Course Catalog

Analysis,design and control of advanced electrical machines

Advanced Design of RCC Structures

Advanced Digital Signal Processing

Advanced power electronics and drives

Advanced Studies in Computer Sciences: Image Processing

Adv.  Machine Design

Advanced Analog VLSI Design

Advanced CAM

Advanced Computer Networks

Course description not available.

Advanced Devices & Circuits

Advanced Electromagnetics

Advanced Fluid Mechanics

Advanced Mechanics of Solids

Advanced Microcontrollers

Advanced Operations Research

Advanced Power Electronics

Students will learn advanced topics related to the behavior and design of reinforced concrete. Introduce the student to key advanced reinforced concrete concepts and topics as well as further develop the student’s critical thinking skills. 11. Course Aims Upon successful completion of this course, students will be able to: 1. Design of special structural elements of RC and 2. Design of Multi-storey buildings.

Advanced Reaction Engineering

Advanced Soil Mechanics

Matrix method of structural analysis

Advanced Structural Materials and Applied Tribology

Advanced Thermodynamics

Advanced Tribology

Physical and chemical processes responsible for fate and transport of pollutants in the atmosphere, identifying and evaluating mitigation measures of existing concentrations levels of these air pollutants, atmospheric modeling techniques to examine the distributions of pollutants, Basics of air pollution including unit of expression and measurement techniques; Sources of air pollutants in the environment; Aerosol/particulate matter.

Analog Circuits and Systems

ANALYSIS AND DESIGN OF MICROWAVE TUBES

Antenna Theory

Applied Statistics

Applied Tribology

Unit-1: Automotive systems, Design Cycle and Automotive Industry Overview a) Automotive systems- Overview of automotive industry, leading players, automotive supply chain, global challenges b) Introduction to modern automotive systems and need of electronics in automobiles c) Automotive transmissions; Transmission fundamentals, Types- MT,AT,CVT and DCT (dual Clutch Transmission) d) Vehicle Braking Fundamentals; Vehicle dynamics during braking, Hydraulic brake system components, Introduction to ABS e) Steering Control- Fundamentals, Electric Power steering f) Overview of Hybrid Vehicles- ECU Design- V- model development, Components of ECU, Examples of ECU on Chassis, Infotainment , body electronics and cluster Unit-2 Automotive Sensors and Actuators Accelerometer Sensors, Wheel Speed Sensors, Brake pressure sensors, seat occupancy sensors, engine speed, steering wheel angle, vehicle speed sensor, Throttle position sensor, temperature sensor, mass air flow rate sensor etc Actuators- Solenoids, Various types of electric motors, and piezo electric force generators Example- Relays, Solenoids and motors, sensors in airbag systems, Chassis control system, Automatic transmission system. Unit-3 Microcontrollers/ Microprocessors in automotive domain, Communication Protocols, Infotainment Systems Microcontrollers/ Microprocessors in Automotive domain, Critical review of Microprocessor, Microcontroller and DSP development (emphasis on ports, timers/ Counters, interrupts, Watchdog timers, PWM) Criteria to choose right microcontroller/ Processor, Automotive grade processors- Renesas, Quorivva, Infineon, Development of control algorithms for different automotive systems. Communication Protocols: CAN, LIN, Flex RAY, MOST, Ethernet, D2B and DSI, Communication Interface with ECU’s , Interfacing techniques and interfacing with infotainment systems, Infotainment Systems: Application of Telematics in Auomotive domain, GPS and GPRS (GPS navigation, integrated hands-free cell phones, wireless safety communications and automatic driving assistance systems all are covered under the telematics umbrella) Unit-4 – Automotive Control System and model based Development Control System Approach in Automotive: Digital and analog control methods, modelling of linear system, System responses, Model based Development: MATLAB, SIMULINK, SIMSCAPE Tool boxes. Unit-5 – Safety Systems in Automobiles and Diagnostic Systems Active Safety Systems- ABS, TCS, ESP, Brake Assit etc., Passive Systems- Airbag Systems, Advance driver assistance system, Examples of ADAS- Collision Warning, Automatic Cruise Control, Head light control, Connected cars technology towards Autonomous vehicles etc., Functional Safety, Diagnostics – OBD , Off board Diagnostics etc Unit-6 – AUTOSAR fundamentals Introduction and Overview of AUTOSAR, AUTOSAR RTE and SWE, AUTOSAR Diagnostics, AUTOSAR Integration methodology, AUTOSAR Network management, operating System and partial networking, MCAL , ETHERNET

Basic Components of Electrical Circuits (4): Fundamental electrical variables – charge, current, voltage & power; Independent Voltage & Current sources; Ideal circuit elements - Resistor, Capacitor & Inductor; Controlled Source models – VCVS, VCCS, CCVS & CCCS - definitions & circuit models; Concepts of Linearity, Time-invariance & Passivity. Linear D-C Circuits (5) – Kirchhoff’s laws, Series & Parallel combinations of resistances, Voltage & Current divisions, Analysis of resistive circuits using Loop & Node equations – with independent sources only, and with both independent and controlled sources. Useful Circuit Analysis Techniques (3) - Superposition, Source transformations, Thevenin’s equivalent, Norton’s equivalent, Maximum Power transfer, Delta-wye conversions. Time-domain Analysis of LTI Circuits (3) – Natural & forced responses of basic RC & RL circuits, Natural & forced responses of Series & Parallel RLC circuits. Sinusoidal Steady State Analysis of A-C Circuits (6) – Notions of phasors, impedance, admittance & transfer function; Frequency response vs transient response; Responses of RC, RL & RLC circuits – series & parallel Resonance; Simple passive Filters & their Bode plots; Loop & Node Analysis of a-c circuits with independent & controlled sources. Basic Amplifiers (6) – Amplifier parameters & controlled source models; Basic Feedback theory - Open-loop Gain, Feedback factor & Closed-loop gain; Effect of feedback on Amplifier parameters; VCVS model of an Opamp; Amplifiers using ideal OPAMP; Frequency response of basic OPAMP-based amplifiers. Power Amplifier (3) – Small-signal vs Large-signal behaviour of amplifiers; Power amplifier requirements – Power Output & Efficiency; Power amplifier using OPAMP and transistors. Waveform Generators (5) – Condition of harmonic oscillation; RC and LC oscillator circuits; Timer and Relaxation oscillator based on comparator and RC timing circuit; Square wave generator using 555 Timer and Digital inverters (TTL/CMOS); Crystal clock generator. D-C Power Supply (3) – Half-wave and Full-wave Rectifiers, Shunt Capacitor filter, Voltage Regulator, Regulated D-C Power Supply. Wave Shaping Circuits (4) – Diode Clippers; Precision Clippers using Diode and Opamp; Diode Clamp; Peak Detector and Peak Hold circuits; Sample and Hold circuit.

Big Data Management and Analytics has been becoming increasingly important for deriving valuable and actionable insights in in several important and diverse domains such as smart cities, transportation, healthcare and financial services. On the other hand, Cloud computing platforms, such as Hadoop, incorporate the capabilities of processing, managing and analyzing such Big Data in a highly scalable manner. This course is designed to equip students with the fundamentals of Big Data management & analytics (including data mining, machine learning techniques etc.) as well as facilitate them in understanding how Big Data can be efficiently processed in Cloud computing platforms. The course also has a significant “hands-on” lab component, where students will gain exposure to processing and analyzing Big Data on Hadoop. Unit 1: Introduction to Big Data and its applications This unit introduces the concept of Big Data and explains its four dimensions (i.e., volume, velocity, variety & veracity). Then it details several applications of Big Data analytics to motivate the ever-increasing importance of Big Data in today’s world. Applications cover a wide gamut of domains ranging from transportation services to finance to social media. Moreover, it describes how Big Data can represent a high value proposition to businesses as a source of competitive advantage in improving some of their key performance metrics such as market share, profit margins etc. Unit 2: Issues associated with Big Data Management This unit discusses various key issue which arise in the processing of Big Data. Notably, many of these issues also arise while processing data that do not fall under the Big Data category. However, such issues are significantly exacerbated due to the tremendously large volumes and typically high complexity of Big Data. Issues include (but are not limited to) data cleaning, data heterogeneity, data integration, replication, caching, maintenance of data consistency, scalability and so on. The unit also covers the inherent trade-offs associated with each of these issues. Unit 3: Concepts of Cloud computing This unit discusses the key concepts and principles of Cloud Computing. It also incorporates detailed information about Cloud-related terminology. The topics covered in this unit include (but are not limited to) pros and cons of Cloud computing, Cloud architecture, Cloud service models (IaaS, PaaS, SaaS), Cloud applications (Azure, AWS etc.), effective resource allocation and cost efficiencies in Cloud computing, multitenancy and so on. Unit 4: Hadoop and MapReduce This unit covers the key concepts of Hadoop and MapReduce for solving real-world analytics problems associated with Big Data. The topics covered in this unit include (but are not limited to) Hadoop Distributed File system and several key Hadoop-related modules or software packages such as Hive, Pig, HBase, Spark, Flume, Sqoop, Oozie etc. Students will not only understand the concepts of these Hadoop packages, but also engage in some hands-on development work on these modules to gain a deeper level of expertise. Unit 5: Data Models & NoSQL This unit discusses the four key data models that are important for handling Big Data. The models are key-value DB, column-family DB, document DB and graph DB. For each of these data models, the unit will cover some of the important real-world technologies from both a theoretical perspective as well as from a practical hands-on point of view. Examples include HBase, Cassandra, Hypertable, BigTable, Dynamo DB, Mongo DB, Neo4J, Redis etc. This unit will also present the various trade-offs associated with selecting an appropriate data model based on issues such as the requirements of the respective applications, the specific properties of the underlying data, complexity of performing analytics and scalability. Unit 6: Big Data Strategy and Implementation This unit examines the business and strategic perspective of Big Data. Topics covered in this unit include (but are not limited to) a brief overview of some of the fundamental concepts of business strategy & business intelligence, understanding the key requirements of the relevant stakeholder(s), defining a Big Data strategy & creating plans for implementing the strategy, selecting appropriate Big Data tools and technologies based on the requirements of stakeholder(s) and cost-benefit trade-offs, maximizing the benefits obtaining by analyzing Big Data and maintaining a sustainable competitive advantage in the market.

Course description not available.

Course description not available.

Course description not available.

Chemical Engineering Fluid Mechanics Lab

Chemical Engineering Fluid Mechanics

Course Summary This course supplements the understanding of fluid flow/ heat transfer problems achieved during the undergraduate Fluid Mechanics (FM) and Heat Transfer (HT) course through live examples. This lab course involves performing the experiments utilising the taught principles. Course Aims To enable students to relate and develop their understanding of theoretical concepts taught in the lectures through the respective experiments. Learning Outcomes On successful completion of the course, the students will: 1. have an improved understanding of the principles of FM and HT; 2. learn how to conduct an experiment for fluid flow and heat exchange related problems; 3. apply basic principles to solve real life problem based on FM and HT; 4. be able to record experimental data, interpret and represent conclusive findings; and 4. be able to design simple experimental setups. Curriculum Content List of experiments for Fluid Mechanics: Obstruction type flow meters Pressure measurements Bernoulli’s theorem Reynolds experiment and determination of friction factor Pipe flow List of experiments for Heat Transfer: Heat conduction: Composite wall and lagged pipe Heat conduction: Heat transfer through pin fin apparatus Heat convection: Heat transfer in natural and forced convection Heat radiation: Emissivity measurement Parallel and counter flow heat exchanger Teaching and Learning Strategy The course entails conducting practical experiments. The subjective concepts have been covered in previous semesters in dedicated courses. Teaching and Learning Strategy Description of Work Class Hours Out-of-Class Hours Practical sessions Performing experiments 2 hours/week 0 hour/week ASSSESSMENT. Assessment Scheme Type of Assessment Description Percentage Pre-experimental quiz Continuous evaluation for all experiments 20 Experiments, laboratory reports Performing experiments and its continuous evaluation and writing final report. 50 End-sem viva Final practical exam with viva 30 Total 100% Bibliography R. W. Fox and A. T. McDonald, Introduction to Fluid Mechanics Frank M. White, Fluid Mechanics W. L. McCabe, W. L. Smith, and P. Harriot, Unit Operations of Chemical Engineering R. B. Bird, W. L. Stewart and E. L. Lightfoot, Transport Phenomena JP Holman, Heat Transfer Incropera Dewitt, Principles of Heat and Mass Transfer

Course description not available.

Introduction, Definitions and Concepts: System, Surroundings, Thermodynamic Property, Heat, Energy, Work. First Law of Thermodynamics and Its Applications. Thermodynamic State and State Functions, Thermodynamic Equilibrium, Phase Rule. Working Fluid, Ideal Gas Properties, PVT Behaviour of Pure Substances, Reversible and Irreversible Processes, Various Heat Effects, Combustion. Second Law of Thermodynamics: Limitation of First Law, Kelvin-Planck and Clausius Statements, Carnot cycle, Thermodynamic Temperature Scale, Entropy, Irreversibility, Lost Work, Exergy. Third Law of Thermodynamics. Steam Cycle- Rankine Cycle, Refrigeration and Heat Pumps, Liquefaction of Gases, JouleKelvin Effect. Compressible Flow, Nozzles, Turbines, Expanders. Virial Equation and its Applications, Cubic Equations of State, Generalized Correlations for Gases and Liquids. Properties of Pure Substances, Properties of Gases and Gas Mixtures, Residual Properties, Thermodynamic Equations: Maxwell’s Equation, Energy Equation. Vapour Liquid Equilibria (VLE): Raoult’s Law, K-Value. Solution Thermodynamics: Theory and Applications, Chemical Potential, Partial Properties, Fugacity and Fugacity Coefficient, Excess Properties. Mixing Effects. Gamma/Phi Formulation of VLE. Chemical Reaction Equilibrium.

Course description not available.

 To study the second order saponification reaction in an isothermal batch reactor and in an isothermal semi-batch reactor.  To study non-catalytic homogenous second order liquid phase reaction in a CSTR under ambient conditions and under isothermal conditions.  To study the performance of a cascade of three equal CSTRsin series.  To perform RTD studies in a CSTR.  To study non-catalytic homogenous second order liquid phase reaction in a PFR under ambient conditions.  To perform RTD studies in a PFR.  To study non-catalytic homogenous reaction in a series arrangement of PFR and CTSR.

Introduction to residence time distribution, characterization, diagnosis, conversion using RTS, Models for non-ideal reactors, catalyst, step reaction, synthesis of rate law, reaction mechanism and rate limiting step, catalyst deactivation, diffusion effects on reaction and with catalyst of different shapes and sizes, Falsified kinetics and effectivenss factor, mass transfer and reaction in Packed bed reactors

Chemical Reaction Engineering

Unit operations and unit processes, functions of chemical engineer, new emerging areas: Study of the following chemical industries/processes involving process details, production trends, thermodynamic considerations, material and energy balances, flow sheets, engineering problems pertaining to material of construction, waste regeneration/ recycling, and safety, environmental and energy conservation measures.  Industrial gases: hydrogen, producer gas, and waste gas. Nitrogen industries: Ammonia, nitric acid, nitrogenous and mixed fertilizers, Chlor-Alkali industries: Common salt, caustic soda, chlorine, hydrochloric acid, soda ash, Sulphur industries: Sulphuric acid, oleum.  Cement industries: Portland cement, Petrochemicals: Formaldehyde, ethylene oxide, ethylene glycol, acrylonitrile, styrene, butadene, Agrochemicals: Important pesticides, BHC, DDT, Malathion, Alcohol industries: Industrial alcohol, Absolute alcohol, Oil, Fats and waxes, soaps and detergents, pulp and paper industry.

Climate And Climate Change

Review of Fourier series and Transform. Hilbert transform. Band pass signal and system representation. Noise: Resistor noise, Noise temperature, Noise bandwidth, effective input noise temperature, Noise figure. Noise figure & equivalent noise temperature in cascaded circuits. Random process: stationary, power spectral density, Gaussian process, noise. AM, DSBSC, SSB, VSB; Signal representation, generation, and demodulation. FM: signal representation, generation, and demodulation. Superheterodyne receiver, Mixer. Phase recovery with PLL. Noise in AM / FM : AM receivers using coherent detection, AM receivers using envelope detection, FM receivers. Pulse Modulation: PPM, PWM, PAM. PCM: sampling, PAM sampling, quantization, PCM -TDM. Basics of TDMA, FDMA, CDMA & GSM.

INTRODUCTION TO FMS, RMS, CIM: Introduction to FMS, FMS equipment, tool management system, system layouts, reconfigurable machines and systems, CIM technology issues, CIM Models. MATERIAL HANDLING, STORAGE & DATA COLLECTION: Functions, types, analysis of material handling equipment’s. Design of conveyor and AGV systems, storage system performance, AS/RS, carousel storage system, WIP storage system, interfacing handling storage with manufacturing. Automatic data collection, bar code technology, Radio Frequency Identification. PROCESS PLANNING: Approaches to process planning, CAPP- variant approach and generative approach, study of a typical process planning, system. ERP MODULES: Materials, human resource, production, sales, marketing and finance, dynamic enterprise modeling. NETWORKS: Computer networks, a perspective, goals, applications, switching techniques, circuit switching, message switching, packet switching, network components, existing network, ARPANET, concepts of network protocol, OSI reference model. LAN & ACCESS TECHNIQUES: Topologies - star, ring, bus. Ethernet, transmission media, protocols, polling, contention, ALOHA, CSMA, CSMA/CD, token ring protocols, performance comparisons. INTERNETWORKING DEVICES: Principles, repeaters, bridges, routing with bridges, routers, gateways, hubs and switches, TCP/IP protocol structure, internet protocol, transmission protocol, applications. FUNDAMENTALS OF NETWORKING: Networking concepts, LOSI, MAP, TOP, LAN and WAN, internet and related technologies, collaborative engineering. CIM CASE STUDIES: CIM implementation, integration, benefits of CIM. Mini-project: Product/machine part is to be taken up and by teams comprising no more than 4 members, and they are to use the skills they learn in class to design, analyze and make them.

: Introduction- Language Processors, the structure of a compiler, Lexical Analysis- the role of lexical analyzer, input buffering, specification of tokens, recognition of tokens, Syntax Analysis- grammars, top-down parsing, bottom-up parsing, LR parsing, Syntax directed translation- definitions, evaluation, application, schemes, Code Generation intermediate code generation, runtime environments, issues in code generator, introduction to optimization. Module 1: Introduction Language Processors, motivation and application, the structure of a compiler, phases of compiler. Module 2: Lexical Analysis The role of lexical analyzer, input buffering, specification of tokens, recognition of tokens Module 3: Syntax Analysis Grammars, top-down parsing, bottom-up parsing, LR parsing Module 4: Syntax directed translation Definitions, evaluation, application, schemes Module 5: Code Generation Intermediate code generation, runtime environments, issues in code generator, introduction to optimization Laboratory: • Programs for Lexical Analysis, exercises based on finite state automata and regular expressions • Programs for Syntax Analysis, exercises based on grammars and pushdown automata • Exercises related to syntax directed translation • Code generation • Code Optimization

Introduction to Numerical Methods in Engineering: Finite Element Methods Overview: Introduction: Historical background, basic concept of the finite element method, comparison with finite difference method; 1-D Applications in heat transfer, fluid mechanics and solid mechanics. Finite element analysis of 2-D problems: numerical integration. Introduction to Computational Fluid Dynamics: Basic equations of Fluid Dynamics: General form of a conservation law; Equation of mass conservation; Conservation law of momentum; Conservation equation of energy. Mathematical nature of PDEs and flow equations. Basic Discretization techniques: Finite Difference Method (FDM); The Finite Volume Method (FVM). Analysis and Application of Numerical Schemes: Consistency; Stability; Convergence; Fourier or von Neumann stability analysis; Modified equation; Application of FDM to wave, Heat, Laplace and Burgers equations. Integration methods for systems of ODEs: Linear multi-step methods; Predictorcorrector schemes; The Runge-Kutta schemes. Numerical solution of the incompressible Navier-Stokes equations: Stream function-vorticity formulation; Primitive variable formulation; Pressure correction techniques like SIMPLE method; Lid-driven cavity flow.

Computational Geomechanics

Computer Aided Design and Manufacturing

Introduction to Computer Architecture: Overview and history - The cost factor, Performance metrics and evaluating computer designs, Memory hierarchy. Instruction set design - Assembly / machine language, Von Neumann machine cycle, Microprogramming / firmware, Memory addressing, Classifying instruction set architectures, RISC versus CISC Pipelining - General considerations, Comparison of pipelined and nonpipelined computers, Instruction and arithmetic pipelines, examples, Structural hazards and data dependencies, Branch delay and multicycle instructions, Superscalar computers. Memory System Design - Cache memory, Basic cache structure and design, Fully associative, direct, and set associative mapping, Analyzing cache effectiveness, Replacement policies, Writing to a cache, Multiple caches, Upgrading a cache, Main Memory, Virtual memory, structure, and design, Paging, Replacement strategies, Secondary memory Multiprocessors and Multiple Computers - SISD, SIMD, and MIMD architectures, Centralized and distributed shared memory- architectures, Cache Coherence

Cement, aggregate, concrete, chemical and mineral admixture, Mix design, Properties of fresh and hardened concrete, Durability and special concrete for detailed syllabus click here 

• Introduction and Mathematical Modeling: Classification of Control Systems: Open-loop and Closed-loop Systems, Effect of feedback, Mathematical modelling of physical/mechanical systems and its electrical equivalents, Translation systems; Rotational systems; Servomechanisms, Servomotors, Synchros, Block Diagram and Signal Flow representation and analysis. • Time - Domain Analysis Standard Signals; Time-response of 1st order and 2nd order systems, Dynamic / Transient and Steady-State Response, Steady-State Errors: Error Constants, Type-0, Type-1, and Type-2 Systems, Effect of Poles and Zeroes to Transfer Functions; Dominant Poles, Design and Response of Controllers: P; PI; PD and PID. • Stability Criterion and Technique Absolute and Relative Stability, Routh Stability Criterion: BIBO Systems; Necessary Conditions, Relative Stability Analysis, Root Locus Technique: Concept , Construction, and Rules of Root Loci, Effect of Poles and Zeros to G(s)H(s) function • Frequency – Domain Analysis Correlation between Time-Domain and Frequency-Domain Analysis, All-Pass System; Non-Minimum-Phase System and Minimum-Phase System, Polar Plot and Bode Plot: Properties and Constructions, Gain Margin and Phase Margin, Nyquist Plot: Nyquist Stability Criterion; Effect of Poles and Zeroes, Constant M and N Circles; Nichols Chart. • Compensation Networks Effect and Need of Compensatory Networks, Types: Lead Compensator; Lag Compensator and Lag-Lead Compensator, PID and Modified PID Controllers, Introduction to Digital Controllers: PLC and PAC Type Controllers • State-Space Analysis Conventional Control verses Modern Control Theory, Concept of State-Space Representation, Realizations of Transfer Functions; Diagnosis, and Solution of State-Space Equations; transition Matrix, Stability Criteria: Observability and Controllability of Linear Systems.

Core Concepts of Data Analysis

Cyber Physical Systems

Data Communication and Networking

1 Introduction to data mining, Data Mining vs Knowledge discovery, Data Mining issues, Social Implications. 2 Introduction to data warehousing, Database/OLTP systems, Decision Support Systems, Multi-dimensional data model, Data Warehouse components, architecture and implementation, OLAP 3 Data Preprocessing: Data Cleaning, Data Integration and Transformation, Data Reduction, Discretization and Concept Hierarchy Generation 4 Statistical Measures: Point Estimation, Models based on Summarization, Bayes Theorem, Hypothesis testing, Regression and Correlation; Similarity measures. 5 Mining Association Rules in large databases, Mining Multidimensional Association Rules from Relational Databases and Data Warehouses, From Association Mining to Correlation Analysis, Constraint Based Association Mining 6 Classification, Prediction, Clustering and Visualization 7 Introduction to Advanced Topics: Mining complex data, Mining Time-series data, Spatial data mining, Multimedia data mining, Text mining, Mining the WWW. 8 Social impact of Data mining, Recent trends in Data mining research, Challenges and Future Scope.

Prerequisite: CSD101 The goal of the course is to teach fundamental data structures, whichallow one to store  collections of data with fast updates and queries. A detailed schedule will evolve as the semester progresses. Key topics will definitely include: C refresher, abstract data types, fundamental data structures, complexity of algorithms, analysis tools, linked lists, stacks and queues, search trees,maps, hashing, priority queues, graphs.

Introduction to graphical representation using free hand drawing and computer-aided drafting. Engineering graphics covers basic engineering drawing techniques such as Lines & Lettering, Geometrical Constructions, Orthographic and Isometric Projections, Sectional views, and Dimensioning. This course uses the latest release of computer-aided design (CAD) software commonly used in industry to introduce students to CAD interface, structure, and commands. An introduction to 3D printing will also be give, Students will draw the above mentioned projections and constructions on A1/A2 size drawing sheets, and later in AutoCAD. At the end of the course, students will be given a chance to print their models made on AutoCAD using a 3D printer. Students would be judged on mostly timely submissions of the Drawing Sheets (Assignments) and AutoCAD models, and a Major Exam during the semester.

• CMOS Fundamentals MOS Device Physics, Design of MOS switch, MOS diode/ active resistor • Amplifier Design MOS amplifiers, Common-Source stage (with resistive load, diode connected load, current-source load, triode load, source degeneration), source follower, common-gate stage, cascode stage. • Differential Amplifiers Differential amplifier, Single-ended operation, differential operation, basic differential pair, large-signal and small-signal behavior, common-mode response, differential pair with MOS loads, • Bias Circuits and References Passive and Active current mirrors, Bandgap References. • Frequency Response Frequency response of CS stage, CD stage, CG stage, cascade stage, differential pair. Feedback Topologies, Operational amplifiers: one stage op-amp, two-stage CMOS op-amp, Gain Boosting, Stability and Frequency Compensation

Design of Photo Voltaic Systems

Design Approach, Limit state analysis as per IS 800:2007, Design of connections, tension, compression member, Design of beams and truss, Plastic analysis of the structure  For detailed syllabus click here

• Introduction and Overview of Digital Communication Systems and Principles, Model, Analog vs. Digital Communication, Sampling, Quantization, PCM • Concept of Probability and Random variable: characterization and Pdfs • Geometric representation of Signal waveforms: Gram Schmidt procedure, Constellations • Digital modulation and demodulation schemes: performance analysis and comparison • Synchronization and Channel equalization • Digital Transmission: ISI, Matched filter, Maximum Likelihood detector, Transmitter, Receiver designs • Channel capacity, Coding and Decoding, Source Coding, Information Measure, Introduction to Error control: Viterbi, Linear Block codes, Convolution Codes, Hamming, and Turbo codes. • Introduction to Multiple Access Communication, Spread spectrum communications, OFDM

Discrete time signals and systems: Sequences; representation of signals on orthogonal basis; Sampling and reconstruction of signals; State Space representations. Discrete systems: attributes, Z-Transform, Analysis of LSI systems, Frequency analysis, Inverse Systems, Discrete Fourier Transform (DFT), Fast Fourier Transform algorithm, Implementation of Discrete Time Systems. Design of FIR Digital filters: Window method, Eigen based methods, Park-McClellan's method. Design of IIR Digital Filters: All pass based design, Butterworth, Chebyshev and Elliptic Approximations; Low pass, Band pass, Band stop and High pass filters, Matched filters, CIC filter design. Effect of finite register length in FIR filter design. Parametric and non-parametric spectral estimation. Introduction to Multirate signal processing. Application of DSP to Speech and Radar signal processing.

Programmable logic devices such as field programmable gate arrays (FPGAs), have become a major component of digital system design these days. The Course starts with an Introduction to the scope of Reconfigurable platforms and applications along with a complete FPGA design flow. Then use of a hardware description language (HDL; in particular Verilog) for the specification, synthesis, simulation, and exploration of principles of register transfer level (RTL) designs. In this class the students learn how to write HDL models that can be automatically synthesized into integrated circuits using FPGAs. Details of techniques to resolve common pitfalls in designing with FPGAs and best practices incorporated in Industry will be dealt with few case studies. Laboratory and homework exercises include writing HDL models of combinational and sequential circuits, synthesizing models, performing simulation, writing test bench modules, and synthesizing designs to an FPGA. The course also contains lab work and is based on a sequence of Verilog design examples leading to a final group project.

Dynamics and Vibration

Causes of earthquakes and seismic waves; Measurement of earthquakes and measurement parameters, Linear earthquake analysis: idealization of structures, equations of motion for SDOF and MDOF systems, Nonlinear earthquake analysis: force-deformation relationships, equation of motion, controlling parameters, Vibration control systems; Concepts of active and passive controls; Base isolation for earthquake resistant design of structures: isolation systems and their modeling. For details click here 

Electromagnetic Field Theory of Microwave Devices

Objective of the course: Electrical machines course is one of the important courses of the Electrical discipline. In this course the different types of DC generators and motors which are widely used in industry are covered and their performance aspects will be studied. UNIT – I: Electromechanical Energy Conversion: Electromechanical Energy conversion – forces and torque in magnetic field systems – energy balance – energy and force in a singly excited magnetic field system, determination of magnetic force - co-energy – multi excited magnetic field systems. UNIT – II: D.C. Generators & Armature Reaction: D.C. Generators – Principle of operation – Action of commutator – constructional features – armature windings – lap and wave windings – simplex and multiplex windings – use of laminated armature – E. M.F Equation – Problems. Armature reaction – Cross magnetizing and de-magnetizing AT/pole – compensating winding – commutation – reactance voltage – methods of improving commutation. Applications of DC generators in different types of industries. UNIT – III: Types of D.C Generators & Load Characteristics: Methods of Excitation – separately excited and self- excited generators – build-up of E.M.F - critical field resistance and critical speed - causes for failure to self-excite and remedial measures. Load characteristics of shunt, series and compound generators – parallel operation of DC series generators – use of equalizer bar and cross connection of field windings – load sharing. UNIT – IV: D.C. Motors & Speed Control Methods: D.C Motors – Principle of operation – Back E.M.F. - Torque equation – characteristics and application of shunt, series and compound motors – Armature reaction and commutation. Speed control of DC Motors: Armature voltage and field flux control methods. Ward-Leonard system. Principle of 3 point and 4 point starters – protective devices. Applications of DC motors in different types of industries. UNIT – V: Testing of D.C. Machines: Losses – Constant & Variable losses – calculation of efficiency – condition for maximum efficiency. Methods of Testing – direct, indirect and regenerative testing – brake test – Swinburne’s test – Hopkinson’s test – Field’s test – Retardation test – separation of stray losses in a DC motor test. Recommended books 1. Electrical Machinery, Fitzgerald, Mc Grawhill, 6th Edition, 2010 2. Electrical machinery and transformers, Guru and Hiziroglu, Oxford, 2004 3. Principles of electrical machines and Power Electronics - P.C.SEN, Jhon Wiley and sons(Indian reprint) 4. Electrical machines, Nagrath and Kothari, Mcg raw hill, 3rd edition. 2004

Electromagnetic Modeling by Finite Element Method

Review of scalar and vector fields Electrostatic and Magneto static Fields. Maxwell’s equations: Inconsistency of Amperes law, Continuity equation, Displacement current, Maxwell’s equations, Boundary conditions. EM waves: Wave propagation in free space, Conductors and dielectrics, Polarization, Plane wave propagation in conducting and non-conducting media, Phasor notation, Phase velocity, Group velocity; Reflection at the surface of the conductive medium, Surface Impedance, Depth of penetration. Poynting Vector: Poynting theorem, Poynting Vectors and power loss in a plane conductor. Transmission Line: Transmission line equations, characteristic impedance, open and short circuited lines, standing wave and reflection losses. Impedance matching, Smith Chart, Simple and double stub matching. Antenna & radiation: Scalar and vector potentials. Radiation from a current filament, half-wave dipole and small loop antennas. Antenna characteristics, radiation pattern, radiation intensity, directivity and power gain. Introduction to Electromagnetic Interference (EMI) and Electromagnetic Compatibility (EMC)

Unit‐1 – Transformers: Different types of transformers and Applications, Transformer Construction, Core and Shell type of transformers, Core Materials and Laminated core , Cooling systems, Ideal Transformer Fundamentals, Practical Transformer, Equivalent circuit of a transformer, testing of Transformers, Polarity Test, OC test , SC Test and Back to Back or Sumpner’s Test Unit‐2 DC Machines Principals of Electromechanical energy conversion, Electrical and magnetic circuits DC machine Constructional details, DC generator – Operation, types of generators, Characteristics, DC winding diagrams Unit‐3 DC Motors DC motor operation, characteristics, Principals of Commutation and armature reaction, Starters, Testing of DC machines Unit‐4 AC Machines Three phase Induction Machines, Constructional details, Principle of operation, IM characteristics, Starting of IM, Testing of IM, Three phase Synchronous machines, Constructional details, Principle of operation, SM characteristics, Starting of SM, Different types of SM. Unit‐5 FHP and special Machines Single phase IM, Universal Machine, PM DC machine, Stepper motors

Embedded Systems Hardware

Course description not available.

Engineering Thermodynamics Assignment

Hydrologic cycle – types of precipitation, measurement of rainfall – spatial measurement methods – temporal measurement methods, precipitation and losses, stream flow measurement, hydrographs, floods and flood routing

Fundamentals of Mechanics, Equivalent Force-Couple Systems, Simple Resultant, Equilibrium of 2D and 3D Systems, Truss, Friction, Methods of Virtual Work and Potential Energy, Dynamics and Vibrations. For detailed syllabus click here

Environmental Air Pollution

X. Course Content: Soils and Clay Minerals: Geometric relationships of granular soil systems, Packings of particles and their primary structure, Mechanical behavior of granular systems, Clay Mineralogy; Structural Units of Soils; Particle Bonds, Bond Energies, and Linkages; Inter-particle Energies or Forces; Particle Arrangement and Clay Structures; Ion-Exchange Reaction and Ion-Exchange Capacity; Clay–Water–Electrolyte System; Characteristics and Structures of Some Typical Clay Minerals; Hydrophilic and Hydrophobic Soils; Characteristics of Hydrophobic and Hydrophilic Soils; Homoionic, Pure Soil and Man-Made Soil. Soil–Water–Air Interaction in the Environment: Soil Moisture Terminology; Nature of Water; Properties of Water and Water Substances; Solutions, Compounds, Mixtures, and Electrolytes; Types and Sources of Water; Electrochemical Characteristics of the Soil–Water System; Flow Routes Relating to Soil–Water Interaction; Flow Path–Wetting and Drying Process; Soil–Water Interaction in the Thermal Energy Field; Soil–Water Interaction in the Electric Energy Field; Concept of Geomorphic Process; Sensitivity of Soil to the Environment; Mechanisms and Reactions of Soil–Water–Air Interaction in the Environment; Sensitivity of soil to environment Hydraulic Conduction Phenomena: Infiltration, Percolation, and Retention; Capillarity phenomena; Hydraulic Conductivity; Stress, Pressure, and Energy of Soil–Water System; Drainage and Dewatering Systems; Seepage Flow, Flow Net, and Free Water Surface; Soil–Water Suction and Diffusivity; Diffusion and Migration Different Characteristics of Soil: Shrinkage Characteristics; Swelling Characteristics; Sorption Characteristics; Adsorption Characteristics, Cracking Phenomena and Mechanisms; Tensile Characteristics; Environmental Factors Affecting Tensile Strength; Fracture Characteristics; Soil Cracking–Fracture Interaction Thermal Properties of Soils: Thermal Properties of Soils; Characteristics of Heat and Heat Sources; Heat Transfer Process and Measurable Thermal Parameters; Soil–Heat Interaction; Thermal Conductivity and Resistivity of Soil; Effects of Heat or Temperature on Soil Behavior; Freezing and Thawing of Soils Electrical Properties of Soils and Water: Characteristics of Particles and Electricity; Measurable Parameters in Soil–Water–Electricity System; Electromotive Force and Resistance; Conductance and Capacitance; Fundamentals of Soil–Electrochemistry; Electrolytes and Electrical Reactions; Characteristics of the Dielectric Constant; Electric Conductivity and Electrokinetic Phenomena; Ground Improvements and Soil Decontamination by Electrokinetic Process; Electrophoresis and Electromigration; Electrochemical Process; Multienergy Effect on Soil–Water System; Electroviscous Effect; Thermoelectric Effect; Electromagnetic Effect Soil Contamination: Inorganic Contaminants; Organic Chemical Contaminants; Sources; Chemistry; Chemical Analysis of Contaminated Soils; Tools for Monitoring Contaminated Soils; Site Characterization; Risk Assessment; Soil Remediation Planning and Options XI. Reference Books: 1. Fang H.Y. and Chaney R.C., “Introduction to Environmental Geotechnology” CRC Press, 2016. 2. Fang H.Y. and Daniels J.L., “Introductory Geotechnical Engineering: An Environmental Perspective” CRC Press, 2006. 3. Sarsby R.W., “Environmental Geotechnics” ICE Publishing, 2013. 4. Yong, R. N., “Geoenvironmental Engineering, Contaminated Soils, Pollutant Fate, and Mitigation” CRC Press, 2000. 5. Reddi L.N. and Inyang H. I., "Geoenvironmental Engineering, Principles and Applications" CRC Press, 2000. 6. Yong R.N., Mulligan C.N., Fukue M., “Sustainable Practices in Geoenvironmental Engineering” CRC Press, 2017. 7. Sharma H.D. and Reddy K.R., “Geoenvironmental Engineering: Site Remediation, Waste Containment, and Emerging Waste Management Technologies” John Wiley & Sons, 2004. 8. Thompson C. and Nathanail P., “Chemical Analysis of Contaminated Land” Wiley-Blackwell, 2008. 9. Sparks D.L., “Environmental Soil Chemistry” Academic Press, 2002. 10. Bleam W., “Soil and Environmental Chemistry” Academic Press, 2016. 11. Journal of Geotechnical and Geoenvironmental Engineering: https://ascelibrary.org/journal/jggefk 12. Environmental Geotechnics: https://www.icevirtuallibrary.com/toc/jenge/ XII. Assessment Scheme: Individual Project (literature review, project work, report submission and project presentations) – 30% Quizzes – 20% Mid-term examination – 20% Final examination – 30% Students must score above 40% to pass this course

Cash Flow Analysis, Uncertainty and Risk Analysis. Various phases of Project, Project proposal, Components of planning, Objectives of planning, factors affecting planning. Job Planning: Bar diagrams and bar charts, C.P.M. , P.E.R.T. : Event identification, event time, network preparation and analysis, precedence network and cost interaction. principles of estimating. Methods of taking out quantities of items of work. Mode of measurement, measurement sheet and abstract sheet, bill of quantities. For detailed syllabus click here 

For details click here 

Module 1: Introduction: General Description of Finite Element Method: Steps in Finite Element Analysis Module: 2 Discretization of the domain, 1-D element and computational procedure and node numbering scheme, Interpolation Models, Different formulation technique Virtual Work and Variational Principle, Galerkin Method, PMPE. Numerical solution of finite element equations – Equilibrium problem, Eignenvalue problem and propagation problem Module 3: Element Properties : Natural Coordinates : Triangular Elements : Rectangular Elements : Lagrange and Serendipity Element family : Solid Elements : Isoparametric Formulation Numerical Integration: One Dimensional : Numerical Integration: Two and Three Dimensional. Analysis of truss, beams, frames and plates and solids of revolution. Coordinate Transformation – stress, strain and material property transformation. Dynamic Analysis. Module 4: Application to heat transfer problems. Module 5: Application to Fluid Mechanics Problems, ANSYS and ADINA demonstration.

Studies fluids ( liquids , gases , and plasmas ) and the forces, Fluid statics; Fluid kinematics; Fluid dynamics; Flow through pipes; Dimensional analysis and similitude; Boundary Layer Analysis; & Flow Measurement Devices For detailed syllabus click here

Course description not available.

Fluid-particle Mechanics

Soil mechanics for analysis and design of foundations, both shallow and deep, and of earth retaining structures. Theory of lateral earth pressure; Methods of analyses; Bearing capacity theories; Design of shallow foundations: strip footings, isolated footings, combined footings, rafts, Foundations in difficult grounds; Ground improvement techniques; Soil reinforcement.

Foundations of Signal Processing

Fracture Mechanics

Geoenvironmental Engineering

Vibration theory; Engineering seismology, Wave propagation through soils; Dynamic soil properties, Strong ground motion; Seismic hazard analysis; Seismic ground response analysis; Liquefaction and lateral spreading; Seismic microzonation, Seismic analysis and seismic performance assessment of structures. For details click here 

Green Energy Studies

Introduction and basic concepts; Heat conduction equation; Steady heat conduction; Transient heat conduction; Fundamentals of convection; External forced convection; Internal forced convection; Natural convection; Heat exchangers; Fundamentals of thermal radiation; Mass transfer.

Course description not available.

Course description not available.

Course description not available.

The Objective of this course is to understand the concept of hydropower projects including potential, types of hydropower plant, hydropower scheme & its component, planning and design aspects. X. Learning Outcomes: Upon successful completion of the course, student should be able to • To learn the elements of hydropower scheme • To study the estimation of hydropower potential. • To gain knowledge on water conveyance system by studying intake structures, power canals, and penstocks. • To lean the different types of hydro power plant • To gain knowledge on turbine

I.C. Engines and Automobiles

Independent Study (Fluid Structure Interaction)

Independent Study - Advanced Refrigeration

Industrial Environment Management

Water and Waste water Quantity Estimation, Water Distribution and Sewerage Systems, Elements of Water Supply Scheme, Water/Wastewater Quality Enhancement, Physicochemical Processes, Surface and Ground Water Treatment, Biological Processes for Water and Wastewater Quality Enhancement, Elements of Wastewater Disposal Schemes, Rural Water Supply and Sanitation, Water and Wastewater Effluent Treatment Plants, Recent trend & development in field of water and wastewater engineering. For details click here 

Information Theory

Course description not available.

The course will provide a hands on approach to the concept of IoT. Topics include: Introduction to IoT, IoT Domains, IoT Platform Design and Methodologies, IoT Hardware Platforms and Sensors, IoT Web and Cloud Platforms, IoT Analytics, IoT Tools, IoT Security Case Studies and Projects.

Course description not available.

Internship/Project-II

Course Summary This course focuses on design and analysis of algorithms for problems that are geometric in nature or modelled as a geometric problem. These include construction convex hulls, Voronoi diagrams, range queries, Euclidean MST and optimization problems like Linear Programming. Besides the well-studied algorithmic techniques, geometric problems have motivated many novel algorithmic strategies and data structures that the course will attempt to cover. Students are expected to be familiar with basic data structures and algorithm design techniques and high school level coordinate geometry. Since geometric problems require appropriate data representation, there will be some exercises that students will be expected to program and experience the challenges of such implmentations. Course Aims 1. To provide students with a basic understanding of representation of geometric objects and computational framework. 2. To introduce students to the design and analysis of fundamental geometric problems. 3. To develop understanding of relationship between complexity of geometric problems. 4. To develop some basic relationship between combinatorial geometry and analysis of geometric algorithms . 5. To enable students to get a flavour of implementing algorithms that rely on arithmetic and algebraic operations involving finite precision operands. Learning Outcomes On successful completion of the course, students will be able to: a) Evaluate the importance of modelling a given problem in terms of its geometric properties and how to exploit these algorithmically. b) Develop a good understanding of many fundamental geometric data structures like range-search trees and their extensions to higher dimensions. c) Develop some understanding of the computational complexity of basic geometric problems. Curriculum Content Syllabus 1. Geometric Fundamentals: Models of computation, lower bound techniques, geometric primitives, geometric transforms 2. Convex Hulls: . Planar convex hulls, higher dimensional convex hulls, randomized, output-sensitive, and dynamic algorithms, applications of convex hull 3. Geometric Searching: segment, interval, and priority-search trees, point location, persistent data structure, fractional cascading, range searching, nearest-neighbor searching 4. Proximity Problems: closest pair, Voronoi diagram, Delaunay triangulation and their subgraphs, spanners, well separated pair decomposition 5. Arrangements: Arrangements of lines and hyperplanes, sweep-line and incremental algorithms, lower envelopes, levels, and zones, applications of arrangements 6. Randomized Techniques:.Use of random sampling and Randomized incremental construction   Teaching and Learning Strategy a) Lectures will encourage students to develop intuitions behind designing efficient algorithms with interactive discourse. b) Extend techniques learned during lectures for solving assignment problems. c) Students will be expected to use online material available in internet to enhance their classroom learning. d) Discussion over email groups outside of class room to promote collective understanding of challenging issues. Teaching and Learning Strategy Class Hours Out-of-Class Hours Lectures 30 hours Programming Exercises 20 hours (estimated) Assignments 20 hours ASSSESSMENT. Assessment Strategy Formative Assessment: a) Assignments b) Programming Project c) Midterm Exam Summary Assessment a) Final Exam 16. Mapping of Learning Outcomes to Assessment Strategy Assessment Scheme Type of Assessment Description Percentage Assignments 10% Programming Assignments Two project-like assignments to be done in group of 2 10%+ 10% Midterm Exam 25% Final Exam 45% Total 100% Bibliography Books: 1. Computational Geometry by M. de Berg, M. van Kreveld, M. Overmars, and O. Schwarzkopf, pub: Springer. 2. Computational Geometry in C, J. O' Rourke, Cambridge University Press. 3. Algorithms in Combinatorial Geometry, H. Edelsbrunner, pub: Springer-Verlag (EATCS Monograph) 4. Computational Geometry - an introduction, Preparata and Shamos, pub: Springer-Verlag. 5. Computational Geometry: an Introduction through randomization, K. Mulmuley, Pub: Prentice Hall. 6. LEDA - a platform for combinatorial and geometric computing, Mehlhorn and Naher, pub: Cambridge. Online Resources: NPTEL Videos of a longer version of this course

Introduction to the underlying principles and applications of the emerging field of nanotechnology and nanoscience. Intended for a multidisciplinary audience with a variety of backgrounds. Introduces tools and principles relevant at the nanoscale dimension. Discusses current and future nanotechnology applications in engineering, materials, physics, chemistry, biology, electronics and energy.

Basics of computer programming, Introduction to C programming, data types, operators, control statements, functions, arrays, pointers, strings, formatted I/O, structures, unions, bit manipulation, file processing, brief introduction to data structures. Module 1: Introduction  Explain computers, hardware and software.  Understand the basic terminologies used in programming. Explain personal, distributed, client server computing. Explain machine languages, assembly languages and high level languages.  Module 2: Basics of C programming    Introduction to C programming, different data types, various operators (arithmetic, logical, bitwise, assignment) Control Structures: If, if…else, while, do…while, for, switch, break, continue   Module 3:  Arrays, Functions and Pointers  Functions: Defining and accessing, Calling Functions by value and by reference, Recursion.  Arrays: Defining arrays, passing arrays to functions, multidimensional arrays, sorting and searching arrays. Pointers: Declarations, operations on pointers, passing pointers to function, pointer arithmetic, pointers and arrays.   Module 4: Characters and Strings, Structures, Formatted I/O  Fundamentals of characters and strings, Character handling and string handling Structures: Defining, accessing structure members, using structures with functions  Module  5: File Processing, Data Structures  Reading/Writing  data  from/to  sequential  access  and  random access file. Introduction to stacks, queues, linked list and trees.

Course description not available.

Course description not available.

Course description not available.

Kinematics of Machines

M. Tech Thesis-2

M.Tech Thesis

M.tech Thesis -1

M.Tech. (Communications) Project 1

Machine Intelligence

Course description not available.

The student will be monitored and evaluated by the internal supervisor. a) Internal supervisor may set his parameter for performance monitoring. b) Students doing project with other department or school of SNU have to report their internal supervisor for monitoring the performance. Internal supervisor and supervisor from other department / school may evaluate jointly or mutual understanding basis. c) Students doing project outside the SNU have to send weekly report to their internal supervisor for monitoring the performance. Mid semester and end semester evaluation: Mid semester and end semester evaluation will be done by the student project evaluation committee. Student should be present in front of student project evaluation committee on the given schedule.

Major Project 1

Unit-I Carpentry Shop – Basic concepts, Types of woods and their properties, Seasoning of wood, Carpentry tools, Carpentry Processes, Carpentry joints Fitting Bench Working Shop – Introduction, Vices, Fitting tools, Fitting Processes Unit-II Welding Shop - Introduction to welding, Weldability, Types of welding, Metallurgy of Weld, Arc Welding, Resistance Welding, Spot Welding Machine Shop - Introduction to machine tools and machining processes; Types of cutting tools, Selection of cutting speeds and feed, Simple machining operations on Lathe Unit-III Metal Forming: Basic metal forming operations & uses of such as: Forging, Rolling, Wire & Tubedrawing/making and Extrusion, and its products/applications. Press-work, & die & punch assembly, cutting and forming, its applications. Hot-working versus cold-working. Misc. Processes: Powder-metallurgy process & its applications, Plastic-products manufacturing, Galvanizing and Electroplating. Unit-IV Sheet Metal Shop -Introduction to sheet metal shop, Metals used in sheet metal works, Hand tools and accessories e.g. different types of hammers, hard and soft mallet, Sheet Metal operation, Sheet Metal Joints Hems and Seams, Sheet metal allowance, Sheet Metal working machines Foundry Shop – Introduction, Pattern Materials, Method of constructing a pattern, Moulding Processes.

Unit I: Metal Casting Introduction to metal casting, Solidification of Metals, Characteristics of sand casting, Patterns, Pattern allowances, Pattern materials, Types of patterns, Moulding materials, Moulding sand properties, Types of sand moulds, Cores, Gating system, Casting Defects, Special casting processes, Cast structures Unit II: Metal Removal Processes Mechanism of metal cutting, Types of tools, Tool Geometry, Tool Signature, Orthogonal and Oblique cutting, Mechanics of chip formation, Chip morphology, Tool wear and failure, Machinability, Cutting-tool materials, Cutting fluids, Brief description of metal removal processes: Turning, drilling, boring and Milling, Material removal rate and machining time Unit III: Metal Joining Processes Classification of joining processes, Welding technique, Different welding processes: Gas Welding, Electric Arc Welding, Tungsten Inert-gas Welding (TIG), Gas Metal-Arc Welding (GMAW), Submerged Arc Welding (SAW), Resistance Welding, Friction Stir Welding (FSW), Defects in Weldments Unit IV: Bulk Deformation Processes Introduction to bulk deformation processes, Hot and cold working, Forging, Types of forging, Forging defects, Rolling, Defects in rolled products, Extrusion, Metal flow in extrusion, Rod drawing, Wire and Tube drawing, Swaging, Severe plastic deformation processes: Friction stir processing, Equal channel angular extrusion and high pressure torsion Unit V: Powder Metallurgy Production of metal powders, Particle size and shape, Blending of metal powders, Compaction of metal powders, Shaping processes, Sintering, Finishing operations, Design considerations for powder metallurgy Unit VI: Non-Conventional Machining Processes Need of non-conventional machining, Classification of non-conventional machining processes, Different non-conventional machining processes: Water jet machining, Abrasive jet machining, Chemical machining, Electrochemical machining, Electrical discharge machining, Laser-beam machining

Mass Transfer - II

The general objectives of Mass Transfer Operations-I are to discuss the fundamental concepts of mass transfer principles and to apply those concepts to real engineering problems. This course will provide an overview of mass transfer operations at basic to an intermediate level. Coverage will be relatively broad. This course applies the concepts of diffusion mass transfer, mass transfer coefficients, convective mass transfer, and interphase mass transfer, equipment for gas-liquid operations and absorption with and without chemical reactions.

Course description not available.

Material And Energy Balance

This course aims to serve as an introduction to the principles and techniques used to the chemical engineering. This course will cover all material and energy balance related topics that will build the foundation of specific skills and information that are required for successful undergraduate study of chemical engineering. Student will be given assignment time to time and They may be also asked to solve some problem on the board to see whether they did the assignment problem themselves or copied from someone else. Student’s assessment will be based on his/her performance in the quizzes, exams and home assignments. Students will also be judged based on their involvement in the discussion during the class.

Chapter-1: Introduction Material science and engineering, Classification of engineering materials, Structureproperty relationship, Bonding forces and energies, Equilibrium and kinetics, Stability and Meta-stability, Basic thermodynamic functions, Entropy, Kinetics of thermally activated processes Chapter-2: Crystal Geometry and Structure Determination Geometry of crystal, Space lattice, Crystal structure, Crystal directions and planes, Structure determination by X-ray diffraction, atomic structure and chemical bonding Chapter-3: Crystal Imperfections Defects in materials, Point defects, Dislocations, Properties of dislocations, Dislocation theory Surface imperfections Chapter-4: Phase Diagrams The phase rule, Single-component systems, Binary-phase diagrams, Iron-Carbon Phase diagram, Microstructural changes during cooling, The lever rule. Chapter-5: Phase Transformations Time-scale for phase change, Nucleation and grain growth, Nucleation kinetics, Overall transformation kinetics, Applications, Recovery, recrystallization and grain growth, Diffusion Chapter-6: Plastic Deformation in Crystalline Materials Plastic deformation by slip, Shear strength of perfect and real crystals, Critical resolved shear stress for slip, Stress to move a dislocation, Effect of temperature on dislocation movement, Dislocation multiplication, Work hardening and dynamic recovery Chapter-7: Strengthening Mechanisms in Materials Introduction, strengthening from grain boundaries, Solid solution strengthening, strengthening by fine particles, Strain hardening, Bauschinger effect Chapter-8: Material Properties Concept of stress and strain, True stress and strain, Compressive, shear and torsional deformation, Hardness, Ductile and brittle fracture, Cyclic stresses, S-N Curve

Measurement, Metrology and Control

Mechanical Properties and Related Phenomena

Course description not available.

Mechanical Vibrations

(A high level overview of the aims of the course, student activities, nature of assessment.) This course aims to introduce the concept of dynamics. Single and multi degree freedom of problems are introduced. Problems pertaining to resonance, vibration isolation, and vibration absorption are discussed. Fundamentals of modal analysis is introduced as well. Using this knowledge, students are expected to apply the same to present day problems such as vibration based energy harvesting. Students are evaluated based on projects, quizzes, assignments and end semester exams.

Objective: This course primarily introduces complex mechanical behavior of Geomaterials, constitutive modeling of Geomaterials and numerical implementation of constitutive models in boundary value problems of geotechnical engineering. Learning Outcomes: Upon successful completion of the course, student should be able to • understand the underlying principle of continuum mechanics and its applications for Geomaterials •understand the fundamentals of plasticity theories in Geomechanics •write a numerical code to predict stress – strain response of a Geomaterials •incorporate constitutive models of Geomaterials in finite element analysis of Geotechnical problems Course Content: Module 1: Continuum Theory and Essential Mathematics – The continuum concept, Scalars, Vectors, and Cartesian Tensors, Tensor algebra in symbolic notation – summation convention, Indicial notation, Transformation of Cartesian tensors, Principal values and principle directions of symmetric second order tensors, Tensor fields, Tensor Calculus, Integral theorems of Gauss and Stokes Module 2: Stress Principles – Body and surface forces, Cauchy stress principle, The stress tensor, Force and moment equilibrium, Stress tensor symmetry, Stress transformation laws, Principal stresses, Principle stress directions, Plane stress, Stress Invariants, Deviator and Spherical stress states, Octahedral shear stress Module 3: Kinematics of Deformation – Particles, Configurations, Deformation, and Motion, Material and Spatial Coordinates, Lagrangian and Eulerian Descriptions, The Displacement Field, The material derivative, Deformation gradients, Finite strain tensors, Infinitesimal deformation theory, Stretch Tensor, Rotation Tensor, Velocity Gradient, Rate of Deformation, Material derivative of line elements, areas and volumes Module 4: Mechanical Behavior of Geomaterials – Basic mechanical characteristics in monotonic tests under drained conditions, Influence of confining pressure, Influence of Lode’s angle and phenomenon of strain localization, Undrained response of Geomaterials, Pore pressure evolution, liquefaction, Basic mechanical characteristics in cyclic tests, hysteresis and liquefaction Module 5: Constitutive Modeling of Geomaterials – Basic concepts of the theory of plasticity, Elastic – perfectly plastic formulation, Isotropic strain hardening formulations, combined isotropic – kinematic hardening rules, Numerical integration of constitutive relations Recommended Books: [1] Mase and Mase, Continuum Mechanics for Engineers, CRC Press [2] Mitchell and Soga, Fundamentals of Soil Behavior, Wiely [3] Lambe and Whitman, Soil Mechanics, Wiely [4] S, Pietruszczak, Fundamental of Plasticity in Geomechanics, CRC Press Assessment Scheme: [1] Assignment: 20 % [2] Project: 20% [3] Mid Semester Exam: 30 % [4] Final Exam: 30 %

UNIT-I Introduction: Concept of stress and strain, Hooke’s law, stress at a point, stresses and strains in bars subjected to axial loading. Elongation of Circular bar of uniformly varying cross section, Superposition theorem, Elongation of trapezoidal plate of constant thickness, Elastic Constants: Young’s modulus, Poisson ratio, modulus of rigidity, bulk modulus, Relationship between elastic constants, volumetric strain. Compound Stress: Stress on inclined plane, Principal stresses and principal planes, Mohr’s circle of stress. UNIT-II Shear Force & Bending Moment: Beam & its type, type of loading, shear force & bending moment. SFD & BMD diagram for cantilever, simply supported beam for different types of loading, point load, uniformly distributed load, varying distributed load. Bending and Shear Stress in a Beam: Theory of Simple Bending, Bending Equation & its practical applications , section modulus, composite beams, beam of uniform strength, eccentric loading, middle third rule, middle quarter rule, shear stress in beam, rectangular, circular, I section. UNIT-III Deflection of Beams: Differential equation of Flexure, Relationship between shear force, bending moment & deflection, double integration method, Macaulay’s method. Torsion of Shaft: Theory of torsion, polar modulus, power transmitted by shaft, torsional rigidity, shaft in series, shaft in parallel, tapered shaft UNIT-IV Cylinders: Thin cylinders, stresses & strains in cylinders, Thick cylinders, Lame’s theory, compound cylinder, stresses & strain. Column: Classifications of column, nature of failure, Euler’s column theory, Column with both ends hinged, one end fixed and other free, both end fixed, one fixed and other hinged, effective lengths of columns.

Mechatronics

Memory Design and Testing

Microfluidics

Course description not available.

Microsystems and Microfabrications

Minor Project

• Evolution of mobile communication systems. 1G, 2G, 2.5G & 3G systems. IMT2000, FDD, TDD, FDMA, TDMA, CDMA, SDMA. • Introduction, Frequency reuse, Channel assignment strategies, Handoff strategies, Interference and system capacity, Improving coverage & capacity in cellular system • GSM: GSM standards and architecture, GSM Radio aspects, typical call flow sequences in GSM, security aspects. GPRS, UMTS. • CDMA standards: Spread spectrum, direct sequence and frequency hop spread spectrum, IS-95 CDMA architecture, forward link and reverse link. • Infrastructure based and adhoc networks, IEEE 802.11, IEEE 802.11a, IEEE 802.11b. Bluetooth.

Modeling and Simulation

Modern Control

Nanomaterials: Synthesis, Properties and Applications

Natural Hazards and Disasters   For more details click here 

Course description not available.

Non-Conventional Energy Resources

Numerical Methods

Numerical Methods In Chemical Engineering

Operations Planning and Control

Operations Research

Course Summary Basics of optical fiber communication system including signal propagation through optical fibers, fiber impairments, components, devices and optical fiber communication system design. Course Aims The proposed course aims to expose the students to the basics of optical fiber communication system including signal propagation through optical fibers, fiber impairments, components, devices and optical fiber communication system design. Learning Outcomes On successful completion of the course, students will be able to: 1. Be familiar with Optical Fiber Communication System and its parameters including single and multimode fibers, fiber couplers, connectors etc.. 2. Demonstrate basic fiber handling skills, including cleaving and splicing. 3. Understand and measure properties of optical sources, detectors and receivers. 4. Design, construct and test a basic optical fiber communication link/system. 5. Write a good technical report and clear and informative presentation. 13. Curriculum Content Syllabus Module 1: Overview of optical communication, other forms of communication systems, Introduction to vector nature of light, Propagation of light, Ray model and wave model. Optical fiber: Types, Structure and wave guiding fundamentals, Optical fiber modes and analysis, Step and Graded Index Fibers. Module 2: Signal degradation in Optical fiber due to dispersion and attenuation Module 3: Optical Sources: Basic light emission mechanism in semiconductors, LED and Lasers, Optical Detectors: Basic light absorption concepts in semiconductors, photodiodes, p-i-n detectors, detector responsivity, noise, Optical Receivers. Module 4: (a) Optical Power Launching and Coupling: Lensing Scheme for coupling improvement, Fiber-to-Fiber Joints, Splicing Techniques, Optical fiber connectors. Optical modulation & Receiver Operation: Analog & Digital modulation, Fundamental receiver operation and performance calculation, Preamplifier design, Analog receivers, heterodyne receiver. Transmission link analysis, Point to point links, Introduction to coherent optical communication & applications of optical fibers. (b) Optical fiber system fundamentals: BER measurements, quantum limit, loss and dispersion limits. Optical Switches – coupled mode analysis of directional couplers and electro-optic switches. Module 5: Basics of Optical amplifiers, nonlinear effects in optical fiber links, Optical amplifiers and soliton based Communication. Teaching and Learning Strategy a) Lectures will incorporate brief hand-outs, quizzes along with white board / black board and multimedia teaching methods. Additionally, students will be motivated for working in groups on problems related to the course. b) Laboratories will be used for demonstration of different optical fiber communication components and their working and troubleshooting. c) Blackboard will be used to share e-books and other class material, and to enable online discussions. Teaching and Learning Strategy Class Hours Out-of-Class Hours Lectures 42- hours 80- hours Laboratories 20- hours 20- hours PART C: ASSSESSMENT. Assessment Strategy Formative Assessment: a) Assignments 10% b) Quizzes 05% c) Mini project / Lab 25% d) Midterm Exam 25% Summary Assessment a) Final Exam and/or project 35% 16. Mapping of Learning Outcomes to Assessment Strategy Assessment Scheme Type of Assessment Description Percentage Lab / Projects 25% Assignments Quizzes 10% 05% Midterm Exam 25% F Final Exam 35% Total 100% Bibliography Books / References- • G. Keiser, Optical Fiber Communications, TMH. • A. Ghatak & K. Thygarajan, Introduction to Fiber Optics, Cambridge. • J. Gowar, Optical Communication Systems, PHI. • J.M. Senior, Optical Fibre Communications: Principles & Practice, PHI

Optical Networks

Pavement Types, Wheel Loads, Design Factors, Vehicle and Traffic Considerations, Climate, and Environment. 2. Properties of pavement component materials and material characterization,  Stresses in Flexible Pavements. Stresses in Rigid Pavements,  Philosophy of design of flexible and rigid pavements,  Design of flexible and rigid pavements using different methods, Design of overlays and drainage system, Pavement failure and maintenance

Aerial photographs and photography is essential component. This course introduces students to its basics such as its history, importance, using aerial photographs for measurements of various structures on earth’s surface. Global Positioning System (GPS), methods of capturing data using GPS, determining and increasing accuracy of GPS data.

Physico-chemical Processes in Environmental Engineering

Course description not available.

Objective: The main objective of the course is to study the performance of a power system network under steady state and Transient conditions. This course introduces formation of Z bus and Y bus of a transmission line, power flow studies by various methods. It also deals with short circuit analysis and analysis of power system for steady state and transient stability. UNIT –I Load flow Studies (Steady state Analysis) Formation of Ybus for load flow studies, Necessity of Power Flow Studies – Data for Power Flow Studies – Derivation of Static load flow equations – Load flow solutions using Gauss Seidel Method: Acceleration Factor, Load flow solution with and without PV buses, Algorithm and Flowchart. Numerical Load flow Solution for Simple Power Systems (Max.3Buses): Determination of Bus Voltages, Injected Active and Reactive Powers (Sample One Iteration only) and finding Line Flows/Losses for the given Bus Voltages. Newton Raphson Method in Rectangular and Polar Co-Ordinates Form: Load Flow Solution with or without PV Busses Derivation of Jacobian Elements, Algorithm and Flowchart. Decoupled and Fast Decoupled Methods. Comparison of Different Methods – DC load flow. UNIT – II Short Circuit Analysis (Transient analysis) Formation of ZBus: Partial network, Algorithm for the Modification of ZBus Matrix for addition element for the following cases: Addition of element from a new bus to reference, Addition of element from a new bus to an old bus, Addition of element between an old bus to reference and Addition of element between two old busses (Derivations and Numerical Problems).Modification of Z Bus for the changes in network (Problems) Per Unit System of Representation. Per Unit equivalent reactance network of a three phase Power System, Numerical Problems. Symmetrical fault Analysis: Short Circuit Current and MVA Calculations, Fault levels, Application of Series Reactors, Numerical Problems. UNIT –III Short Circuit Analysis2 (Transient analysis) Symmetrical Component Theory: Symmetrical Component Transformation, Positive, Negative and Zero sequence components: Voltages, Currents and Impedances. Sequence Networks: Positive, Negative and Zero sequence Networks, Numerical Problems. Unsymmetrical Fault Analysis: LG, LL, LLG faults with and without fault impedance, numerical problems UNIT –IV Power System Steady State Stability Analysis Elementary concepts of Steady State, Dynamic and Transient Stabilities. Description of: Steady State Stability Power Limit, Transfer Reactance, Synchronizing Power Coefficient, Power Angle Curve and Determination of Steady State Stability and Methods to improve steady state stability. UNIT –V Power System Transient State Stability Analysis Derivation of Swing Equation. Determination of Transient Stability by Equal Area Criterion, Application of Equal Area Criterion, Critical Clearing Angle Calculation. Solution of Swing Equation: Point by Point Method. Methods to improve Stability Application of Auto Reclosing and Fast Operating Circuit Breakers

I. COURSE TITLE: Power System Operation and Control II. COURSE CODE: III. COURSE CREDITS (L:T:P): 3:0:0 IV. TOTAL CONTACT HOURS/ WEEK (L:T:P): 3:0:0 V. NO. OF BATCHES: One VI. COURSE TYPE (MAJOR/UWE/CCC): Major Elective VII. PREREQUISITE/S (IF ANY): EED307, EED352 VIII. COURSE COORDINATOR(S)/INSTRUCTOR(S): Dr. Himanshu Sekhar Sahu IX. SCHOOL/ DEPARTMENT: Electrical Engineering X. DISCIPLINES TO WHICH THE COURSE MAY BE OF INTEREST: Electrical Engineering XI. COURSE CONTENT: 1. Economic Operation of Power System: Fundamental of power flow solutions, Power factor correction, Distribution of load between units within a plant, Distribution of load between plants, The transmission-loss equation, An interpretation of transformation C, Classical economic dispatch with losses, Automatic generation control, Unit commitment, Solving the unit commitment problems. 2. Load Frequency Control and Control Area Concept: Automatic load-frequency control of single area systems: Speed-governing system, Hydraulic valve actuator, Turbine-generator response, Static performance of speed governor, Closing the ALFC loop, Concept of control area, ALFC of multi-control area systems (Pool operation): The two area systems, Modelling the Tie-Line, Block diagram representation of two area system, Dynamic response of two area system, Supervisory control and data acquisition (SCADA). 3. Power System Stability Problems: Basic concepts and definitions, Rotor angle stability, Synchronous machine characteristics, Power versus angle relationship, Stability phenomena, Voltage stability and voltage collapse, Mid-term and long-term stability, Classification of stability. 4. Small Signal Stability: State space concepts, Basic linearization technique, Participation factors, Eigen properties of state matrix, Small signal stability of a single machine infinite bus system, Studies of parametric effect: Effect of loading, Effect of KA, Effect of type of load, Stability improvement by power system stabilizers. Design of power system stabilizers. 5. Transient Stability: Time domain simulations and direct stability analysis techniques (extended equal area criterion) Energy function methods: Physical and mathematical aspects of the problem, Lyapunov’s method, Modelling issues, Energy function formulation, Potential Energy Boundary Surface (PEBS): Energy function of a single machine infinite bus system, equal area criterion and the energy function, Multi-machine PEBS. 6. Sub Synchronous Oscillations: Turbine generator torsional characteristics, Shaft system model, Torsional natural frequencies and mode shapes, Torsional interaction with power system controls: interaction with generator excitation controls, interaction with speed governors, interaction with nearby DC converters, Sub Synchronous Resonance (SSR): Characteristics of series capacitor -compensated transmission systems, Self – excitation due to induction generator effect, Torsional interaction resulting in SSR, Analytical methods, Counter measures to SSR problems. XII. RECOMMENDED BOOK(S): 1. Power System Analysis- By John. J. Grainger & W. D. Stevenson, Jr., TMH, 2003 Edition, Fifteenth Reprint. 2. An Introduction to Electric Energy System Theory- By O. I. Elgerd, TMH, Second Edition. 3. Power System Stability and Control- By Prabha Kundur, Mc Graw Hill Education, 2016 Edition, Twentieth Reprient. 4. P. Sauer and M. Pai, “Power system dynamics and stability”, Prentice Hall, 1998 5. Power Generation Operation and Control-By A. J. Wood and B. F. Wollenberg, John Wiley and Sons, 1996. 6. 6. Power System Analysis Operation and Control- By A. Chakrabarti and S. Haldar, Third Edition, PHI Publications, 6th Reprint, 2010. XIII. ASSESSMENT SCHEME: Quiz 1: 5 marks Quiz 2: 5 marks Mid Sem: 40 marks End term Exam: 50 marks Total: 100

Principles of Programming Languages

Course description not available.

 Concept of commissioning, Hierarchy of decisions, HAD separation system, Engineering economics: operating cost, total capital investment(TCI), fixed capital investment (FCI), working capital investment(WCI), TPC, Depreciation, Cash flow, Time value for money, Annuities, Measurement of profitability.  Input information at design stage, application of hierarchy of decisions, Column sequencing, Heat exchanger network synthesis(HENS), Pinch Design Method, Tranship method, Application of mixed integer programming to solve design problem.

Introduction to various codes (ASTM, API.) used in chemical process industries and their application. Basic Engineering design approach and select ion of pressure vessel components such as Head, closure, flanges, gasket, nozzles etc, Design of process vessel support Mechanical design of process equipment such as pressure vessel, shell & tube Heat Exchanger, plate and packed tower, reactors. Material specification.

Process Optimization

Production Planning and Control

Project

Course description not available.

Project-1

Project-I

Circuit breakers: Air circuit breakers, oil circuit breakers, vacuum circuit breakers, SF6 gas circuit breakers, transient rate of rise of recovery voltage, arc interruption theories, capacitor switching, inrush current of a transformer, Relays: Overcurrent protection, differential protection, protection of transformers, protection of generators, carrier aided protection of transmission lines, distance protection schemes; impedance relay, mho relay. Microprocessor based relays.

Course description not available.

Course Summary This course covers in depth knowledge of detection of radar signals, tracking methods and functioning of different types of radar systems. Course Aims Providing knowledge of different types of radar. Knowledge of radar signal detection techniques Knowledge of radar uses for different applications Learning Outcomes On successful completion of the course, students will be able to: a) Understand of concept of Basic Radar b) Learn the radar Tracking methods c) Radar signal detection in presence of noise and clutters Curriculum Content Radar and Radar Equation: Introduction, Radar block diagram and operation, frequencies, applications, types of displays, derivation of radar equation, minimum detectable signal, probability of false alarm and threshold detection, radar cross-section, system losses, propagation characteristics over land and sea. CW Radar – Doppler Effect, CW Radar, applications, FM – CW radar, altimeter, Multiple Frequency Radar. Pulse Radar – MTI, Delay Line Canceller, Multiple Frequencies, Range-gated Doppler Filters, Non-coherent MTI, Pulse Doppler Radar, Tracking Radar- Sequential lobing, conical scanning, monopulse, phase comparison monopulse, tracking in range, comparison of trackers. Detection & Estimation – Introduction, Matched Filter, Detection Criteria, Detector characteristics. Electronic countermeasure. Phased Arrays – Basic concepts, feeds, phase shifters, frequency scan arrays, multiple beams, applications, advantages and limitations. Navigational Aids: Direction Finder, VOR, ILS and Loran Teaching and Learning Strategy a) Lectures will incorporate break-outs for working in groups on problems b) Blackboard will be used to share class material, and to enable online discussions. Teaching and Learning Strategy Description of Work Class Hours Out-of-Class Hours Lecturers Class room teaching 40 hours 80 hours ASSSESSMENT. Assessment Strategy Formative Assessment: a) Assignments b) Quizzes c) Midterm Exam Summary Assessment a) Final Exam Mapping of Learning Outcomes to Assessment Strategy Assessment Scheme Type of Assessment Details Percentage Quizzes Based on the previous and current lecture 20 Assignments Covers topic discussed in last 5 lectures 10 Mid term Standard and design based problem 30 End Term Standard and design based problem 40 Total 100% Bibliography 1. M.I. Skolnik, Introduction Radar Systems, 2nd Edn,Mc Graw Hill Book Co.,1981 2. F.E. Terman, Radio Engineering, Mc Graw Hill Book Co. (For Chapter 7 Only), 4th Edn. 1955 3. Simon Kingsley And Shaun Quegan, Understanding Radar Systems, Mcgraw Hill Book Co., 1993. 4. Nathanson, F E, “ Radar Design Principles” Scitech Publishing. 5. Hovanessian, S.A., "Radar System Design And Analysis", Artech House 6. D.K.Barton, Modern Radar Systems Analysis, Artech House, 1988. 7. B,Edde, Radar: Principles, Technology, Applications, Prentice Hall, 1993

Course description not available.

Introduction to Remote Sensing • Definition of Remote Sensing, History and scope of remote sensing, Electromagnetic Radiation (EMR) and atmospheric windows, Types of remote sensing. • Thermal Emission of Radiation, Black body radiation, Radiation Principles: Plank’s Law, Stephen Boltezman law, Wien’s displacement law, Kirchoffs Law, Spectral signatures, Reflectance characteristics of Earths cover types. Satellite platforms, sensors and resolutions • Platforms: Airborne and Space borne, Sensors: Passive and Active, resolutions across track and along the track scanning, Optical sensors, Thermal scanners, and Microwave radar. Aerial Photography • Satellite missions and image characteristics: Landsat series SPOT series, IRS satellite series, NOAA and MODIS series, etc. • Image resolution: Spatial (IFOV), Spectral, Radiometric and Temporal, Image Preprocessing: radiometric, atmospheric and geometric corrections. Application Studies • Applications of Remote sensing in Environmental monitoring and assessment • Applications of Remote sensing in Disaster Management • Land use/ Land Cover Analysis Concepts on GIS • Definition, Basics of GIS and History, Geographic objects: point, line, area and their computer representation, Applications of GIS in various sectors. • GIS Database (types, structures) and data Model, Geographic information and spatial data types (Map, Attributes, Image data). Data formats and Models • Raster data formats, vector data formats, advantages and disadvantages of raster and vector data formats. Data acquisition and analysis • Data acquisition (Inputs from RS imagery, GPS), Data entry & preparations (input, editing and attributing). Map scanning and digitizing, data conversion, linking of spatial and non-spatial data. • Data manipulation and Spatial Data Analysis (Vector/Raster Geoprocessing)- Buffering, Viewshed Analysis, Raster/Vector Overlay Analysis, Map Algebra Introduction to GIS software and Case studies • Issues in spatial data quality, introduction to metadata and its importance. • GIS Software, Introduction to Open Source GIS

Introduction to Research Methodology, Scientific Ethics (or norms and conventions), Sources of Information for Research Articles, Literature Review and Formulation of a Research Problem, Conducting Research in the Laboratory, Writing a Manuscript: For Details click here 

Research Methodology

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RESEARCH SEMINAR

RF and Microwave Engineering

Course description not available.

SelfStudy

Semiconductor Devices

For Details Click here 

Seminar I

1. Classification and representation of signals and systems, Continuous time & Discrete time signals and systems, Impulse and Step response of a system, linear systems, linearity, time invariance, causality, signal properties -LTI systems, Convolution 2. Fourier series, Fourier transform and properties, relation between Fourier transform and Fourier series, Sampling and reconstruction, FFT, DIT FFT, DIF FFT Algorithm, Inverse DFT and Convolution using FFT 3. Laplace transforms- representation of signals using continuous time complex exponentials, relation of Laplace and Fourier transform, concept of ROC and transfer function- block diagram representation, Inverse Laplace transform, properties, analysis and characterization of LTI systems using Laplace transforms 4. Z transforms- representation of signals using discrete time complex exponentials-properties, inverse Z transforms, ROC, Analysis and characterization of LTI systems using Z transforms, block diagram, transfer functions 5. Introduction to random variable and random process, State space analysis, Introduction to Two port networks and parameters

Prerequisite: CSD301 Key concepts in software project management, planning and its execution. Working knowledge of software project life cycle, create project plan, write business user requirements, estimate the project size, plan Agile sprints, set-up development environment by applying continuous integration and deployment tools, test software project quality, and apply skills to manage stakeholders.

This course is intended to provide an understanding of the nature of soil, fundamentals of mechanical behavior of soil, a concise and clear knowledge of the basic principles of soil mechanics, and awareness of the applications to geotechnical engineering problems. It provides the basic principles of the subject and illustrates how, why and with what limitations these principles can be applied in practice. COURSE CONTENT: Soil formation and nature, Soil description and classification, Permeability and seepage, Compaction, Effective stress and pore pressure, Compressibility and consolidation, Shear Strength, Contact Pressure and stress distribution, Slope Stability. For more details click here 

Solar Energy Systems

Solid Waste Management

Course description not available.

Fundamental Principles & Concepts: Newton’s laws, gravitation, force (external and internal, transmissibility), couple, moment (about point and about axis), Couple and Couple moment, resultant of concurrent and non-concurrent coplanar forces, static equilibrium, free body diagram, reactions. Problem formulation concept; 2-D statics, two and three force members Analysis of Structures – I: Assumptions, rigid and non-rigid trusses; Simple truss (plane and space), analysis by method of joints. Analysis of simple truss by method of sections; Compound truss (statically determinate, rigid, and completely constrained). Beams: types of loading and supports; shear force, bending moment. Virtual Work and Energy Method – I: Virtual displacements, principle of virtual work for particle and ideal system of rigid bodies, degrees of freedom and the solution of problems. Center of Mass & Area Moments of Inertia: First moment of area and centroid, mass and center of mass, centroids of lines, areas, volumes, composite bodies. Area moments- and products- of inertia, radius of gyration, transfer of axes, composite areas. Rotation of axes. Mass Moment of Inertia: Second moment of mass, Mass moments- and products- of inertia, radius of gyration, transfer of axes, flat plates (relation between area- and mass- moments- and products- of inertia), composite bodies. Rotation of axes. 2 Friction: Coulomb dry friction laws, simple surface contact problems, friction angles, types of problems, wedges. Belt friction. Square-threaded screw (self-locking, screw jack). Kinematics of Particle: Rectilinear motion; Plane curvilinear motion (rectangular, path, and polar coordinates). 3-D curvilinear motion; Relative and constrained motion. Kinetics of Particle: Newton’s 2nd law (rectangular path, and polar coordinates). Work-kinetic energy, power, potential energy. Impulse-momentum (linear, angular).

Concepts in Quality management, definition of Quality, TQM, Cost of quality, Quality engineering, ISO 9000, 7 Quality Tools and Six Sigma,  Review of Probability and Statistics, Test of Hypothesis.  Acceptance Sampling  SPC (Statistical Process Control:- Control charts), Process Capability,  Quality Function Deployment.  Design of Experiments, ANOVA, Fractional, Full and Orthogonal Experiment, Regression model building,  Taguchi methods for robust design  Six Sigma sustainability; Case studies

Stresses and Strains, Principal stress & principal strain, Transformation of plane strain, Mohr’s circle for plane strain, Constitutive Relationships, Beam statics, Beam bending & Shear, Torsion, Buckling For detailed syllabus click here 

Course Objective: 1.    Understand analysis of statically indeterminate structures and its application to one dimensional members 2.     Understand different methods and their advantages to analyze the indeterminate structures 3.    Understand matrix method of analysis and be able to develop computer programs to analyze two dimensional plane structures 4.    Understand plastic analysis of structures and be able to analyze collapse load for beams and frames Syllabus 1.    Unit-I: Introduction to Statically Indeterminate Structures Review of analysis for statically determinate structures, Degree of indeterminancy and stability of structures, Overview of analysis of indeterminate structures by force methods and displacement methods, Importance of matrix analysis 2.    Unit-II: Analysis of Statically Indeterminate Beams Theorem of three moments, energy methods, flexibility coefficients, Two hinged arches: Reaction, horizontal thrust, effect of yielding of supports, temperature change, Column analogy method: method development, analysis of beams by column analogy method 3.    Unit-III: Analysis of Statically Indeterminate Structures Moment distribution method: Introduction, method development, solution of continuous beam, effect of settlement and rotation of support, frames with or without lateral sway Kani’s method: Introduction, basic concepts, application to beams and frames with and without side sway Slope deflection method: Introduction, development of slope deflection equations, application to continuous beams and frames with and without lateral sway 4.    Unit-IV: Matrix Stiffness method Introduction, stiffness and flexibility coefficient, member stiffness matrix, transformation, compatibility and equilibrium, assemblage of structural stiffness matrix, Imposing support conditions, banded property of structural stiffness matrix, computer implementation 5.    Unit-V: Plastic Analysis Introduction, stress-strain curve, beams in pure bending, plastic moment of resistance, shape factor, load factor, plastic hinge and mechanism, plastic analysis of simple structures, upper and lower bound theorems

Vibration of elementary system, Degrees of freedom, Analysis of system with one degree of freedom, spring-mass system, harmonic vibration, uniform circular motion, natural frequency, free and forced vibrations with and without damping, types of damping   for details click here

Structural Health Monitoring

Supply Chain Management (SCM) covers the planning and control of both the physical movement of materials and the resources used in the supply process from raw materials to consumable products. The SCM process represents a single “value chain” targeted to achieve defined corporate goals by adding value to a product in terms of time and place within the overall corporate offer. The significant elements of the supply chain include: Supplier management (internal or external); Inbound logistics; Process logistics; Outbound logistics to customers (and returns), and Customer management SCM is about identifying the relationships both within each element of the supply chain and between the elements comprising of the supply chain for a product. It is particularly about identifying those uncertainties which affect both performance and behaviour within the supply chain as a whole.

It has been said that “infrastructure is the backbone of nations,” and that “it is a society’s inventory of systems and facilities that allow it to function properly and smoothly.” We will walk through infrastructure topic areas – energy, water, transportation, communication, natural resources and ecology – and frame the discussion around the key issues to consider and evaluate in planning for a sustainable and resilient infrastructure. This course is an exploration into methods, materials, processes, technologies, practices, and operations which play a part in making infrastructure sustainable. The intersection between policies necessary for sustainable infrastructure and political, economical, social, societal, and cultural factors will also be examined. Class discussions will center on three of the largest challenges of our times: 1) rapid urbanization; 2) existing scarcity of basics like clean water, clean air, food and land, all of which gets exacerbated by rapid urbanization; and 3) the inability and/or unwillingness of governments to anticipate problems and plan in advance of these phenomena.

Synthesis of Mechanical Devices

Course description not available.

Course description not available.

Thesis work stage 2

Topics in Mathematics

Travel behavior in Indian cities; introduction to transport-related data sources in India; introduction to land use and transport interaction; definitions of terms and basic principles; introduction to the four-stage modelling process. The first stage (generation): category analysis, regression analysis and modelling trip ends. The second stage (trip distribution): estimating the trip matrix. The third stage (modal split): predicting mode use. The fourth stage (assignment): network assignment.

Course description not available.

Kinematics, transport theorem, convective momentum, and energy, mass transport, momentum transport and energy transport, Continuity equation for multi-component system, constitutive relations, boundary layer theory, turbulence, Energy transport by radiation.

Overview of travel behavior in Indian cities; introduction to transport-related data sources in India; introduction to land use and transport interaction; definitions of terms and basic principles; introduction to the four-stage modelling process. The first stage (generation), category analysis, regression analysis and modelling trip ends. The second stage (trip distribution): estimating the trip matrix. The third stage (modal split): predicting mode use, The fourth stage (assignment): network assignment. For more details click here 

Transportation Law Studies

Unconventional Manufacturing Processes

VLSI Design and Modelling

One of the main objectives of this course is to prepare students for Final year projects in VLSI and Microelectronics area and for those who are planning for research/VLSI industry oriented career (MS/PhD and core semiconductor industries etc,). The broad topics that will be covered in this course: Introduction to VLSI, MOSFET basics, short channel MOS issues, CMOS basic flow, Layout and design rules, basic electrical parameters, Scaling rules, Design of digital and combinational blocks, emerging device technologies trends as per ITRS.

Course description not available.

Wireless and Mobile Communication

Wireless Multimedia Communications

Wireless Sensor Networks