3.00


12 ESE 3250 Industrial Attachment - - - - 0.00



FOURTH YEAR FIRST TERM

Sl.

No.


Credit Contact

Hours

Credit Contact

Hours

Credit

01 ESE 4000 Project & Thesis - - 3 1.50 1.50

02 ESE 4105 Fuel Combustion and IC Engines 3 3.00 - - 3.00


04 ESE 4115 Power Plant Engineering 3 3.00 - - 3.00


06 ESE 4125 Safety and Environmental Aspects

of Energy Projects

3 3.00 - - 3.00


08 ESE 4130 Energy Engineering Simulation II - - 3/2 0.75 0.75

09 ESE 40-- Optional I 3 3.00 - - 3.00

10 ESE 40-- Optional II 3 3.00 - - 3.00

No. of Theory Courses: 5 Total Contact hours: T15 + S9 = 24 hrs


FOURTH YEAR SECOND TERM

Sl.

No.


Credit Contact

Hours

Credit Contact

Hours

Credit

01 ESE 4000 Project & Thesis - - 6 3.00 3.00

04 ESE 4213 Nuclear Power Engineering 3 3.00 - - 3.00

ESE 4214 Sessional on ESE 4213 - - 3/2 0.75 0.75

05 ESE 4219 Energy Audit and Management 3 3.00 - - 3.00


07 ESE 40-- Optional III 3 3.00 - - 3.00

08 ESE 40-- Optional IV 3 3.00 - - 3.00

ESE 40-- Optional V 3 3.00 - - 3.00

No. of Theory Courses: 5 Total Contact hours: T15 + S9 = 24 hrs


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List of Optional Courses:

Sl. No. Course No. Course Name Contact Hour Credit

1 ESE 4001 Modern Fuel Technology 3 3.0

2 ESE 4003 Hydrogen and Fuel Cells 3 3.0

3 ESE 4005 Hybrid and Electric Vehicles 3 3.0

4 ESE 4007 Smart Grid Technology 3 3.0

5 ESE 4011 Materials for Energy Engineering Applications 3 3.0

6 ESE 4013 Energy in Built Environment 3 3.0

7 ESE 4015 Energy System Design and Optimization 3 3.0

8 ESE 4017 Energy Efficiency Assessment 3 3.0

9 ESE 4021 Process Equipment Design 3 3.0 10 ESE 4023 Computational Fluid Dynamics 3 3.0 11 ESE 4025 HVAC&R System Design 3 3.0 12 ESE 4027 Energy and Process Integration 3 3.0

13 ESE 4029 Piping Systems Design 3 3.0

14 ESE 4031 Power Plant Instrumentation and Control 3 3.0

15 ESE 4033 Nuclear Thermal Hydraulics 3 3.0

16 ESE 4035 Industrial Hazard and Safety Management 3 3.0

17 ESE 4041 Fundamentals of Mechatronics 3 3.0 18 ESE 4043 Electro-Mechanical Energy Conversion 3 3.0

19 ESE 4045 Engineering System Dynamics and Simulation 3 3.0

20 ESE 4051 Fundamentals of Cryogenic Engineering 3 3.0 21 ESE 4061 Computational Engineering and Data Science 3 3.0

22 ESE 4071 Natural Gas Processing Technology 3 3.0

23 ESE 4073 Natural Gas Transmission and Distribution 3 3.0

24 ESE 4075 Energy Project Development and Evaluation 3 3.0

25 ESE 4077 Energy Modeling and Project Management 3 3.0

26 ESE 4081 Introduction to Petroleum Engineering 3 3.0

27 ESE 4083 Petroleum Refining Technology 3 3.0

28 ESE 4085 Mineral Energy Resources 3 3.0

29 ESE 4091 Safety and Reliability Analysis 3 3.0

30 ESE 4093 Atmosphere, Ocean and Climate Dynamics 3 3.0

Approval:

1. Detailed outline of first year first term was approved in the 54th meeting of the academic council.

2. Detailed outline of first year second term was approved in the 55th meeting of the academic council.

3. Detailed outline of 2nd year first and second term was approved in the 57th meeting of the academic council.

4. Course structure was approved in the 57th meeting of the academic council. 5. Detailed outline of 3rd year first and second first term was approved in the 61st meeting of the academic

council. 6. Course titles of ESE 4105, ESE 4013 were modified in the 66th meeting of the academic council 7. Three optional courses (ESE 4017, ESE 4075 and ESE 4077) were approved in the in the 61st meeting of the

academic council. 8. Detailed outline of 4rd year first and second term was approved in the 61st meeting of the academic council.

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Detailed Outline of Undergraduate Courses

FIRST YEAR FIRST TERM

Ch 1113 Chemistry I Credit: 3.0 Contact hour: 3 hrs/week

Chemical Equilibrium: Law of mass action, equilibrium constant, magnitude of equilibrium constant and the

direction of reaction, factors affecting equilibrium constant, Le Chatelier’s principle. Numerical values of equilibrium

constant.

Electro-Chemistry: Electrolytes; Nernst theory of electrode potential, type of electrodes and electrode potentials,

EMF measurement, polarization and over potentials; Origin of EMF, free energy and EMF, electrical double layer,

factor affecting electrode reaction and current, Modes of mass transfer, Lithium and lithium ion battery, Transport

number; pH value and its determination; Electrode potentials, electroplating and galvanizing; Fuel cell, Voltammetry.

Nuclear Chemistry: Nuclear binding energy, Radioactivity and nuclear reactions, patterns of nuclear stability;

Nuclear transmutations, nuclear model, energy changes in nuclear reactions; Nuclear fission, nuclear fusion; Nuclear

reactor, nuclear force, methods of separation of isotopes, applications of isotopes.

Chemistry of polymer: Basic concepts of polymer and polymerization, co-polymerization, ionic polymerization,

living polymer and their structures; Concepts of plastics, rubbers and fibers; glass transition temperature, average

molecular weight and molecular weight distribution; Properties of macromolecules, conducting polymer, optical

fiber.

Industrial chemistry: Solid, liquid and gaseous fuels; Coal and its constituents, calorific value of coal and other

fuels, refining and distillation of crude oil, motor and aviation fuels, thermal and catalytic cracking, petroleum and

petrochemicals, natural gas and its composition, purification and utilization, LPG gas,.

Environmental chemistry: Environment and its characteristics, Heavy metal contamination, Chemistry of toxic

metal and non-metal pollutants, Quality of natural water, classes of polluted water, DO, BOD, COD, hydrocarbons,

ozone and ozone layer depletion, environmental effects of the oxides of carbon, nitrogen and sulfur.

Ch 1114 Sessional on Ch 1113 Credit: 0.75 Contact hour: 3/2 hrs/week

Hum 1113 Sociology and Behavioral Science Credit: 3.0 Contact hour: 3 hrs/week

Sociology

Introduction: Definition, origin and development of Sociology and its perspectives; Impact of Sociology on

engineering.

Fundamental concepts: Society, Group, Socialization and Personality development, Family, Marriage, Social

structure, Social stratifications; Community and Association; Mob property.

Culture: Culture and civilization, culture and biology, Cultural diffusion, cultural lag, elements of culture.

Industrialization and Urbanization: Industrial revolution and its impact, Urbanization and its consequences, urban

ecology, urban social problems; Industrialization in Bangladesh.

Social and Environmental Issues: Pre-industrial and industrial society; Deviance and social control, Population and

environment; Social change and its agents; Poverty, Beggary, Crime, Immoral income and Juvenile delinquency.

Ethics: Meaning of ethics, professional ethics and codes, its positive and negative faces, psychological basis of

ethics.

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Behavioral Science

Organizational Behavior and Health: Training and development in organizations; training needs analysis; models

of training evaluation; Employee relations; psychological contract at work; motivation theories: models and

applications; job satisfaction and performance; quality of working life; counseling and age at work; impact of

unemployment.

Assessing People for Work: Organization design; organization structure and performance; organization development

and change; psychological basis of resistance to change; culture and climate in organizations; leadership styles and

models; work groups and team effectiveness at work; team building models and validation evidence; inter-group

cooperation and conflict in organizations; business strategy at work; organizations and their environments.

Math 1113 Differential and Integral Calculus Credit: 3.0 Contact hour: 3 hrs/week

Differential Calculus

Basics: Function and its representations; its domain and range; graph of common function families: power function,

exponential and logarithmic function, sine and cosine function; Basic concepts of limit, continuity of a function with

emphasis on piecewise defined functions from geometric and algebraic point of view; Derivative of function from

geometric, algebraic and physical point of view, Review of differentiation techniques: power function, exponential

and logarithmic functions, trigonometric and inverse trigonometric functions, differentiation of products and

quotients and chain rule of differentiation; Differential calculus of hyperbolic and inverse hyperbolic functions.

Application and Existence theorems: Implicit differentiation; Related Rates problems; Differentials, linear

approximation (tangent line approximation), and error propagation; Maxima, minima, and optimization problems;

Rolle’s Theorem, Mean Value Theorem, Corollaries of Mean Value Theorem, Taylor’s Theorem, approximation of

functions using Taylor’s polynomials, and Maclaurin Series.

Partial Differentiation and Curvature: Functions of two or more variables, level curves, and contour plots; Partial

differentiation and its geometrical, analytic, and physical interpretation; Chain rule of partial differentiation, equation

of tangent plane, and total differential; Curvature, radius of curvature, and center of curvature.

Integral Calculus

Basics: Review of indefinite integration rules for power, exponential, logarithmic, trigonometric, inverse

trigonometric, hyperbolic and inverse hyperbolic functions; Definite integrals, its properties; Riemann Sum and its

interpretation in definite integrals; Fundamental theorems of calculus; Mean value theorem for integrals and average

value of a continues function.

Techniques of Integration: Integration by substitution; Integration by parts; Integration of rational function by

partial fractions; Integration by trigonometric substitutions; Integration by successive reduction; Differentiation under

the sign of integration, Integration under the sign of integration; Gamma and beta functions.

Application of Integration: Area between two curves; Volume by Slicing (disks and washer technique), volume by

revolution about 𝑥 and 𝑦 asis, volume by cylindrical shells; Length of a plane curve; Area of a surface of revolution.

Ph 1113 Physics Credit: 4.0 Contact hour: 4 hrs/week

Wave and Oscillations: Wave and composition of simple harmonic motion, average value of kinetic and potential

energies of a harmonic oscillation, superposition of simple harmonic motions; Types of wave: progressive and

stationary wave, energy distribution due to progressive and stationary wave, interference of sound wave.

Damped and Forced Harmonic Oscillator: Damped oscillatory system, damped harmonic oscillation, the LCR

circuit, forced vibration, quality factor of forced oscillator, sharpness of resonance, phase of driven oscillator, power

absorption.

Particle Properties of Waves: Photoelectric effect, Quantum theory of light, Compton Effect.

Wave Properties of Particles: De Broglie hypothesis, nature of De Broglie waves, phase velocity and group

velocity.

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Atomic Structure: Bohr’s atom model, Nature of electron orbits, Orbital energy, origin of spectral lines, different

series of spectral lines of Hydrogen, Orbital energy level diagram of hydrogen atom, Correspondence principle,

Vector atom model, Orbital states, space quantization, span quantization, Magnetic moment of orbital electron,

Quantization of magnetic moment, Electron shell.

Solid State Physics: Structure of crystals, Classification of solids, Einstein’s model of the lattice, specific heat of the

solids, Debye’s model of the lattice heat capacity. Debye’s approximation of high temperature and low temperature;

Outstanding properties of metals, Thermal conductivity, Momentum space, Fermi-Dirac distribution, Quantum theory

of Free electron, escape of electron from a metal, Importance of Hall effect, Hall Voltage, and Hall coefficient,

Mobility, Hall angle and drift velocity, velocity of electron according to Band theory.

Nuclear Physics: Introduction, nuclear constituents, nuclear properties, binding energy, packing fraction, nuclear

force, fission and fusion process.

Radioactivity: Introduction to radioactivity, Laws of radioactive disintegration, half-life, Mean life, Laws of

successive disintegration, Detection of radioactivity, Practical application of radioactivity, Biological effects of

radiation, Safety measures in radioactivity.

Ph 1114 Sessional on Ph 1113 Credit: 0.75 Contact hour: 3/2 hrs/week

Experiments based on the theory of Ph 1113.

MES 1114 Workshop Practices

Credit: 0.75 Contact hour: 3/2 hrs/week

Acquaintance with tools and equipment used in machine shop; Practice of different operations on Lathe, Shaper,

Drilling and Grinding machines.

Acquaintance with tools and machines used in welding shop, practices on Arc and Gas welding.

ESE 1100 Engineering Drawing I Credit: 1.50 Contact hour: 3 hrs/week

Fundamental principles and applications of Orthogonal projection; Oblique projection; Isometric projection;

Auxiliary projection; Orthographic and auxiliary projection from pictorial views; pictorial projection from

orthographic views, Development of objects.

Fundamentals of building drawings, plan, elevation and sectional drawing.

Reference Book:

1. Mechanical Drawing by T. E. French, C. L. Svensen, J. D. Helsel and B. Urbanick, 10 th Edition.

2. Eng. Drawing and Graphic Technology by T. E. French, C. J. Vierck and R. J. Foster, 14 th Edition.

ESE 1101 Fundamentals of Energy Resources Credit: 3.0 Contact hour: 3 hrs/week

Energy Sources and potential

Earth energy cycle; Sources of energy for domestic, transportation, agriculture and industrial sector; History of

energy usages, forms of energy, present consumption; Types of resources: conventional, non-conventional,

commercial, non-renewable and renewable; Current status of conventional and non-conventional sources, World and

Bangladesh scenario;

Non-renewable Energy Sources

Definition and types; Coal: Formation of coal, potential, classification, exploration and uses; Oil: Formation,

characteristics; potential, basic properties and grading; Natural Gas: Formation, potential and uses; Oil shale and tar

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sands; Nuclear Resources: Types, potential and uses; Comparison of various conventional energy sources, their

prospects and limitations.

Renewable Energy Sources

Definition; Solar Energy: formation, solar irradiance, solar constant, extraterrestrial and terrestrial radiation,

applications, solar thermal conversion, solar heating and cooling; Solar photovoltaic: Basic operation, semi-

conductor devices, electrical characteristics; Biomass Energy: Definitions, resource potential, characteristics,

biochemical and thermo-chemical conversion, charcoal production, biogas, ethanol fermentation, producer gas;

Hydro Power: Resources, potential, applications, hydroelectricity; Wind Energy: Formation, potential and uses;

Types of wind turbines; Other Energy Sources: Geothermal Energy; Thermal Energy Conversion (OTEC), Wave

Energy, Tidal Energy.

ESE 1102 Sessional on ESE 1101


Sessional based on the theory of ESE 1101.

FIRST YEAR SECOND TERM

Ch 1213 Chemistry II

Credit: 3.0 Contact hour: 3 hrs/week

Chemical Kinetics: Order and molecularity of reaction, rate equations, for zero, first, second and third order reaction.

Theories of reaction rates. reaction in solutions, kinetic model for non-elementary reactions.

Photochemistry: Photon, law of photo chemistry, absorption law and mechanism of photochemical reaction,

fluorescence, phosphorescence and chemiluminescence.

Organic chemistry: Hybridization of orbitals, electrophiles, nucleophiles and free radicles, isomerism, geometrical

and optical isomers, polymerization, introduction to biochemical engineering and concept of biological catalysis,

nature of microorganisms, their requirements and classification, industrially important microorganisms. Kinetics of

enzyme catalyzed reactions. Batch fermentation: yield coefficients for biomass and product formation, rates of

reaction, growth, limiting substrate concentrations.

Corrosion: Introduction to corrosion, chemical corrosion, electrochemical corrosion of metals, corrosion rates, types

of corrosion with properties and phenomenon, Factor affecting corrosion, corrosion in contact to soil, prevention of

corrosion.

Adsorption and Catalysis: Adsorption, types of adsorption, Adsorption isotherms; Fruendlich, Langmuir, and BET

isotherms, Catalysis.

Spectroscopy: Basic concept of Spectroscopy, Electronic, vibrational and rotational spectroscopy.

EE 1213 Electrical Circuits and Electronics Credit: 4.00 Contact hour: 4 hrs/week

Electrical Circuits

Introduction: Voltage, current, power, energy, independent and dependent sources, resistance. Basic laws: Ohm’s

law, Kirchhoff’s current and voltage laws, Joule’s law. Simple resistive circuits: Series and parallel circuits,

voltage and current division, Wye-Delta transformation.

Techniques of circuit analysis: Nodal and mesh analysis. Network theorems: Source transformation, Thevenin’s

and superposition theorems with applications in circuits having independent and dependent sources, Maximum

power transfer.

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Energy storage elements: Inductors and capacitors, series & parallel combination of inductors and capacitors.

Alternating Current circuits: Instantaneous, average and R.M.S values, complex impedance and phasor algebra. Real,

reactive and apparent power, power factor. Series and parallel RL, RC and RLC circuits. Series and parallel

resonance, energy analysis at resonance.

Electronics

Semiconductors: Intrinsic Semiconductors: Crystal and energy band diagram, conduction in semiconductors,

Electron and hole concentration. Extrinsic semiconductors: n-type doping, p-type doping, and compensation doping.

Drift and diffusion current, Mobility and Conductivity. The potential barrier; work function; contact potential.

Semiconductor diode characteristics: Qualitative and Quantitative theory of the p-n junction as a diode; Ideal pn

junction, pn junction band diagram, current components in p-n diode; Volt-ampere characteristics; Reverse

breakdown; Avalanche and Zener breakdown; Zener diode, Special-Purpose Diodes: Schottky diode, Current

regulator diode.

Introduction to Logic and Digital Circuits: Logic operations, Basic gates; OR, AND, NOT, NAND, NOR,

X-OR; Flip-Flops; Shift registers; Counter; Binary and BCD code, Comparators.

EE 1214 Sessional on EE 1213 Credit: 0.75 Contact hour: 3/2 hrs/week

Experiments based on the theory of EE 1213.

Hum 1213 Technical English


Vocabulary and Structure: Better reading skills, better writing skills, better speaking skills, word formation; roots,

prefixes, suffixes, phrases and idioms; synonyms and antonyms; simple structures, complex and compound structure;

Clauses, Identification and analysis of clauses, Notional language, Grammatical problems.

Comprehension and Composition: Paragraph writing technique, formal and informal report writing, commercial

correspondence; Memo, Letter; Application writing; Tender writing; Free composition writing; Précis writing; Term

paper and Thesis/project report writing technique.

Hum 1214 Sessional on Hum 1213


Practical learning based on Hum 1213.

Math 1213 Differential Equation and Co-ordinate Geometry


Differential Equations

First-order ODEs: Introduction, Definition of differential equation, Classification based on type, order and linearity;

General solution, initial and boundary value problem; Solution methods for Fist-order differential equations:

Separable differential equations, Linear differential equations; Solution using integrating factors; Exact differential

equations; Homogeneous differential equations; Modeling using first-order equations: Electric circuits, Newton’s law

of cooling, Radioactive decay.

Second-order ODEs: Solutions of linear homogeneous equations with constant coefficients; Solution of linear non-

homogeneous equations by various methods (general method, method of variation of parameters, and short method);

Modeling using second-order equations: Free oscillation, Forced oscillations, RLC-circuits.

Laplace Analysis: Definition and existence condition of Laplace transform. Properties of Laplace transform;

Transform of elementary functions; Inverse Laplace transform and its properties; Convolution; Solution of ordinary

and Laplace transform.

Co-ordinate Geometry

Two-dimensional geometry: Review of Cartesian and Polar co-ordinate systems, Transformation of co-ordinates:

translation and rotation; General Equation of second degree; Identification of conics with their properties.

Vector geometry: Study of Cartesian, Cylindrical polar and Spherical polar coordinate systems, their mutual

conversion; Review of vector algebra, dot product, cross product; Distance between two points; Equation of line in

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three-dimensions using vectors, symmetrical form of a straight line, equation of plane using vectors; Angle between

line and plane, shortest distance between two lines, perpendicular distance of a point from a plane, angle between two

planes.

Reference Books:

1. Advanced Engineering Mathematics by Erwin Kreyszig

2. Advanced Modern Engineering Mathematics – by Glyn James

3.Thomas’ Calculus – by George B. Thomas, Maurice D. Weir, Joel Hass, and Frank R. Giordano

ESE 1205 Thermodynamics for Energy Engineering


Introduction and Basics: Macroscopic and microscopic viewpoints of thermodynamics; Definition of

thermodynamic terms; Thermodynamic system; Heat and work and their path dependence; Pure substance and phase,

property and phase diagrams, p-V-T surface; Ideal gas, its equation of state, law of corresponding states.

Laws of thermodynamics: Zeroth law; First law and its mathematical forms, its application in closed and open

system for different processes; Second law and its mathematical forms, heat engine and Carnot’s principles, Clausius

inequality, application of second law in closed and open systems.

Exergy Analysis: Definition and basic concepts of exergy, specific exergy; Exergy analysis of closed systems;

Exergy analysis of open systems; Exergetic (second law) efficiency.

Thermodynamic Relations: Virial, Van Der Waals, Redlich-Kwong (RK), and Soave-Redlich-Kwong (SRK)

equation of state; Exact differentials and their properties, Maxwell relations; Volume expansivety, isothermal

compressibility, isentropic compressibility, velocity of sound, Joule-Thomson coefficient.

Thermodynamic Cycles Analysis: Carnot cycle; Rankine cycle, improving performance by superheat and reheat;

Regenerative cycle; Air-standard Otto, Diesel cycle, Dual cycle, and Brayton cycle; Vapor compressional

refrigeration cycle; Absorption refrigeration cycle.

Mixture of Gases and Vapors: Mixture of ideal gases, gravimetric and volumetric analysis; Dalton’s law of partial

pressure, volume and enthalpy of gaseous mixture; Isentropic process with gaseous mixtures; Adiabatic saturation

process; Psychrometry: dry and wet bulb temperatures, specific humidity, relative humidity, dew point temperature,

degree of saturation; Psychometric chart and its uses.

Reference Books:

1. Fundamentals of Engineering Thermodynamics – by Michael J. Moran, Howard N. Shapiro, Daisie D. Boettner,

and Margaret B. Bailey

2. Thermodynamics an Engineering Approach – by Yunus A. Cengel and Michael A. Boles

3. Thermodynamics – by Gregory Nellis and Sanford Klein

4. Basic and Applied Thermodynamics – by P.K. Nag


Credit: 0.75 Contact hours: 3/2 hrs/week

Experiments based on the theory of ESE 1205.

ESE 1200 Engineering Drawing II


Working Drawing of machine elements with sectional views, Sub-assembly and assembly drawing; Pipes and pipe

fittings; Electrical circuit diagrams. These will be implemented using CAD Software.

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SECOND YEAR FIRST TERM

EE 2113 Electrical Machines


Magnetic circuits: Flux, permeability and reluctance, magnetic field strength, magnetic potential, flux density,

magnetization curve. Laws of magnetic circuits: Ohm’s law and Ampere’s circuital law.

DC Generators: EMF equation, Principle of DC generators, description of different parts of DC generators,

classification, Different types of winding, Armature reaction, losses and efficiency, parallel operation of DC

generators.

DC Motor: Principle of operation, classification, losses and efficiency, Starting, Separately excited DC motor,

Permanent magnet DC motor, speed control of DC motor.

Transformer: Constructional features and principles of operation, equivalent circuit, losses and efficiency. Three

phase transformer: Construction and operation, 3-phase connection of transformers. Short circuit test and open circuit

test.

Induction Motor: Rotating magnetic field, general principles, construction, equivalent circuits, squirrel cage and slip

ring motors, torque developed, applications of single phase induction motor.

Alternators: Construction, theory of operation, armature windings, voltage regulation, armature reaction and

reactance, control of excitation, losses and efficiency, synchronizing and load sharing, parallel operation, low

power single-phase alternator.

EE 2114 Sessional on EE 2113



Math 2113 Linear Algebra and Vector Analysis


Linear Algebra

Basics: System of linear equations; matrix equation, vector equation; Gaussian elimination; row reduction and

echelon forms; Matrices (rectangular, square, row, column, diagonal, triangular, symmetric, skew-symmetric) and

Matrix Operations (equality, arithmetic product, transpose, trace); Determinants by cofactor expansion; Inverse of a

matrix and inverse using adjoins.

Vectors and Vector Spaces: Representation of vectors: tuple, column matrix, row matrix; Definition of vector space

and its axioms; Subspaces; Linear dependency and independency, Basis and dimension of a vector space, Row space,

column space and nullspace; Rank and nullity; Euclidian 𝑛-space and its properties, Euclidian inner product and

norm, Cauchy-Schwarz inequality in ℝ𝑛; Linear transformations and it’s properties; Application of Linear

transformation in reflection, projection, rotation, dilation and contraction.

Eigenvalues and Eigenvectors: Definition of eigenvalue and eigenvectors; Characteristic equation and characteristic

polynomial, Evaluation of eigenvectors and bases for eigenspace; Diagonalization; Orthogonal diagonalization.

Vector Analysis

Vector-valued functions: Definition of vector-valued functions, their geometrical representation-space curves;

Differentiation rules for vector-valued functions; Integration rules for vector-valued functions. Space curve analysis:

unit tangent vector, unit normal vector, unit binormal vector.

Gradient, Divergence, Curl: Definition, graphical representation of functions with two and three variables, level

curves, level surface, contour curves, contour surfaces; Definition of scalar field with examples; Review of partial

differentiation; Directional derivative and its geometrical interpretation, Gradient of a function of several variables,

Geometrical interpretation of gradient and gradient field; Equation of tangent plane, Vector fields: Definition and

examples, Partial derivatives of vector fields, Divergence and curl of vector fields.

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Vector Integration: Line integrals, surface integrals, volume integrals, double integration and triple integration;

Jacobean of the transformation; Stokes’ theorem, Greens’ theorem, divergence theorem of Gauss and problems

related to them.

Reference Books:

1. Elementary Linear Algebra by Howard Anton, Chris Rorres.

2. Linear Algebra and Its Applications by David C. Lay

3. Vector Analysis – by Murray R. Spiegel, Seymour Lipschutz, and Dennis Spellman

4. Thomas’ Calculus – by George B. Thomas, Maurice D. Weir, Joel Hass, and Frank R. Giordano

ME 2113 Statics and Solid Mechanics


Statics:

Introduction: Fundamental concepts and principle of transmissibility; Resolution of force into components;

Resultant of concurrent force systems; Free body diagram, Equilibrium of a particle.

Equilibrium of rigid bodies: Non-concurrent force system, Moment of a force, equilibrium of non-concurrent and

parallel force systems; Moment of a couple; equivalent couple; force couple systems; reduction of forces system to

force couple system; Analysis of structure: Trusses.

Center of gravity: Centroid of area and volume, Pappus-Guldinus theorem.

Moment of inertia: Inertia of area and mass; radius of gyration; parallel axes theorem; product of inertia.

Law of friction: Equilibrium under frictional resistance, sliding friction; Wedges, belt frictions.

Solid Mechanics:

Stress and Strain: Introduction; Analysis of internal forces; Tensile, compressive, bearing and shearing stresses;

Stresses in thin-walled pressure cylinder; Stress-strain diagram; Axial and biaxial deformations; Thermal stresses.

Statically Determinate Beams: Different types of loading and supports; Shear force and bending moment diagrams;

Stresses in beams, flexure formula, economic sections, shearing stresses in beams, general shear formula; variation of

shearing stresses in beams; Deflection of beams, double integration.

Torsion: Introduction; Torsion formula; Angle of twist; Shaft couplings and helical springs; Analysis and design of

circular shaft.

Columns: Introduction; Critical load, slenderness ratio and classification of columns; Euler’s formula.

Reference. Books:

1. Vector Mechanics for Engineers: Statics – by Ferdinand P. Beer & E. Russell Johnston, Jr.

2. Mechanics of Materials – by R.C. Hibbeler

3. Strength of Materials – by Andew Pytel and Ferdinad L. Singer

ME 2114 Sessional on ME 2113


Experiments based on the theory of ME 2113.

ME 2115 Fluid Mechanics


Introduction and Basics: Definition of a fluid and fluid mechanics, fluid as a continuum, Fundamental concepts:

Stress and rate of strain, Viscosity and Newton’s law of viscosity, No-slip and no-temperature jump condition, scalar

and vector fields; Important Fluid properties; Fluid forces: body and surface forces, their mathematical representation.

Fluid Statics: Condition for fluid statics, pressure at a point, basic equation for pressure field, pressure variation in

fluid at rest; Manometers: U-tube, inclined-tube, Bourdon pressure gage; Buoyancy.

Fluid Dynamics and Bernoulli Equation: Lagrangian and Eulerian view of fluid flow, Velocity field, Acceleration

field, Material derivative; Classification of fluid motion; Concept of streamlines and streamtubes, Pathlines,

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Streaklines, and timelines; Deformation of fluid elements, Vorticity, and Rotationality; Continuity equation, Euler

equation; Navier-Stokes equation; Bernoulli’s equation: derivation, application along and across streamlines, its

limitations; Static, dynamic, and stagnation pressures; Energy grade line and Hydraulic grade line.

Control Volume Analysis: Reynolds transport theorem: derivation and interpretation; Concept of systems and

control volumes, Derivational and application of integral forms of conservation laws for mass, energy, linear

momentum, and angular momentum.

External Viscous Flow: General characteristics of flow past an object and concept of boundary-layer, boundary-

layer thicknesses; Momentum integral equation boundary-layer analysis: flow with zero pressure gradient, flow with

pressure gradient; Concept drag and drag coefficient, friction drag, pressure drag, streamlining; Concept of

circulation, lift, and lift coefficient.

Reference Books:

1. Fluid Mechanics by Yunus A. Cengel and John M. Cimbala. 3rd Edition

2. Fundamentals of Fluid Mechanics by Bruce R. Munson, Donald F. Young, Theodore H. Okiisi, and Wade W.

Huebsch, 6th Edition

3. Introduction to Fluid Mechanics by Robert W. Fox, Philip J. Pritchard, and Alan T. McDonald. 8 th Edition




CSE 2113 Computer Programming


*Out of two only one programming language will be adopted based on department’s decision during a particular term

Programming with C

Introduction: Programming languages, compilers, and pseudo-compilers.

Programming paradigm: Structured, object oriented programming, structure of C++ programming.

Data Types and Operator: Declaring variables of different data types and doing different types of operations on them, facing

problems when internal result of calculation crosses the boundary of a data type.

Data Input/Output: Variation and formats of getting input and giving output.

Debugging: Program debugging and testing.

Control Statements: Implementation of all types of control statement structures such as if, else-if, nested else-if, switch,

goto, while, do-while, for, etc.

Arrays: single and multi- dimensional arrays and their applications: matrix manipulation, sorting of data; String: finding

vowel and consonant from a given string, detecting palindrome, counting words of a string, reversing each words of a sentence,

using different functions of string.h library.

Functions: Doing some previous problems using function, passing arguments by value and by reference.

Recursion: Find Greatest Common Divisor, Fibonacci, Factorial, and Tower of Hanoi.

Program Structure: Use static and global variable.

Pointers: Dynamic memory allocation, arrays of pointers, passing pointers to a function;

Structures and Unions: Data processing using structures and union, linked lists;

File: Opening, closing, creating and processing data files. Introduction to low-level programming

Or

Programming with Octave

Introduction: Programming languages, compilers vs. pseudo-compilers, octave as programming language.

Octave environment: named variables, numbers and formatting, number representation and accuracy, loading and saving

data, repeating previous commands, getting help, cancelling a command, semicolons and hiding answers.

Arrays and vectors: building vectors, colon notation, displaying large vectors and matrices, vector creation functions,

extracting elements from a vector, vector math.

Plotting graphs: single graph, multiple graphs, multiple figures, manual scaling, saving and printing figures.

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Script files: creating and editing a script, running and debugging scripts, remembering previous scripts.

Control statements: if...else selection, switch selection, for loops, while loops, accuracy and precision.

Functions: creating and using functions.

Matrices and vectors: matrix multiplication, the transpose operator, matrix creation functions, building composite matrices,

matrices as tables, extracting bits of matrices.

Solving Ax = b: Solution when A is invertible, Gaussian elimination and LU factorization, Matrix division and the slash

operator, Singular matrices and rank, Ill-conditioning, Over-determined systems: Least squares, Triangulation.

Eigenvectors and the Singular Value Decomposition: The eig function, The Singular Value Decomposition; Approximating

matrices: Changing rank, the SVD function, Economy SVD.

Complex numbers: Plotting complex numbers, finding roots of polynomials.

CSE 2114 Sessional on CSE 2113


Experiments based on the theory of CSE 2113.

SECOND YEAR SECOND TERM

EE 2213 Power Electronics


Transistor: Transistor and its current components, BJT characteristics and different regions of operation, different

transistor configurations, transistor as a switch and amplifier, transistor biasing, DC and AC load lines, thermal

stabilization.

FET: Introduction, Construction and characteristics, MOSFET: depletion type and enhancement type, biasing.

Semiconductor power devices: SCRs, TRIACS, power MOSFET and IGBT, DIAC.

AC to DC controlled converter: Single phase and three phase half wave, full wave and semi-converter, phase

control, characteristics, harmonics, power factor control and converter triggering circuits.

AC to AC controlled converter: On-off and phase control, single phase and three phase power controllers and

cycloconverter.

DC to DC converter: Chopper, characteristics and operation of step up and step down choppers, switching converter

and power regulators.

Inverter: Three phase and single phase voltage source and current source inverters, modulation techniques, voltage,

frequency and harmonic control, PWM inverters, resonant converter, space vector modulation in three phase

inverters.




Hum2213 Economics and Accounting


Economics

Micro Economics: Definition and principle of economics; Basic economic ideas and resources allocation in different

economic systems; Production possibility curves; Elasticity of demand and supply analysis; Price system and micro

economy; Price determination, cost of production and market behavior analysis; Government microeconomic

intervention; production, production function, types of productivity; Internal and external economics and

diseconomies.

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Macro Economics: National income analysis, savings and investment; inflation and monetary policy; Fiscal policy

and trade policy with reference to Bangladesh; NPV, IRR, payback period, cost benefit ratio and their application.

Energy Project Appraisal: Causes and analysis; Social and environmental cost and benefit analysis of energy

projects and their impact analysis.

Accounting

Introduction: Meaning and Importance of Accounting.

Accounting Equations: Some relevant accounting principles;

Accounting Cycle: Journal–Ledger, Trial balance, Final Financial Accounts (Income statement and balance sheet),

Considering adjustment of entries.

Depreciation: Methods of depreciation, straight line and reducing balance method.

Costing: Concept and classification of costs; Labor, overhead and job costing; Marginal costing; Operating costing;

Salaries and wages.

Math 2213 Complex Variables and Fourier Analysis

Credit: 3.0 Contact hours: 3 hrs/week

Complex Analysis: Functions; limits; continuity; complex differentiation, analytic function, Cauchy Riemann

equation, harmonic function, orthogonal family of curves; Singular points, Complex integration, Cauchy’s theorem,

Cauchy’s integral formula.

Bessel’s Function: Bessel’s differential equation; Bessel’s function of first kind, its properties and recurrence

relations.

Fourier Analysis: Euler Fourier series representation of function, Condition for existence of Fourier Series, Fourier

series of different periods, Fourier series for even and odd functions, half range Fourier Series, complex form of

Fourier series, Parseval’s theorem

Partial Differential Equations: Formation and classification of PDEs; Solution of one dimensional heat equations;

Solution of Laplace’s equation in 2-dimensional Cartesian and polar coordinates with their application in heat

distribution.

Reference Books:

1. Advanced Modern Engineering Mathematics – by Glyn James

2. Advanced Engineering Mathematics – by Erwin Kreyszig

ME 2213 Dynamics and Kinematics of Machineries


Kinematics of particles: Motion of particle, rectilinear and curvilinear motion; motion of several particles,

rectangular components of velocity and acceleration; Motion relative to frame in translation; tangential, normal,

radial and transverse components.

Kinetics of particles: Newton’s second law of motion, linear and angular momentum, radial and transverse

components of motion.

Kinematics of rigid bodies: Translation; rotation about a fixed axis; general plane motion, motion about a fixed

point and general motion; Absolute velocity and acceleration, relative velocity and acceleration; Principle of work

and energy and its application; Power and efficiency; Potential energy, conservative forces; Conservation of energy

and its application; Principle of impulse and momentum; Direct and oblique central impact.

Kinetics of rigid bodies: Plane motion of rigid bodies; Equation of motion, angular momentum and D’Alembert

principle, constrained plane motion; Work of forces acting on a rigid body, Kinetic energy of rigid body in plane

motion; Principle of work and energy for the plane motion, principle of impulse and momentum for plane motion;

Concentric impact.

Mechanics of Machinery: Inertia and kinetic energy of rotation and reciprocating parts; Turning moment diagram,

fluctuation of energy and speed; Fly wheel; Balancing of stationary, rotating and reciprocating masses, balancing of

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In-line engines and V-engines; Law of gearing forms of tooth and types of gear; Gear trains and their arrangements;

Types of governors and their control.




ESE 2209 Bio and Wind Energy Engineering


Bio-energy

Introduction: Concept of biomass and bio-fuel, its characteristics, heating value and composition, bio-energy,

photosynthetic efficiency, potential of biomass sources, advantages and disadvantages, energy plantations; Types of

sources.

Bio-chemical Conversion: Need of conversion and types; anaerobic digestion – BOD, COD, digester design, biogas

production and its feedstock, microbial and biochemical aspects, operating parameters for biogas production, types of

digesters, digesters for rural application, high rate digesters for industrial waste; Ethanol production by fermentation –

cane molasses and other sources, dry fermentation.

Thermo-chemical Conversion: Pyrolysis: fixed and fluidized bed pyrolysis, reactor design, carbonization,

densification, briquetting, preparation of feedstock, torrified product, bio-coal; Gasification and its types;

Incineration.

Modern uses of Biomass: Processing for oils and fats, bio-diesel technology, transesterification, Gasohol as a

substitute for petrol, chemical composition of bio-diesel; Cogeneration systems.

Wind Energy

Assessing Wind Resources: Basics of wind generation, air density as function of elevation and humidity; Study of

Wind profiles - simple log profile, the power law, roughness length, roughness change model, displacement height,

wind shear, Weibull distribution of wind speed; Basic terms and definitions related to wind measurement, wind speed

measuring instruments and their principle.

Wind Energy Conversion Systems: Classification of wind turbines and their comparison; Horizontal axis wind

turbine - major components and angles; Aerodynamic behavior of turbine blades - airfoil terminology, lift, drag, tip

speed ratio, flow over airfoil; Vertical axis turbines; Turbine design, One-dimensional momentum theory and Bitz

limit, power coefficient, thrust coefficient, overall efficiency, overall power output.

Wind energy project and Environment: Major phases of a wind farm project, activities and cost associated with

each phase; Impact of WEC projects on environment.




ESE 2230 Energy Engineering Simulation I


Solution of Energy Science and Engineering problems using standard simulation software.

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THIRD YEAR FIRST TERM

Math 3113 Statistics and Numerical Methods

Credit: 3.00 Contact hour: 3hrs/week

Statistics:

Basic Statistics: Review of data, Events, Variables; Population and Samples; Grouped data, Ungrouped data,

Frequency distribution: Relative and cumulative; Average, Median, Mode, Standard deviation, Moment, Skewness,

Peakedness and Coefficient of variation of grouped data.

Basic Probability: Brief overview of sets, Venn diagrams and set operations, Axioms of probability, Probability

rules, Conditional probability and Independent events, Bayes formula. Statistical distributions and their uses:

Introduction to probability density functions and their physical significance, Geometric, Binomial, Poisson, Normal,

Uniform, Exponential distributions.

Numerical Methods:

Roots and Optimization: Bisection and Newton-Raphson method; Use of root finding functions in Octave – fzero,

roots, poly, polyval; Basics of optimization and golden-search technique; Use of root optimization functions in

Octave – fminbnd, fminsearch.

Solution of Linear Equation: Gaussian elimination and pivoting, LU decomposition; Diagonal dominance and

condition number of a matrix, Gauss-Seidel and Jacobi method; Use of Octave functions for solution of linear

systems.

Curve Fitting and Interpolation: Linear and polynomial regression; Newton’s formulae for forward and backward

interpolation, Lagrange’s interpolation method; Use of curve-fitting functions in Octave – interp, polyfit,

spline.

Numerical Calculus: Forward, backward and central difference formula for first and second order derivative;

Trapezoidal rule, Simpson’s rule for integration; Euler, Heun, and Runge-Kutta methods solving initial –value

problems, basics of boundary vale problem and shooting method. Use Octave functions – quad, ode45, ode15s, and

bvp4c; Application of numerical calculus to problems from fluid mechanics, heat transfer, and control engineering.

Reference Books –

1. Applied Statistics and Probability for Engineers, 6th Ed. – Douglas C. Montgomery and George C.

2. Applied Numerical Methods with MATLAB for Engineers and Scientists, 3rd Ed. – by Steven C. Chapra.

3. Numerical Methods for Engineers and Scientists, 3rd Ed. – Amos Gilat, Vish Subramaniam.

Math 3114 Sessional on Math 3113


Computer applications on the problems based on the theory of Math 3113.

EE 3113 Power System Engineering


Introduction to Power System: Basics of Power System Engineering, Electrical supply system, AC and DC power

supply schemes.

Transmission lines: Flux linkages, inductance due to external flux, and inductance of single-phase two-wire line.

Electric field, capacitance of two wire line, effect of earth, representation of lines: short, medium and long

transmission lines, T and π representation. Sag and stress analysis, effect of wind and ice loading, supports at

different elevation, conditions of erection, effects of temperature changes, corona & corona power loss.

Insulators for overhead lines: Types of insulators, potential distribution in a string of insulators, string efficiency,

methods of equalizing potential distribution.

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Load flow and fault analysis: P.U. method of performance calculation, P.U. impedance of three winding

transformers, and Power flow in simple systems, voltage and frequency controls. Symmetrical three phase faults on

synchronous machine, Unsymmetrical Faults: Single line to ground fault, line to line fault, double line to ground

fault.

Circuit breakers and fuse: Circuit breakers’ types, ratings, constructions, and selections. Arc extinction, recovery

voltage. Constructions, characteristics, and applications of commercially available fuses. Types, construction,

operating principle of over current relays. Lightning arrestors, surge absorbers, ground wire, generators grounding.

Introduction to Smart grid: Definition, key functions of smart grid, smart grid’s control elements and their

operations, smart grid’s communications and cyber security.

Reference Books:

1. Mehta. Principles of Power System- V.K.Mehta and Rohit Mehta

2. Elements of Power System Analysis, 4th Ed-William D. Stevenson

3. Electrical Power Systems- C.L. Wadhwa




ESE 3105 Heat and Mass Transfer


Introduction: Basic modes of heat transfer; Thermal properties of materials.

Conduction: Law of conduction, Heat conduction equations in one, two and three dimensions; Solution of steady

heat flow with and without heat generation, Consideration of variable thermal conductivity; Composite walls; Heat

transfer augmentation, fins of uniform cross-sections, critical thickness of insulation; Unsteady heat conduction, Use

of Heisler’s chart.

Convection: Review of hydrodynamic equations for boundary layer theory, Analysis of thermal boundary layer by

control volume method; Laminar heat transfer over flat plate; Fully developed flow heat transfer through smooth

pipes, Cases of constant heat flux and constant wall temperature boundary conditions; Applications of dimensionless

numbers; Correlation of heat transfer in turbulent flow; Use of hydraulic diameter. Correlations for free and forced

convection heat transfer over horizontal and vertical plates, cylinders, spheres and inclined pipes; Horizontal and

vertical tube bundles in cross flow.

Heat transfer with change of phase: Condensation. Drop-wise and film-wise condensation, their effect on heat

transfer rate; Effect of film turbulence; Nusselt equations, condensation number; Melting and solidification; Boiling:

Types of boiling; Processes of bubble growth and bubble dynamics; Pool and film boiling; boiling curve, boiling with

vapor production, critical heat flux; Forced convection boiling in horizontal and vertical tubes; Heat transfer rate in

different boiling phenomena.

Mass Transfer: Introduction, Fick’s law of diffusion; Binary diffusion. Mass transfer coefficient; Basics of

absorption, distillation and adsorption.

Reference Books:

1. Fundamentals of Heat and Mass Transfer, 7th Ed. – Frank P. Incropera, David P. DeWitt et al.

2. Heat and Mass Transfer, Fundamentals & Application, 5th Ed. – Yunus A. Cengel and Afshin J. Ghajar

3. Heat Transfer – Gregory Nellis and Sanford Klein

4. Heat Transfer – NecatiOzisik




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ESE 3107 Solar Thermal Engineering


Introduction: Review of sun-earth geometry, variation of extraterrestrial radiation, beam and diffuse radiation,

direction of beam radiation, 𝑅𝑏 factor, total radiation on horizontal and inclined surfaces, variation of radiation,

monthly average values, estimation of daily average daily total radiation, KT method, hourly radiation from daily

data.

Heat Transfer Concepts: Theory of thermal radiation, Radiation properties, Planck’s law, Wien’s displacement law,

Stefan-Boltzmann equation; Concept of black body and gray body; Spectral dependence of radiation properties;

Kirchhoff’s law; Shape factor; Radiation exchange between surfaces, Re-radiating surfaces; Radiation shields.

Flat Plate Collectors: Introduction, construction methodology and classification; Critical radiation level; Mean fluid

temperature; Overall heat loss coefficient; Energy balance equation of FPC; Effective transmittance-absorptance

product; Testing of collector, collector efficiency factor; Heat removal factor and flow factor; Heat capacity factor in

FPC; Optimum inclination of FPC. Evacuated tube cover collector, Evacuated-tubular collector, thermal efficiency,

evacuated tube with heat pipe.

Concentrating Collectors: Introduction, characteristic parameters; Concentration ratio, optical efficiency;

Classification of concentrators; Tracking of concentrators, tracking methods; Thermal analysis; Materials for

concentrators.

Application: Solar water heating, heat collection in storage tank, effect of heat load; Solar air heating, room heating,

crop heating; Solar distillation, working principle and thermal efficiency; Solar cooling; Solar thermal power

generation schemes; Central receiver power plants; Dish Stirling systems; Solar ponds, Thermal analysis of solar

power plants.

Reference Books:

1. Solar Engineering of Thermal Process - J. A. Duffie, W. A. Beckman, John Wiley & Sons Inc

2. Solar Energy: Fundamentals, Design, Modeling and Applications –G. N. Tiwari, Narosa Publishing House

3. Solar Energy Engineering,2nd Edition -Soteris A. Kalogirou, Academic Press




ESE 3123 Thermo-fluid Devices

Credit: 3.00 Contact hours: 3 hrs/week

Pipe flow: Buckingham 𝜋 theorem; Hydraulic diameter, flow regimes based on Reynolds number; Laminar flow in

pipes, entrance region and velocity profile, fully developed flow and average velocity, pressure drop and head loss;

Turbulent velocity profile in pipes, use of Moody Chart and Colebrook equation; Major and minor losses; Flow rate

and velocity measurement – pitot tube, obstruction flow meters, rotameter, turbine flow meters.

Compressible flow: Distinction between compressible and incompressible flow, One-dimensional isentropic

compressible flow; Variation of flow velocity with area, flow through converging-diverging nozzle and chocking;

Shock wave.

Pump Compressor and Blowers: Classification of turbomachinery; Water horsepower, brake horsepower,

efficiency for pumps; Pump performance curve, pump sizing for piping systems; Cavitation and NPSH; Pump

Scaling laws, pump specific speed, affinity laws; Fans, blowers and compressors, compressor intercooling.

Heat Exchangers: Classification of heat exchangers, Overall heat transfer coefficient, fouling factor; Analysis using

LMTD and NTU method, Design of double-pipe heat exchangers, shell-and-tube heat exchangers and TEMA

standards; Plate heat exchangers.

Reference Books:

1. Fluid Mechanics Fundamentals and Applications, 3rd ED. – Yunus A. Cengel, John M. Cimbala.

2. Fox and McDonald’s Introduction to Fluid Mechanics, 8th ED. – Philip J. Pritchard, John C. Leylegian.

3. Fundamentals of Heat and Mass Transfer, 7th ED. – Frank P. Incropera, David P. DeWitt et al.

4. Process Heat Transfer Principle, Application and Rules of Thumb, 2nd ED – Robert W. Serth, Thomas G. Lestine.

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5. Heat Transfer in Process Engineering – Eduardo Cao.



Experiments based on the theory of ESE 3123 and design problems related ESE 3123.

THIRD YEAR SECOND TERM

ESE 3200 Seminar on Special Topics


The department will arrange special lectures on recent research and technology in the field of energy engineering by

the expert from inside or outside of the university for the students. Students are required to perform case studies on

topics pertaining to energy science and engineering. At the end of the semester, each student will hand in a report and

give presentation of his or her study.

ESE 3202 Energy Innovation Lab


The student will fabricate a model of a system using their innovative idea under guidance of a faculty. At the end of

the semester, each student will hand in a report and give presentation of his or her project for evaluation.

ESE 3203 Petroleum and Natural Gas Processing


Petroleum: Composition of Petroleum; thermal properties of petroleum, important product properties and test

methods; Dehydration of Crude Oil, Desalting of Crude Oil, Crude Oil Stabilization and Sweetening, distillation of

petroleum, ADU, VDU, blending of gasoline; fraction-impurities, treatment of gasoline, treatment of kerosene, wax

and purification; Cracking, catalytic cracking, catalytic reforming, naphtha cracking, cooking, hydrogen processes,

and alkylation processes isomerization processes.

Natural Gas: Origin of natural gas, Properties of natural gas, overview of the natural gas industries in Bangladesh.

Gas and Liquid Separation: Separation Equipment, Types of separators, Separation principles, Factors affecting

separation, Separator design, Low temperature separation, Two-phase Gas-Oil Separation, Three-Phase Oil-Water-

Gas.

Dehydration Processes: Dehydration of natural gas, Gas hydrates, Hydrate inhibition, Absorption dehydration,

Adsorption dehydration.

Desulfurization Processes: Sweetening of natural gas, Sour gas treating, Sulfur removal processes, Solid bed

sweetening processes, Physical absorption and chemical absorption process.

Gas Flow Measurements and Control: Fundamentals of gas flow through conduits, orifice meter, Flow control and

pressure regulating instruments.

LNG and LPG: Basics, Properties, Composition, Liquefaction technologies, Production processes, LNG carrier,

LPG cylinders/tanks/vessels, Storage and handling, LPG cylinder sizing, Fire hazards, Safety legislation, Commercial

and industrial uses.

Lube oil: Lube Oil Base Stocks, Lube oil processing, Propane de-asphalting, solvent extraction, De-waxing,

Specifications of lube oil, Lube Additives.

Reference Books:

1.Modern Petroleum Refining Processes,5th Ed.- B. K. BhaskaraRao

2. Gas Production Engineering- Sanjay Kumar, Gulf Publishing Company

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3. Petroleum Refining Technology- Ram Prasad , Khanna Publishers

4. Petroleum Refinery Engineering -Nelson, W. L.

5. Gas Conditioning and Processing- John M. Campbell




ESE 3207 Solar Photovoltaic System


Introduction: PV physics, band structure and Fermi level in semiconductors, pn-junctions, diode models, photon

interactions with semiconductors.

PV Cell Fundamentals: Working principle, Computing PV cell power, equivalent circuit models, short- and open-

circuit properties, fill factor, and parasitic resistances. PV cell external and internal quantum efficiency, and

computing the spectral response. Theoretical cell efficiency, multi-junction devices, the Shockley-Queisser limit.

Antireflection coatings, cell passivation, and cell optical properties.

PV Technology: PV cell architecture and fabrication steps, characterization techniques crystalline Si substrates, thin

film deposition, amorphous Si, CIGS, and CdTe thin-film cells.

PV Systems: Introduction to PV systems, Location and orientation issues, factor affecting performance, PV cells

wired in series and parallel, shaded and faulty cell effects, Components of PV systems, system integration- online and

offline, inverters, design criteria, calculation, economics and ecology of PV system, load analysis, life cycle analysis

and cost estimation.

Reference Books:

1., Solar Photovoltaic System Applications: A Guidebook for Off-Grid Electrification -Mohanty, Parimita, Muneer,

Tariq, Kolhe. Mohan L.

2.. Solar Photovoltaic Technology And Systems - Chetan Singh Solanki

3. Photovoltaic Systems Engineering - Roger A. Messenger




ESE 3211 Coal Power Generation


Introduction: Types of Coal and their Characteristics; Geology of coal; evaluation of coal for different uses;

proximate and ultimate analysis of coal; Overview of coal power in Bangladesh and world; Role of coal in the overall

energy situation.

Coal and Ash Handling: Necessity of coal handling system, Out-plant handling, Coal preparation, Coal Transfer,

Coal storage, In-plant handling, Coal feeding arrangements; Bottom ash, Fly ash, Ash handling systems; Fundamental

Concept of Control and Monitoring of Ash handling Plant; Dust collection and its disposal, Types of dust collectors

and their working principle.

Coal Combustion: Coal burning furnaces, Firing Methods, Types of stokers and their working principle,

Combustion Mechanism, Kinetics of Combustion Reactions, Combustion equipments for Burning of coal, Pulverized

coal, Various pulverizing mills, screening, mechanical and thermal dewatering, Pulverized coal firing systems,

Pulverized coal burners.

Clean Coal Technology: Introduction to clean coal technologies, Pre-Combustion Coal Cleaning and Capture of

CO2, Post-Combustion Capture of CO2, Carbon Capture and Oxyfuel Combustion, CO2 Compression, Transportation

and Sequestration. Combustion Strategies to Reduce NOX Production, Capture of SO2 and NOX, Combined SO2 and

NOX Removal, Mercury Removal, International Regulations of Coal-Fired Emissions, Advanced Pulverized Coal-

Fired Power Plants, Integrated Gasification Combined Cycle Systems.

Steam Generators: Introduction to Power Station Steam Generators, Boiler classification, general design

considerations, boiler specifications, working principle of Fire tube and water tube boilers, high pressure and

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supercritical boilers, positive circulation boilers, fluidized bed boiler, waste heat recovery boiler, major boiler

mountings and accessories, boiler efficiency.

Steam turbines: Types, Impulse and reaction turbine, convergent and divergent nozzles, Stage efficiency, Degree of

reaction. Performance of steam turbines. Compounding of turbines, optimum velocity ratio, reheat factor and

condition line, loses in steam turbine, Steam turbine governing,

Reference Books:

1. P. Breeze. 2015. Coal-Fired Generation, 1st Edition. Academic Press, USA.

2.P. Jayarama Reddy. 2013. Clean Coal Technologies for Power Generation. 1st edition, CRC Press.

3.B. Miller and B. Miller. 2010. Clean Coal Engineering Technology , 1st Edition, Butterworth-Heinemann

4. Thermal Engineering – P.L. Ballaney

5. Steam Turbine - Kearton

ESE 3217 Instrumentation and Control


Instrumentation: Functional elements of a measurement system; Sensors for temperature, flow, velocity, linear

distance, level, pressure, force, pH measurement; Control valve sizing and selection; Control signal transmission and

related industry standards; Study of piping instrument diagram (P&ID); Basic components of Data acquisition

system, Error analysis and calibrations.

Dynamic Modeling: Review of conservation and constitutive laws of energy systems and dynamic modeling;

Linearization ODEs, Review of Laplace Transform, evaluate transfer function and input-output model; Analysis of

first and second order systems – graphical and optimization fit, State-space modelling.

Controller Design: Basics of feedback control; P, PI, and PID controller design, tuning, and troubleshooting;

Frequency response analysis and control system design, Stability analysis; Basics of cascade control; fuzzy logic,

control structure.

Automation: Introduction of PLC, PLC Hardware, Definitions of Allen-Bradley conditional inputs and outputs, I/O

configuration, Programming Terminals and Peripherals, Application of PLC in Automation, Automation system

components, Industrial communications, Continuous control, overview of SCADA and DCS systems;

Microcontroller basics, classification, basic Architecture, memory, registers, I/O ports.

Reference Books -

1. Process Dynamics and Control, 4th Ed. – Dale.E. Seborg, Thomas F. Edgar et al.

2. Process Control, 2nd Ed. – Thomas E. Marlin

3. Schaum's Outline of Feedback and Control Systems, 2nd Ed. - Allen J. Stubberud Ivan J. Williams Joseph J.

DiStefano

4.Programmable Logic Controllers: Principles and Applications, 5th Ed.-John W. Webb, Ronald A. Reis

5.Programming and Customizing the AVR Microcontroller-Gadre, McGraw-Hill




ESE 3221 Energy Storage Systems Credit: 3.0 Contact hour: 3 hrs/week

Introduction: Need of energy storage; Different modes of Energy Storage; Comparative Ratings and Properties:

System Ratings, Energy density, Power density and specific power.

Mechanical Energy Storage: Pumped hydro storage, Elastic energy storage, Energy storage in Advanced Flywheels,

Compressed air energy storage

Thermal Energy Storage: Sensible heat storage system, Latent heat storage system, Solar energy storage systems.

Electrochemical Energy Storage: Structure, working principle, Classification of Batteries; Batteries with aqueous

electrolyte: Lead-acid, Alkaline, Nickel-iron, Nickel-cadmium, Ni-MH; Batteries with nonaqueous electrolyte:

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Lithium-metal, Lithium-metal polymer, Lithium-ion, Lithium-iron phosphate, Lithium-ion polymer, Large size

Batteries: Sodium-sulfur (NaS) Battery, Vanadium Redox flow battery; Modeling of batteries; Battery Management

System; Aging of electrochemical batteries;

Electro-magnetic Energy Storage Superconducting Magnet Energy Storage (SMES) systems, Sizing of SMES;

Capacitor and Batteries: Comparison and application; Super capacitor: Electrochemical Double Layer Capacitor

(EDLC), principle of working, structure performance and application.

Advanced Energy Storage Systems: Fuel cell: Principle of working, Basic thermodynamics and electrochemical

principles, Classification, Electrolytes, Fuel types, Fuel cell electrodes; Applications for power and transportation.

Hydrogen System: Its merit as a fuel; Production: from fossil fuels, electrolysis, thermal decomposition,

photochemical, photocatalytic, hybrid; Storage: Metal hydrides, Metallic alloy hydrides, Sea as the source of

Deuterium.

System Arrangement and application: Storage as grid component, storage with PV systems, Hybrid Power plant,

Fast charging stations, Advanced System Architecture, Uninterruptible power supply (UPS).

Reference Books:

1. Energy Storage: Fundamentals, materials and applications - Robert A. Huggins

2. Energy Storage: Systems and components - Alfed Rufer

3. Energy Storage: Technologies and application - Ahmed Faheem Zobaa


Credit: 0.75 Contact hours: 3/2 hrs/week


ME 3250 Industrial Attachment

Credit: 0.0

The student will participate in attachments (for one to two weeks) in relevant industries to get hands on working

experiences. Time of the industrial attachment will be decided by the department. Student will submit a report after

completion of their industrial attachment.

FOURTH YEAR FIRST TERM

ESE 4000 Project & Thesis I Credit: 1.5 Contact hour: 3 hrs/week

Theoretical and experimental investigation of various topics in Energy Science and Engineering. The topic should

provide an opportunity for the student to develop initiative, creative ability and engineering judgment. Individual or

group study (preferable not more than two in a group) will be required. Department will assign a supervisor for each

student. At the end of the Term, the student is expected to complete the preliminary literature survey and select the

topic for study. Each student/group has to present a seminar on the progress of their work. A brief report needs to be

submitted during the presentation of the work.

ESE 4105 Fuel Combustion and IC Engines Credit: 3.0 Contact hour: 3 hrs/week

Fuels and its Characteristics: Properties of fuels, determination, proximate and ultimate analysis; calorific value:

HCV, LCV and their determination; conventional fuels, alternative fuels, API rating of fuels, octane number and

cetane number.

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Combustion: Complete and incomplete combustion; combustion stoichiometry: mass basis and volume basis;

equivalence ratio and mixture strength, lean and rich combustion; thermochemical calculations: enthalpy of

formation, adiabatic flame temperature; types of flame: laminar and turbulent flame, premixed and diffusion flame,

factors influencing flame velocity; combustion processes: surface or flameless combustion.

Introduction of IC Engine: Basic components and terminology of IC engines, classification of IC engines and their

application; working principles of four stroke and two stroke engines - petrol/diesel engine; engine kinematics and

performance parameters; autoignition and abnormal combustion, fundamentals of knocking/detonation in SI engines

and CI engines, factors influencing knock/detonation, control of knock/detonation; basics of homogeneous charge

compression ignition (HCCI) engines, direct injection spark ignition (DISI) engines.

Engine Systems and Emission: Lubrication system in IC engine, crankcase ventilation; types of cooling systems –

liquid and air cooling; intake and exhaust processes, mixture formation processes for SI engines, carburetor, stages of

combustion in SI engine and CI engine; fuel injection systems in CI engine, types of nozzles, spray formation;

Boosting of engines: supercharging and turbocharging, limitations of supercharging and turbocharging; types of

pollution due to IC engines, sources of HC, CO and NOx, SOx emissions, emissions measurement and control.

Reference Books:

1. Fuels and combustion- Sharma.S.P. Cahandramohan., (1999), Tata McGraw-Hill

2. Internal combustion engine fundamentals, 2nd Edition by John B. Heywood

3. Internal combustion Engines - Applied Thermosciences⸺ by Colin R. Ferguson and Allan T. Kirkpatrick

4. Introduction to internal Combustion Engines by Richard Stone

ESE 4106 Sessional on ESE 4105 Credit: 0.75 Contact hour: 3/2 hrs/week


ESE 4115 Power Plant Engineering Credit: 3.0 Contact hour: 3 hrs/week

Introduction: Features, types, components, general layouts, criteria for comparison and selection of power plant;

Energy sources and their availability; overview of power sector in Bangladesh, present status and future trends.

Power Plant Economics: Load curves, load factor, diversity factor, load management, number and size of generating

unit, effect of load on power plant design, load forecasting, performance and operating characteristics of power

plants, economic scheduling principle; cost of electrical energy, peak load pricing, tariff.

Hydro Power Plants: Essential feature of hydroelectric power plant; present situation of hydro power generation;

site selection, plant layout and various components, power plant safety reservoir, dams & tunnels etc.; hydrology:

precipitation, run-off, hydrograph, flow duration curve, mass curve; pumped storage power plant; design,

construction and operation of different components of hydro plant like dam, spillways, canals, penstocks, surge tank,

draft tubes; types and selection of turbines, governing of turbine; construction and working principles of various types

of valves and pumps and hydraulic system.

Steam Power Plants: Fields of use, site selection, general layout, operation and performance, binary vapor cycle

power plant.

Diesel Power Plants: Fields of use, layout, working principle of diesel engine, fuel handling and storage, diesel

engine power plant auxiliaries, starting and stopping, performance of diesel engines, heat balance.

Gas Turbine Power Plants: Fields of use, components, layout; thermodynamic analysis of gas turbine cycles, cycle

improvements, intercoolers, reheaters, regenerators; operation and performance of gas turbine power plants;

combined cycle power plant with simple thermodynamic analysis.

Power Plant Accessories: Water treatment plant, cooling tower, draught systems, chimney and foundation design.

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Reference Books:

1. Power Plant Engineering by Black and Veatch. CBS Pub and Distributors, New Delhi, 1998.

2. A Text Book of Power Plant Engineering by R. K. Rajput. Laxmi Publications (P) Ltd, 2005.

3. Power Plant Engineering by P.K. Nag. Tata Mcgraw Hill Publishing Co Ltd, New Delhi, 2nd Edition, 2001.

4. Power Plant Engineering by E L Wakil, McGraw-hill Book Co, N.Y., 2001.

5. Power Generation, operation and control by A.J. Wood, B.F. Wollenberg., John Wiley, New York,1984.



ESE 4125 Safety and Environmental Aspects of Energy Projects Credit: 3.0 Contact hour: 3 hrs/week

Safety Management: Basic about hazard, risk, accident, safety and safety management; sustainable development and

triple bottom line theory; evolution of hazards, hazards classification and detail of different types of hazards; hazard

analysis (HAZAN), hazard matrix and hazard/safety management; fault tree and event tree analysis, FMEM, hazard

operability (HAZOP), Emergency Preparedness Plan (EPP), safety audit, accident investigation and reporting;

characteristics of petroleum fuels, explosive mixture and their limits; fire, explosion and BLEVE incidences and their

management; electrical hazard management; uses of personnel protective equipments, practice for following different

work permits; duties and responsibilities of safety officer/engineer and safety committee; hazard or safety ratings of

industries-Accident Frequency Rate (AFR), Accident Severity Rate (ASR) and Fatal Accident Rate (FAR).

Occupational Health and Hazards in Petroleum and Chemical Industries: Occupational health and diseases,

Threshold Limit Values (TLVs); toxicity and chemical hazard in process and petroleum Industries; Material Safety

Data Sheet (MSDS) and its uses; safety signs for transportation of chemicals and petroleum products.

Environmental Issues and Pollution control: Pollution and their types; environmental impact by thermal power

plants and petroleum industries; remedial measures of pollution; concept of green house, SMOG, acid rain,

sustainable development; environmental regulations, concept of Initial Environmental Examination(IEE),

Environmental Impact Assessment (EIA), Environmental Management plan (EMP) and ISO-14001 - 14002,

industrial categories on the basis of Bangladesh environmental regulation (DOE).

Reference Books:

1. Industrial Safety and management by Engr. Mohammad HafizurRhaman

2. Loss Prevention in the Process Industries, 3rd edition by M.S. Mannan

3. Guidelines for Hazard Evaluation Procedures - With Worked Examples, CCPS (2nd Edition)

4. Energy Management and Control Systems by M.C. Macedo Jr. (John Wiley and Sons)

5. Environmental Impact Analysis Handbook by J.G.Rau, D.C.Wood (McGraw Hill).

6. Energy & Environment by J.M. Fowler, (McGrawHill)



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ESE 4130 Energy Engineering Simulation II Credit: 0.75 Contact hour: 3/2 hrs/week

Solution of Energy Science and Engineering problems using standard simulation software.

ESE 40-- Optional I Credit: 3.0 Contact hour: 3 hrs/week

ESE 40-- Optional II Credit: 3.0 Contact hour: 3 hrs/week

FOURTH YEAR SECOND TERM

ESE 4000 Project & Thesis II Credit: 3.0 Contact hour: 6 hrs/week

Students will continue their research work from previous Term. Students should consult closely with their supervisor

throughout the completion of the research work. Normally, students will submit drafts of individual chapters to the

supervisor as they are completed. The department will declare specific deadline for thesis submission and oral

presentation. Students will submit their thesis through their supervisor. They will also present their thesis in an oral

examination along with a complete demonstration of the project and thesis.

ESE 4213 Nuclear Power Engineering Credit: 3.0 Contact hour: 3 hrs/week

Introduction to Nuclear Physics : Principles of nuclear energy, nuclear masses and mass defect, binding energy,

nuclear reactions, energy from fission and fusion, chain reaction, cross sections and concepts of nuclear criticality,

radioactive decay, half-life.

Nuclear Reactors: Progression of nuclear reactor, components of nuclear reactor; fuel, moderator, coolant, heat

transfer techniques in nuclear reactors; classification of nuclear reactors, boiling water reactor, pressurized water

reactor, pressurized heavy water reactor, gas cooled reactor, high temperature gas cooled reactor, pebble bed reactor,

fast breeder reactor, liquid metal fast breeder reactor; reactor control devices, control rods and their driving

mechanisms, control rod materials, radiation protection.

Nuclear Power Plant Design: Layout of nuclear power plants; containment buildings, primary containment vessels;

Structure of reactor core, mechanical stress in various structures; description and analysis of power plant systems and

components.

Nuclear Safety: Radiation safety and environmental aspects of nuclear power generation, safety control, pollution

control, abatement, international convention on safety aspects; quantities and units of use in radiological protection,

biological effect of ionizing radiation, dosimetry of ionizing radiation; International systems of radiological

protection, radiation hazards prevention, personal monitoring, radiation shielding.

Fuel Cycle and Waste Management: Nuclear fuels and fuel cycles, different types of nuclear fuel cycles,uranium

mining and milling, fuel enrichment, fuel fabrication; types of nuclear wastes, waste conditioning: recycling,

reprocessing, intermediate storage, partitioning & transmutation, final disposal.

Reference Books:

1. Nuclear Power Plant Engineering by J.H. Rust, 1979.

2. Introduction to Nuclear Engineering, 4th Ed. by J.R. Lamarsh and A.J. Baratta. Prentice Hall, 2017.

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3. Nuclear Engineering Theory and Technology of Commercial Nuclear Power. 2nd Ed. by Knief, R.A. 2008.

American Nuclear Society. USA.

4. Fundamentals of Nuclear Reactor Physics by Lewis, E.E. 2008. 1st Ed. Academic Press. USA.

5. Nuclear Energy: An introduction to the concepts, systems and applications of nuclear processes by Murray, R.L.

2009. 6th Ed. Elsevier Inc.



ESE 4219 Energy Audit and Management Credit: 3.0 Contact hour: 3 hrs/week

Introduction: Concept of energy management programme; basic components of an energy audit; types of energy

audit, industrial, commercial and residential audit planning; understanding of energy costs, bench marking, energy

performance index, understanding of energy used pattern; system efficiencies, input energy requirements

optimization; energy conservation act and its features; duties and responsibilities of energy managers and auditors;

energy audit instruments/ tools.

Material and Energy Balance: Basic principles; Sankey diagrams; material balances for different processes; energy

balances, methods for preparing process flow chart, material and energy balance procedures.

Energy Action Planning: Energy management systems, Management commitment and energy conservation policy,

energy performance assessment, estimation of energy savings potential.

Monitoring and Targeting: Elements and techniques of monitoring & targeting, data and information-analysis;

energy consumption, production, cumulative sum of differences (CUSUM), case studies.

Thermal Energy Management: Energy conservation in thermal energy systems; waste heat recovery; thermal

insulation; energy conservation in buildings, green building concepts; case studies.

Electrical Energy Management: Reactive power management; energy conservation in electrical systems, cases

studies.

Financial and Project Management: Analysis of payback period; NPV; IRR; sensitivity analysis; analysis of energy

performance contracts; project definition, scope, design, financing and planning techniques; cost benefit analysis,

case studies.

Global Environmental Concerns: UNFCC, Protocols, COP, CDM, PCF, SDGs, delta plan.

Reference Books:

1. Fundamentals of Energy Management and Energy Audit, Model 1, Paper 1, Published by SREDA, 2019.

2. General Aspects of Energy Management and Energy Audit, Publisher: Bureau of Energy Efficiency India, 2015.



ESE 40-- Optional III Credit: 3.0 Contact hour: 3 hrs/week

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ESE 40-- Optional IV Credit: 3.0 Contact hour: 3 hrs/week

ESE 40-- Optional V Credit: 3.0 Contact hour: 3 hrs/week

OPTIONAL COURSES

ESE 4003 Hydrogen and Fuel Cells Credit: 3.0 Contact hour: 3 hrs/week

Hydrogen Production Technologies: Review of hydrogen energy; production of hydrogen: chemical production of

hydrogen, steam reforming, water electrolysis, gasification and woody biomass conversion, biological hydrogen

production, photo dissociation, direct thermal or catalytic splitting of water; purification (removal of CO and CO2),

desulphurization;electrolytic hydrogen production, electrolyser configurations.

Hydrogen Storage, Transportation and Application: Hydrogen storage options, compressed gas storage, liquid

hydrogen, hydride, chemical storage, solid state storage; hydrogen transmission systems, hydrogen fueling systems

and infrastructure.; applications of hydrogen, hydrogen as a fuel for IC engine, hydrogen policy and environmental

impacts of hydrogen, hydrogen safety.

Fuel Cell: Review of fuel cell; thermodynamics and kinetics of fuel cell process, heat released, reasons for losses in

voltage, electrode kinetics, porous electrodes, characteristics, fabrication of electrodes, assembly of fuel cells, testing,

classification of fuel cells based on nature of electrolyte, operating temperature; performance evaluation of fuel cell,

comparison on battery Vs fuel cell.

Characteristics and Status of Various Types of Fuel Cells: Alkaline Fuel Cells (AFC), Phosphoric Acid Fuel Cells

(PAFC), Polymer Electrolyte Membrane Fuel Cells (PEMFC), Direct Methanol Fuel Cells (DMFC), Molten

Carbonate Fuel Cells (MCFC), Solid Oxide Fuel Cells (SOFC), Regenerative Fuel Cells (RFC), use of alternative

fuel in fuel cells, specific characteristics, advantages and applications.

Fuel Cell Power Plants and Applications: Fuel cell plants and sub systems, efficiency of systems, performance;

emissions, heat balance, environmental benefits; heat rate of various fuel cell plants, natural gas and coal-based fuel

cell power plant concepts, cogeneration and CHP, fuel cell hybrids, fuel cell systems for portable, automotive,

stationary applications, future challenges.

Reference Books:

1. Hydrogen and Fuel Cells: A Comprehensive Guide by Rebecca L. and Busby, 2005, Penn Well Corporation,

Oklahoma.

2. Hydrogen and Fuel Cells: Emerging Technologies and Applications by Bent Sorensen, 2011, Academic Press,

2nd ed.

3. Fuel Cells Principles and Applications by B.Viswanathan and Aulice Scibioh, 2006, Universities Press,

Hyderabad.

4. Fuel Cell Systems Explained by J. Larminie & A. Dicks, 2003, Wiley

5. Fuel Cells: From Fundamentals and Applications by S. Srinivasan, 2006, Springer.

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ESE 4005 Hybrid and Electric Vehicles Credit: 3.0 Contact hour: 3 hrs/week

Introduction: History of hybrid and electric vehicles (HEVs), reasons for HEV development, types; HEV

configurations, social and environmental importance of hybrid and electric vehicles, advantages; challenges and key

technology of HEVs – concept of hybridization of the Automobile-Plug-in HEVs, commercially available HEVs.

Hybrid Electric Drive-trains: Basic concept of hybrid traction, various hybrid and electric drive-train topologies:

series hybrid electric drive trains, parallel hybrid electric drive trains; traction motor characteristics, transmission

configuration, components: gears, differential, clutch, brakes; power flow control, energy consumption concept of

hybrid electric drive trains, fuel efficiency analysis, impact of modern drive-trains on energy supplies.

Electric Propulsion Unit: Introduction to electric components used in hybrid and electric vehicles, configuration and

control of DC Motor drives, configuration and control of Induction Motor drives, configuration and control of

Permanent Magnet Motor drives, configuration and control of Switch Reluctance Motor drives, drive system

efficiency.

Power Electronics and Power Flow: Rectifiers, Buck convertor, Boost converter, Voltage source inverter, Current

source inverter, DC-AC convertor; Power flow: mechanical power generation, storage and transmission to wheels;

electric power generation, storage and conversion to mechanical power; hydraulic power generation, storage and

conversion to mechanical power.

Energy Storage: Energy storage requirements in HEVs, battery storage, fuel cell storage, super capacitor storage,

flywheel storage, hybridization of different energy storage devices.

Sizing the Drive System: Matching the electric machine and the internal combustion engine (ICE), sizing the

propulsion motor, sizing the power electronics, selecting the energy storage technology.

Energy Management Strategies: Energy management strategies used in hybrid and electric vehicles, classification

of different energy management strategies, comparison of different energy management strategies, implementation

issues of energy management strategies.

References Books:

1. Iqbal Hussein, Electric and Hybrid Vehicles: Design Fundamentals, Second Edition, CRC Press, 2011.

2. Modern Electric, Hybrid Electric and Fuel Cell Vehicles: Fundamentals, Theory and Design by MehrdadEhsani,

YimiGao, Sebastian E. Gay, Ali Emadi, 2010, CRC Press.

3. Electric Vehicle Technology Explained by James Larminie, John Lowry, 2003, Wiley.

4. Hybrid electric Vehicles Principles and applications With practical perspectives by Chris Mi, Dearborn, M. Abul

Masrur, David Wenzhong Gao, 2011, Wiley.

ESE 4007 Smart Grid Technology Credit: 3.0 Contact hour: 3 hrs/week

Introduction: Definition, applications, overview of the technologies required for the Smart Grid, micro grid and

smart grid comparison; sustainable energy options for the smart grid, economics and market operations of smart grid.

Smart Grid Communications and Measurement Technology: Two-way digital communications paradigm,

communications infrastructure, network architectures; IP-based systems, monitoring; PMU, smart meters,

measurement technologies; sensor networks, fault detection and self-healing systems, GIS and GPS tools, multi-agent

systems (MAS) technology.

Performance Analysis Tools for Smart Grid Design: Introduction and challenges to load flow in smart grid,

weaknesses of the present load flow methods; load flow state of the art: classical, extended formulations and

algorithms; congestion management effect, load flow for smart grid design, DSOPF application to the smart grid,

Static Security Assessment (SSA) and contingencies; contingencies, contingency studies.

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Stability Analysis Tools for Smart Grid: Introduction to stability, strengths and weaknesses of existing voltage

stability analysis tools, voltage stability assessment, voltage stability assessment techniques.

Computational Tools for Smart Grid Design: Introduction to computational tools, decision support tools,

optimization techniques, classical optimization method, heuristic optimization, evolutionary computational

techniques, adaptive dynamic programming techniques, Pareto methods, hybridizing optimization techniques,

computational challenges.

Interoperability, Standards, and Cyber Security: Introduction, interoperability, cyber security challenges; load

altering attacks, false data injection attacks, defense mechanisms, privacy challenges, research areas for smart grid

development.

Reference book:

1. Smart Grid: Technology and Applications by Janaka B. Ekanayake, Nick Jenkins KithsiriLiyanage

2. Smart Grid Technology (A Cloud Computing and Data Management Approac) by SudipMisra, SamareshBera.

3. Smart Grid Systems: Modeling and Control by N. Ramesh Babu.

4. Communication and Networking in Smart Grids by Yang Xiao.

ESE 4011 Materials for Energy Engineering Applications Credit: 3.0 Contact hour: 3 hrs/week

Materials for Solar Cell: Inorganic materials for solar cell: Si, GaAs and other III-V compounds, PERL Si solar

cell materials; crystalline, multicrystalline, amorphous, and microcrystalline solar cells.

Organic/flexible solar cells-various types, organic tandem; Dye-sensitized cells, polymer composites for solar cells;

modern high efficiency solar cell materials, Perovskite solar cell (PSC) materials.

Materials for Fuel Cell: Review of fuel cell, anode-cathode materials, proton conducting ceramic fuel cell, PEM fuel

cell, Acid/alkaline fuel cells.

Electrolyte Materials for Energy Application: Organic and inorganic electrolyte, polymers electrolytes, ionic

liquid based polymer electrolyte, solid oxide electrolytic materials, polymer membranes materials,

Advanced Materials for Energy Storage: Capacitor, ultra‐capacitor; application of Graphene, Carbon Nano‐Tubes

(CNT), fabrication of CNTs, CNTs for hydrogen storage, CNT‐polymer composites, MOF materials for Hydrogen

fuel storage.

Fabrication Technologies and Processes: Sputtering, physical vapor deposition, chemical vapor deposition (CVD);

diffusion, oxidation, photolithography.

Materials Characterization: X‐ray diffraction (XRD), Scanning electron microscopy (SEM), Raman spectroscopy,

Atomic force microscopy (AFM), Transmission electron microscopy (TEM).

References Books

1.Advanced Semiconductor Fundamentals by Robert F. P., 2002, 2nd Edition, Pearson

2.Energy Materials by Duncan W. B., Dermot O., and Richard I. W., 2011, 1st Edition, Wiley

3.Fundamentals of Solar Cells: PV Solar Energy Conversion by Fahrenbruch A. L. and Bube R. H., 1983, Academic

Press

4.Solar Cells: Materials, Manufacture and Operation Tom M. and Luis C., 2005, 1st Edition, Elsevier Science

5.Organic Photovoltaics: Materials, Device Physics, and Manufacturing Technologies by Christoph B. Ullrich S.

and Vladimir D., 2014, 2nd Edition, Wiley‐VCH

6.Nanostructured and Advanced Materials for Fuel Cells by San P. J. and Pei K. S., 2013, 1st Edition, CRC Press

7.Handbook of Battery Materials by Daniel C. and Besenhard J. O., 2011, 1st Edition Wiley‐VCH

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ESE 4013 Energy in Built Environment Credit: 3.0 Contact hour: 3 hrs/week

Introduction: Indoor activities and environmental control, internal and external factors on energy use, characteristics

of energy use and its management, macro aspect of energy use in dwellings; Thermal comfort, ventilation and air

quality, air-conditioning requirement, visual perception, illumination requirement, auditory requirement.

Influence of Climate and Solar Radiation: The sun-earth relationship, climate, wind, solar radiation and

temperature; sun shading and solar radiation on surfaces, energy impact on the shape and orientation of buildings;

lighting: characteristics and estimation, methods of day-lighting, architectural considerations for day-lighting.

Thermal Performance of Buildings: Steady and unsteady heat transfer through wall and glazed window, standards

for thermal performance of building envelope; evaluation of the overall thermal transfer: thermal gain and net heat

gain, enduse energy requirements; status of energy use in buildings, estimation of energy use in a building.

Energy and Environment Management in Building: Energy audit and energy targeting; technological options for

energy management; Natural and forced ventilation–indoor environment and air quality; airflow and air pressure on

buildings, flow due to stack effect.

Technologies for Low Energy Buildings: Passive building architecture: radiative cooling, solar cooling techniques,

solar desiccant dehumidification for ventilation; natural and active cooling with adaptive comfort, evaporative

cooling; zero energy building concept.

Reference book:

1. Heating and Cooling of Buildings: Design for Efficiency by J. Krieder and A. Rabl (2000), McGraw-Hill.

2. Mechanical and Electrical Equipment for Buildings by S. M. Guinnes and Reynolds (1989), Wiley.

3. Energy Design for Architects by A Shaw (1991), AEE Energy Books.

ESE 4015 Energy System Design and Optimization Credit: 3.0 Contact hour: 3 hrs/week

Introduction: Overview of various technologies and conventional methods of energy conversion, power cycles,

designing a workable system, workable and optimum systems, steps in arriving at a workable system, creativity in

concept selection, equation fitting, mathematical modeling, polynomial representation, functions of two variables,

exponential forms, best fit method of least squares.

Modeling and System Simulation: Modeling of thermal equipment, counter flow heat exchanger, evaporators and

condensers, heat exchanger effectiveness, effectiveness of a counter flow heat exchanger – NTU, pressure drop and

pumping power; system simulation, classes of simulation, information flow diagrams, sequential and simultaneous

calculations, successive substitution.

Optimizing: Optimization, mathematical representation of optimization problems, optimization procedure, setting up

the mathematical statement of the optimization problem, Lagrange multipliers, Lagrange multiplier equations;

unconstrained optimization, constrained optimization; sensitivity coefficients, search methods, single variable,

Exhaustive-Dichotomous and Fibonacci, multivariable unconstrained, lattice-univariable and steepest ascent.

Dynamic, Linear and Geometric Programming: Dynamic programming, characteristic of the dynamic

programming solution, apparently constrained problem, application of dynamic programming to energy system

problems, geometric programming, one independent variable unconstrained, multivariable optimization, constrained

optimization with zero degree of difficulty, linear programming, simplex method, Big-M method, application of LP to

thermal systems.

Reference book:

1. Systems Modeling and Analysis by I.J. Nagrath and M. Gopal (1984), Tata McGraw-Hill.

2. Design of Thermal Systems by W.F. Stoecker (1989), 3rd Edition, McGraw-Hill.

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3. Analysis and Design of Thermal Systems by B.K. Hodge and Robert P. Taylor (1990), Prentice-Hall Inc.

4. Globally Optimal Design by D.J. Wide (1984), Wiley Interscience

ESE 4017 Energy Efficiency Assessment Credit: 3.0 Contact hour: 3 hrs/week

Assessment for Thermal System: Boiler and steam system: Thermal efficiency and its determination by direct and

indirect method, blow-down, boiler water treatment, external water treatment, feed water preheating, combustion air

preheating, excess air control, energy saving opportunities in boiler, waste heat recovery; steam distribution system,

steam traps and energy conservation opportunities.

Assessment for Mechanical System: Fans and blowers: Difference between fans, blowers and compressors, types of

fan: centrifugal, arial flow, fan laws, fan design and selection criteria’s, flow control strategies, fan performance,

assessment, energy saving opportunities in fans.

Pumps and Pumping System: Types of pumps, pump curves, factors affecting pump performance, coupling, flow

control strategies, energy conservation opportunities in pumping system.

Refrigeration System: Performance assessment of a refrigeration system, COP, factor affecting performance, energy

savings opportunities in refrigeration systems; cooling towers, flow control strategies, energy saving options in

cooling towers.

Assessment for Electrical system: Motors: Energy efficient motors, factors affecting efficiency, loss distribution,

constructional details, characteristics – variable speed, variable duty cycle systems, RMS hp- voltage variation-

voltage unbalance- over motoring- motor energy audit.

Diesel Generator System: Fundamentals; types, capacity selection; performance assessment; energy conservation

opportunities.

Reference Books:

1. Energy Efficiency in Thermal Systems, Model 2, Published by SREDA, 2019.

2. Energy Efficiency in Electrical Systems, Model 3, Published by SREDA, 2019.

3. Energy performance assessment for Equipment and Utility Systems, Model 4, Published by SREDA, 2019

ESE 4025 HVAC&R System Design Credit: 3.0 Contact hour: 3 hrs/week

Introduction and Types of Cooling Systems: Review of basic concepts and definitions of refrigeration system,

refrigeration cycles, properties and classifications of commonly used refrigerants, vapor compression cycle, analysis

of Vapor compression refrigeration cycle, multi pressure systems of refrigeration, working principle of thermally

driven cooling machines, vapor absorption refrigeration, single, double and triple effect absorption chiller, adsorption

chiller; air cycle refrigeration; desiccant evaporative cooling; ejector cycle.

Air-conditioning: Indoor and outdoor air conditions, comfort air conditions and comfort zone indoor air quality,

review of psychrometry; Central air conditioning system: essential components of central air conditioning plant:

water chiller and water heater, air handling unit, fan control unit, chilled water and hot water recirculating system,

return air supply system, fresh air supply system and air mixture chamber; supply fan, air dust cleaning and bacteria

removal, air supply and air return terminals, diffusers, dampers, grillers and registers; introduction to variable

refrigerant flow (VRF) technology.

Air-conditioning System Design: CFM rating and tons of air conditioning of central air conditioning plant, cooling

and heating loads; calculation procedures, duct sizing and piping design; pumps and fans selection, air ventilation;

calculation of fresh air supply of multi-story buildings, air handling units for treatment of fresh and return, forced

convection based air ventilator design.

Cooling Towers: Types of cooling towers, performance of cooling tower, hydronic terminal units.

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Alternative Cooling Techniques: Thermo-electric, magnetocaloric, electrocaloric; thermo-accoustics, solar-assisted

cooling systems.

Reference books:

1. Refrigeration and Air Conditioning by Arora, C. P., (2007),, Tata McGraw-Hill Publishing Company Ltd.

2. Refrigeration and Air conditioning by WF Stocker and J W Jones, (1999), McGraw Hill Book Company.

3. ASHRAE, Handbook - Fundamentals, SI Edition by Circle, T. and N.E. Atlanta. (1997), American Society of

Heating, Refrigerating and Air-Conditioning Engineers. USA.

4. Refrigeration and Air conditioning by Manohar Prasad, (1998), Wiley Eastern Ltd.

5. Refrigeration and Air-Conditioning by S. C. Arora and Dumkundwar, (1996), Dhanpathrai Publishers.

ESE 4031 Power Plant Instrumentation and Control Credit: 3.0 Contact hour: 3 hrs/week

Instrumentation: Review of flow, level, pressure, temperature measurement and instrument, control valves; general

concepts and objectives, instrumentation of complex systems, different types of power plants and role of

instrumentation in controlling and monitoring the power production, optimization and adaptation, thermal power

plant instrumentation, controlling and monitoring of boilers, turbines and generators, transformers, condensers and

power plant auxiliaries.

Introduction to Power Plant Control: Overview of power plant control loops, complex control schemes, PID

controller, multivariable control; fundamental concept on integrated control system for power plant application,

identification of analog and binary drives of power plant.

Various Types of Control Technics: Furnace draft and temperature control, combustion control, drum and feed

water level control, boiler water level and pressure control, emergencies and actions, alarm and annunciation, safety,

interlock and supervisory schemes, salient features of instrumentation of hydro-electric, nuclear and nonconventional

power plants, monitoring generation and load flow, plant efficiency, excitation control and temperature profile, DCS,

fire detection and protection system, plant communication system; study of P&I diagram and presentation of

instrumentation on P&ID.

Control of Renewable Energy Systems: Fundamental control of photovoltaic, wind, battery and fuel cell systems.

Reference Books:

1. Power Plant Instrumentation and Control Handbook: A Guide to Thermal Power Plants by Swapan Basu,

Ajay Debnath. Machine Learning, by Tom Mitchell, 2014.

2. Thermal Power Plant Control and Instrumentation: The control of boilers and HRSGs by David Lindsley,

John Grist, Don Parker, The Institution of Engineering and Technology: 2018

3. Power Electronics for Renewable and Distributed Energy Systems by Sudipta Chakraborty, Marcelo G.

Simões, William E. Kramer; Springer

4. Modeling, Identification and Control Methods in Renewable Energy Systems by Nabil Derbel • Quanmin

Zhu; Springer

ESE 4075 Energy Project Development and Evaluation Credit: 3.0 Contact hour: 3 hrs/week

Energy Project Preparation and Development: Features of energy projects, project cycle, context of energy

projects, project identification, project proposal preparation, pre-feasibility and feasibility studies, budgeting, project

approval and implementation.

Cost Concepts and Financial Calculations: Cost concepts, time value of money, interest formulas and equivalence,

inflation, methods of project evaluation, deprecation.

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Economic Evaluation of Energy Projects: Alternatives methods of project evaluation, Traditional methods and new

developments, valuation of costs and benefits, Uncertainty and risk analysis of projects, Sensitivity and break even

analysis.

Financial Evaluation of Projects: Sources of funds, project financing, elements of financial costs, financial structure

and project feasibility, revenue streams, effects of assumptions and pricing, sensitivity analysis.

Environmental Issues in Energy Projects: Evaluation of environmental impacts, methods of economic evaluation

of environmental impacts, energy sector and environmental policies, case studies.

Reference books

1. Financing Energy Projects in Emerging Economies by H. Razavi (1996),, PennWell Books, Tulsa, Oklahoma.

2. Project Evaluation: Techniques and Practices for Developing Countries by H.K. Sang (1995), Avebury,

England. Reference Books

3. Contemporary Engineering Economics, Third Edition by C.S. Park (2002), Prentice-Hall, NJ.

4. Benefit-Cost Analysis: In Theory and Practice by R. Zebre and D. Dively (1994), Harper Collins.

ESE 4077 Energy Modeling and Project Management Credit: 3.0 Contact hour: 3 hrs/week

Introduction: Basic concept of econometrics and statistical analysis; The 2-variable regression model; The multiple

regression model; Tests of regression coefficients and regression equation; Econometric techniques used for energy

analysis and forecasting with case studies; Operation of computer package.

Input-Output Analysis: Basic concept of Input-output analysis; concept of energy multiplier and implication of

energy multiplier for analysis of regional and national energy policy; Energy and environmental Input - Output

analyses using I-O model.

Energy Modeling: Interdependence of energy-economy-environment; Modeling concept, and application,

Methodology of energy demand analysis; Methodology for energy forecasting; Sectoral energy demand forecasting;

Interfuel substitution models; SIMA model, and I-O model for energy policy analysis; Simulation and forecasting of

future energy demand; Energy Economics and Policies: National and Sectoral energy planning; Integrated resource

planning; Energy pricing.

Project Evaluation & Management: Financial analysis: Project cash flows, time value of money, life cycle

approach and analysis, conception, definition, planning, feasibility and analysis; Project appraisal criteria; Risk

analysis; Project planning matrix; Aims oriented project planning; Social cost benefit analysis. Network analysis for

project management; Time estimation; Critical path determination; PERT, CPM and CERT; Fuzzy logic analysis;

Stochastic based formulations; Project evaluation techniques; Funds planning; Project material management,

evaluation and analysis; Implementation and monitoring; Performance indices; Case studies.

Reference books

1. Energy Policy Analysis and Modeling, M. Munasinghe and P. Meier Cambridge University Press, 1993.

2. The Economics of Energy Demand: A Survey of Applications, W.A Donnelly New York, 1987.

3. Econometrics Models and Economic Forecasts, S. Pindyck and Daniel L Rubinfeld, 3rd edition McGraw Hill,

New York 1991.

4. Sectoral Energy Demand Studies: Application of the END-USE Approach to Asian Countries, UN-ESCAP, New

York 1991.

5. Guide Book on Energy – Environment Planning in Developing Countries – Methodological Guide on Economic

Sustainability and Environmental Betterment Through Energy Savings and Fuel Switching in Developing

Countries, UN-ESCAP, New York 1996.

6. Forecasting Methods and Applications, S.Makridakis, Wiley 1983

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ESE 4085 Mineral Energy Resources Credit: 3.0 Contact hour: 3 hrs/week

Introduction: An overview of hydrocarbon reserves in Bangladesh; Historical over view of discovery and

exploitation of petroleum and its products; Petroleum formation; Physical and chemical properties of petroleum;

Introduction to petroleum and mining geology and its classification; Petroleum system; Source of petroleum;

Mineralogy and Petrology: Origin of minerals and definition of rocks and minerals; Physical and chemical

properties of rocks and minerals; classification of rocks; Mode of occurrence, Distribution, Genesis, Evaluation and

exploration for metallic and industrial mineral deposits; Geological resources (hydrocarbon and mineral resources)

and their geological environment.

Environmental Geology: Petroleum industry, petroleum exploration, drilling, production, reservoir performance, oil

and gas transportation, utilization of oil and natural gas. Introduction to mining industry; economics and structure of

the mining industry; terminology of mining engineering; explorations; mining operations; mineral processing;

mineral purchasing; metallurgy; roles and responsibility of energy engineers to mining industry; problems and

environmental impacts in mining industry.

Exploration Methods: Subsurface geological cross sections and maps; Seismology and seismic survey; Gravity and

magnetic surveying; and petroleum deposits. Methods of coal, NG, Crude oil exploration; Open and pit mining.

Reference Books:

1. Petroleum formation and occurrence by B.P. Tissot, D.H.Welte, 2nd edition, Springer.

2. Elements of mining by Lewis, R.S., and Clark G.B.

3. Energy resources of Bangladesh by Imam, B., 2012, UGC Pub., Dhaka, Bangladesh.2nd edition.

4. Introduction to Petroleum Exploration and Engineering by Andrew Plamer, 2016.

5. Introduction to Mineralogy and Petrology by S. K. Haldar & Josip Tišljar, 2014. 1st Edition, Elsevier.

ESE 4093 Atmosphere, Ocean and Climate Dynamics Credit: 3.0 Contact hour: 3 hrs/week

Atmosphere: Earth System: Components of the Earth System; Hydrological Cycle; Carbon Cycle; Characteristics of

the atmosphere: chemical composition, physical properties of air; Global energy balance: Atmospheric absorption

spectrum, greenhouse effect; Vertical structure of atmosphere; convection in the atmosphere; meridional structure of

atmosphere.

Ocean: Ocean and its circulation: Physical characteristics, observed mean circulation, inferences from geostrophic

and hydrostatic balance, ocean eddies; Wind-driven circulation: wind stress and Ekman layer, baroclinic instability;

thermohaline circulation.

Climate Dynamics: Equitorial current system; Regional circulation system: Jet stream; Subtropical High; Equitorial

Trough; Monsoons; Interannual variability of the atmospheric Ocean System: El Nino and the southern oscillation;

Time scales of climate variability.

Reference Books:

1. Atmosphere, Ocean and Climate Dynamics by John Marshall and R. Alan Plumb

2. Climate Dynamics of the Tropics by Stefan Hastenarth, Springer Science Publication

3. Atmospheric Science -An Introductory Survey by John M.Wallace • Peter V.Hobbs

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