Choice Based Credit System
The focus of this course is to introduce you to the fundamental concepts and tools used in both analogue and digital signal processing (ASP and DSP) which are areas of interest if you are studying any program relating to electronic, communication and/or computer engineering.
As an outcome of completing this course, students should be able to
Understand the terminology of signals and basic engineering systems.
Understand the role of signals and systems in engineering design and society.
Understand signal representation techniques and signal characteristics.
Understand the difference and the applications of analog versus discrete signals and the conversion between them.
Understand the process of sampling &Fouriertransforms.
Allan V.Oppenheim, S.Wilsky and S.H.Nawab, Signals and Systems, PearsonEducation.
A. Anandkumar signal and system 3rdEdition, PHI.
http://www.nptelvideos.in/2012/11/estimation-of-signals-and-systems.html
Edward W. Kamen & Bonnie’s Heck, “Fundamentals of Signals and Systems”, Pearson Education.
H. P. Hsu, RakeshRanjan “Signals and Systems”, Schaum’s Outlines, Tata McGrawHill.
Simon Haykins and Barry Van Veen: Signals and Systems, John Wiley & sons.
Rawat: Signal and Systems, Oxford Publication.
Nagoorkani: signal and system (TMH).
Iyer: signal and system, Cengage learning.
Gabel, Roberts, “Signals and Linear Systems” Wiley India Pvt. Ltd, 2012.
Rao: Signal and system (TMH).
List of Experiments:
Introduction to MATLAB
To implement delta function, unit step function, Ramp function.
To explore the commutation of even and odd symmetries in a signal with algebraic operations.
To explore the effect of transformation of signal parameters (amplitude-scaling, time- scaling and time-shifting).
To explore the time variance and time invariance property of a given system.
To explore causality and non-causality property of a system.
To demonstrate the convolution and correlation of two continuous-time signals.
To demonstrate the convolution and correlation of two discrete-time signals.
To determine Magnitude and Phase Response of Fourier Transform of given signals.
Choice Based Credit System
OP-AMP AS FILTERS: Characteristics of filters, Classification of filters, Magnitude and frequency response, Butterworth 1st and 2nd order Low pass, High pass and band pass filters, Chebyshev filter characteristics, Band reject filters, Notch filter;all pass filters, self-tuned filters,AGC,AVC using op-AMP.
List of Experiments
Apparatus Required –Function Generator, TL082, MPY634/ASLK Pro, Power Supply, Oscilloscopes, connecting wires, bread board.
To determine voltage gain and frequency response of inverting and non-inverting amplifiers using IC-741.
To measure offset voltages, bias currents, CMRR, Slew Rate of OPAMP using IC-741.
To design an instrumentation amplifier anddetermine its voltage gainusing IC-741.
To design op-amp integrator (low pass filter) and determine its frequency response.
To design op-amp differentiator (high pass filter) and determine its frequency response.
To design Analog filters – I and II and analyse its characteristics.
To design Astable,Monostable andBistablemultivibrator using IC-555and analyse its characteristics.
Automatic Gain Control (AGC) Automatic Volume Control (AVC).
Upon successful completion of this course students will able to understand the working of different integrated circuits, their pin configurations and about their applications. Students will also able to understand the performance of ICs on practical basis.
RamakantA.Gaikward,“OP- Amp and linear Integrated circuits”Third edition- 2006, Pearson.
B. VisvesvaraRao Linear Integrated Circuits Pearson.
David A. Bell: Operational Amplifiers & Linear ICs, Oxford University Press, 2nd edition,2010.
D. Roy Choudhury:Linear Integrated Circuits New Age Publication.
B. Somanathan Nair: Linear Integrated Circuits analysis design and application Wiley India Pvt. Ltd.
Maheshwary and Anand: Analog Electronics, PHI.
S.Salivahanan,V S KanchanaBhaaskaran: Linear Integrated Circuits”,second edition, McGraw Hill.
Gray Hurst Lewis Meyer Analysis and design of analog Integrated Circuits fifth edition Wiley India.
RobertF.Coughlin, Frederick,F.Driscoll: Operational Amplifiers and Linear Integrated Circuits, sixth edition, Pearson.
Millman and Halkias: Integrated electronics, TMH.
Boylestad and Nashelsky: Electronic Devices and Circuit Theory, Pearson Education.
Sedra and Smith: Microelectronics, Oxford Press.
Choice Based Credit System
The course is designed to cover the fundamentals, principles, concepts, and techniques of analog communication systems like various modulation techniques, data transmission, communication technologies, time-domain and frequency domain multiplexing technique and noise analysis.
Students who are successful in this class will demonstrate at least the abilities to:
Solve communication engineering Problems using the knowledge of time domain & frequency domain.
Analyze various analog modulation schemes for communication systems.
Analyze and compare the noise performance of various analog communication systems.
Understand the basic of digital transmission system.
Simon Haykins, Communication System, John Willy
Singh &Sapre, Communication System, TMH
http://www.nptelvideos.in/2012/11/communication-engineering.html
B.P. Lathi, Modern Digital and analog communication system; TMH
Singhal, analog and Digital communication, TMH
Rao, Analog communication, TMH
P K Ghose, principal of communication of analog and digital, universities press.
Taub& shilling, Communication System, TMH
Hsu; Analog and digital communication(Schaum); TMH
Proakis fundamental of communication system. (Pearson edition).
To analyze characteristics of AM modulator & Demodulators.
To analyze characteristics of FM modulators& Demodulators.
To analyze characteristics of super heterodyne receivers.
To analyze characteristics of FM receivers.
To construct and verify pre emphasis and de-emphasis and plot the wave forms.
To analyze characteristics of Automatic volume control and Automatic frequency control.
To construct frequency multiplier circuit and to observe the waveform.
To design and analyze characteristics of FM modulatorand AM Demodulator using PLL.
Choice Based Credit System
To provide sound knowledge in the basic concepts of linear control theory and design of control system.
To understand the methods of representation of systems and getting their transfer function models.
To provide adequate knowledge in the time response of systems and steady state error analysis.
To give basic knowledge is obtaining the open loop and closed–loop frequency responses of systems.
To understand the concept of stability of control system and methods of stability analysis.
To study the various ways of designing compensation for a control system.
Terminology and classification of control system, examples of control system, Laplace Transform and its application, mathematical modeling of mechanical and electrical systems, differential equations, transfer function, block diagram representation and reduction, signal flow graph techniques.
Open loop and closed loop systems, effect of feedback on control system and on external disturbances, linearization effect of feedback, regenerative feedback.
Standard test signals, time response of 1st order system, time response of 2nd order system, steady-state errors and error constants, effects of additions of poles and zeros to open loop and closed loop system.
Concept of stability of linear systems, effects of location of poles on stability, necessary conditions for stability, Routh-Hurwitz stability criteria, relative stability analysis, Root Locus concept, guidelines for sketching Root-Locus.
Correlation between time and frequency response, Polar plots, Bode Plots, all-pass and minimum-phase systems, log-magnitude versus Phase-Plots, closed-loop frequency response.
Nyquist stability criterion, assessment of relative stability using Nyquist plot and Bode plot (phase margin, gain margin and stability).
Design problem, types of compensation techniques, design of phase-lag, phase lead and phase lead-lag compensators in time and frequency domain, proportional, derivative, integral and PID compensation.
State space representation of systems, block diagram for state equation, transfer function decomposition, solution of state equation, transfer matrix, relationship between state equation and transfer function, controllability and observability.
Students who are successful in this class will demonstrate at least the abilities to:
Demonstrate an understanding of the fundamentals of (feedback) control systems.
Determine and use models of physical systems in forms suitable for use in the analysis and design of control systems.
Express and solve system equations in state-variable form (state variable models).
Determine the time and frequency-domain responses of first and second-order systems to step and sinusoidal (and to some extent, ramp) inputs.
Determine the (absolute) stability of a closed-loop control system
Apply root-locus technique to analyze and design control system.
I.J. Nagrath and M. Gopal, ‘Control Systems Engineering’, New Age International Publishers, 2003.
Benjamin C. Kuo, Automatic Control systems, Wiley India Pvt. Ltd, 9th edition.
A. Anand Kumar, “ Control Systems” PHI, New Delhi, 2007
Norman S. Nise, Control System Engineering, Wiley India Pvt. Ltd.
R. Anandnatarajan, P. Ramesh Babu, “Control System Engineering” Scitech Publication (India) Pvt. Ltd. 2014
Distefano (schaum series) Control Systems TMH
M. Gopal, ‘Control Systems, Principles and Design’, Tata McGraw Hill, New Delhi, 2002.
Manik, Control System, Cengage Learnings.
Stefani shahian- Design of feedback control system oxford university press.
Salivahanan Control Systems engg. Pearson Education, New Delhi
K. Ogata, ‘Modern Control Engineering’, Pearson Education, New Delhi
B.S. Manke linear control system, khanna publishers
Choice Based Credit System
The focus of this course is to introduce the fundamental concepts and tools of electronic circuit designing software & let students acquaint with the software being used in the electronic circuit designing industries.
Study of the key features and applications of the software in the field of Electronic Circuits, Electronic Instrumentation and Network Analysis.
Design, Optimization and simulation of;
Basic Electronic circuits (examples rectifiers, clippers, clampers, diode, transistor characteristics etc).
Transient and steady state analysis of RL/ RC/ RLC circuits, realization of network theorems.
Use of virtual instruments built in the software.
Overview and use of the software in optimization, designing and fabrication of PCB pertaining to above circuits simulated using above simulation software.
After completion of this course students should be able to,
Understand the basics of electronic circuit designing software’s.
Design & simulate various electronic circuits.
Analyze the circuit’s behavior & characteristics.
Verify the characteristics obtained after simulation by implementing circuits on bread board practically.
Simulate and design the PCB layout.
Choice Based Credit System
Predict approximate physical and mechanical behavior of a material based on the type of bonding present (covalent, ionic, metallic, and/or van der Waals) and the presence of any of the several types of defects common in condensed matter.
Use knowledge of the crystal structure (BCC, FCC, and HCP) of a metal to make general predictions about the metalís ability to plastically deform.
Calculate the extent of diffusion-driven composition changes based upon composition, time, and temperature.
Predict the equilibrium microstructure of a material comprised of two constituents (e.g., Fe and C or Al and Cu) given the binary phase diagram and thermal history of the material.
Select materials for different applications based on the constraints of the given applications.
Atomic structure, molecules and general bonding principles, crystal system and structure , Miller indices, Bravais lattice, Bragg’s law, crystal structure for metallic elements, structural imperfections, dielectric parameters, polarsation, static dielectric constant of solids, ferroelectric materials, piezoelectricity, compex dielectric constant, dipolar relaxation, Debye equation , dielectric loss, insulating materials and their properties, composite materials
Magnetism: fundamental concepts pertaining to magnetic fields, magnetic dipole movement of current loops, orbital magnetic dipole movement and angular momentum of simple atomic model, classification of magnetic materials, spin magnetic moment, paramagnetism, ferromagnetism, spontaneous magnetization and Curie-Weiss law, ferromagnetic domains, magnetic anisotropy, magnetostriction, antiferromagnetism, ferrites and its applications, magnetic resonance
Conductors: introduction, atomic interpretation of Ohm’s law, relaxation time, collision time, mean free path , electron scattering, resistivity of metals, Linde’s rule, Joule’s law, thermal conductivity of metals, high conductivity materials, high resistivity materials, solder and electrical contact materials, carbon brushes, fuses, superconductivity-The free electron model, thermodynamics and properties of superconductors, meissner effect, classification of superconductors
Semiconductors: chemical bonds in Ge and Si, carrier density, extrinsic semiconductor, n-type , p-type semiconductor, Hall effect, mechanism of current flow, drift current, diffusion current, Einstein relation, materials for fabrication of semiconductor devices, fabrication technology , continuity equation, capacitance of junction barrier, junction transistors, thermistor, variastors Optical properties of materials: introduction, electromagnetic radiation spectrum, refractive index, reflection, Birefringence, Translucency, colourcentres, dispersion, absorption, excitons, photoelectric emission, electroluminescence , photoconductivity, photoelectric cells, lasers, ruby lasers, Nd-YAG laser, carbon dioxide laser, optical fibres, fibre materials, mechanism of refractive index variations, fabrication of fibre, fibre cables, solar cell, fuel cell, MHD generators.
Banerjee-Electrical & Electronics Material,PHI.
S. O. Kasap-Priniciple of Electronics Material &Device,TMH.
Jones- Material Science for Electrical & Electronics Enginnering,Oxford.
V.Raghvan Material science&engineering,PHI.
J.Allison ElectronicsEnginnering, Material &Device,TMH.
Gilmore: Material Science, Cengage Learnings.
Gupta & Gupta Advance Electrical & Electronics Material,Wieley India.
James F.Shackelford-Introduction Material Science for Enginnering Pearson.
V.Rajendran - Material science,TMH.
Choice Based Credit System
This course in systems engineering examines the principles and process of creating effective systems to meet application demands. The course is organized as a progression through the systems engineering processes of analysis, design, implementation, and deployment with consideration of verification and validation throughout.
What is System Engineering, Origin, Examples of Systems requiring systems engineering,Systems Engineer Career Development Model, Perspectives of Systems Engineering, Systems Domains, Systems Engineering Fields, SystemEngineering Approaches.
Structure of Complex Systems, System Building Blocks and Interfaces, Hierarchy of Complex Systems, System Building Blocks, The System Environment, Interfaces and Interactions, Complexity in Modern Systems.
Concept Development and Exploration, Originating a New System, Operations Analysis, Functional Analysis, Feasibility, System Operational Requirements, Implementation of Concept Exploration.
Engineering Development, Reducing Program Risks, Requirements Analysis, Functional Analysis and Design, Prototype Development as a Risk Mitigation Technique, Development Testing, Risk Reduction.
Integration and Evaluation, Integrating, Testing, And Evaluating The Total System, Test Planning And Preparation, System Integration, Developmental System Testing, Operational Test And Evaluation, Engineering For Production, Transition From Development To Production, Production Operations.
After successful completion of the course, students would be able to Plan and manage the systems engineering process and examine systems from many perspectives (such as software, hardware, product, etc.) Students can distinguish critical functions, diagnose problems, and apply descoping strategies and judge the complexity of production and deployment issues.
Evaluation will be a continuous and integral process comprising classroom and external assessment.
Alexander Kossiakoff, William N Sweet, “System Engineering Principles and Practice, Wiley India
Blanchard Fabrycky, Systems engineering and analysis, Pearson
Dennis M. Buede, William D.Miller, “The Engineering Design of Systems: Models & Methods” Wiley India
JeffreyL Whitten, Lonnie D Bentley, “System Analysis and Design Methods”
Richard Stevens, Peter Brook,” System Engineering – Coping with complexity, Prentice Hall
Choice Based Credit System
The focus of this course is to introduce you to the fundamental concepts and tools used in both analogue and digital signal processing (ASP and DSP) which are areas of interest if you are studying any program relating to electronic, communication and/or computer engineering.
As an outcome of completing this course, students should be able to
Understand the terminology of signals and basic engineering systems.
Understand the role of signals and systems in engineering design and society.
Understand signal representation techniques and signal characteristics.
Understand the difference and the applications of analog versus discrete signals and the conversion between them.
Understand the process of sampling &Fouriertransforms.
Allan V.Oppenheim, S.Wilsky and S.H.Nawab, Signals and Systems, PearsonEducation.
A. Anandkumar signal and system 3rdEdition, PHI.
http://www.nptelvideos.in/2012/11/estimation-of-signals-and-systems.html
Edward W. Kamen & Bonnie’s Heck, “Fundamentals of Signals and Systems”, Pearson Education.
H. P. Hsu, RakeshRanjan “Signals and Systems”, Schaum’s Outlines, Tata McGrawHill.
Simon Haykins and Barry Van Veen: Signals and Systems, John Wiley & sons.
Rawat: Signal and Systems, Oxford Publication.
Nagoorkani: signal and system (TMH).
Iyer: signal and system, Cengage learning.
Gabel, Roberts, “Signals and Linear Systems” Wiley India Pvt. Ltd, 2012.
Rao: Signal and system (TMH).
List of Experiments:
Introduction to MATLAB
To implement delta function, unit step function, Ramp function.
To explore the commutation of even and odd symmetries in a signal with algebraic operations.
To explore the effect of transformation of signal parameters (amplitude-scaling, time- scaling and time-shifting).
To explore the time variance and time invariance property of a given system.
To explore causality and non-causality property of a system.
To demonstrate the convolution and correlation of two continuous-time signals.
To demonstrate the convolution and correlation of two discrete-time signals.
To determine Magnitude and Phase Response of Fourier Transform of given signals.
Choice Based Credit System
OP-AMP AS FILTERS: Characteristics of filters, Classification of filters, Magnitude and frequency response, Butterworth 1st and 2nd order Low pass, High pass and band pass filters, Chebyshev filter characteristics, Band reject filters, Notch filter;all pass filters, self-tuned filters,AGC,AVC using op-AMP.
List of Experiments
Apparatus Required –Function Generator, TL082, MPY634/ASLK Pro, Power Supply, Oscilloscopes, connecting wires, bread board.
To determine voltage gain and frequency response of inverting and non-inverting amplifiers using IC-741.
To measure offset voltages, bias currents, CMRR, Slew Rate of OPAMP using IC-741.
To design an instrumentation amplifier anddetermine its voltage gainusing IC-741.
To design op-amp integrator (low pass filter) and determine its frequency response.
To design op-amp differentiator (high pass filter) and determine its frequency response.
To design Analog filters – I and II and analyse its characteristics.
To design Astable,Monostable andBistablemultivibrator using IC-555and analyse its characteristics.
Automatic Gain Control (AGC) Automatic Volume Control (AVC).
Upon successful completion of this course students will able to understand the working of different integrated circuits, their pin configurations and about their applications. Students will also able to understand the performance of ICs on practical basis.
RamakantA.Gaikward,“OP- Amp and linear Integrated circuits”Third edition- 2006, Pearson.
B. VisvesvaraRao Linear Integrated Circuits Pearson.
David A. Bell: Operational Amplifiers & Linear ICs, Oxford University Press, 2nd edition,2010.
D. Roy Choudhury:Linear Integrated Circuits New Age Publication.
B. Somanathan Nair: Linear Integrated Circuits analysis design and application Wiley India Pvt. Ltd.
Maheshwary and Anand: Analog Electronics, PHI.
S.Salivahanan,V S KanchanaBhaaskaran: Linear Integrated Circuits”,second edition, McGraw Hill.
Gray Hurst Lewis Meyer Analysis and design of analog Integrated Circuits fifth edition Wiley India.
RobertF.Coughlin, Frederick,F.Driscoll: Operational Amplifiers and Linear Integrated Circuits, sixth edition, Pearson.
Millman and Halkias: Integrated electronics, TMH.
Boylestad and Nashelsky: Electronic Devices and Circuit Theory, Pearson Education.
Sedra and Smith: Microelectronics, Oxford Press.
Choice Based Credit System
The course is designed to cover the fundamentals, principles, concepts, and techniques of analog communication systems like various modulation techniques, data transmission, communication technologies, time-domain and frequency domain multiplexing technique and noise analysis.
Students who are successful in this class will demonstrate at least the abilities to:
Solve communication engineering Problems using the knowledge of time domain & frequency domain.
Analyze various analog modulation schemes for communication systems.
Analyze and compare the noise performance of various analog communication systems.
Understand the basic of digital transmission system.
Simon Haykins, Communication System, John Willy
Singh &Sapre, Communication System, TMH
http://www.nptelvideos.in/2012/11/communication-engineering.html
B.P. Lathi, Modern Digital and analog communication system; TMH
Singhal, analog and Digital communication, TMH
Rao, Analog communication, TMH
P K Ghose, principal of communication of analog and digital, universities press.
Taub& shilling, Communication System, TMH
Hsu; Analog and digital communication(Schaum); TMH
Proakis fundamental of communication system. (Pearson edition).
To analyze characteristics of AM modulator & Demodulators.
To analyze characteristics of FM modulators& Demodulators.
To analyze characteristics of super heterodyne receivers.
To analyze characteristics of FM receivers.
To construct and verify pre emphasis and de-emphasis and plot the wave forms.
To analyze characteristics of Automatic volume control and Automatic frequency control.
To construct frequency multiplier circuit and to observe the waveform.
To design and analyze characteristics of FM modulatorand AM Demodulator using PLL.
Choice Based Credit System
To provide sound knowledge in the basic concepts of linear control theory and design of control system.
To understand the methods of representation of systems and getting their transfer function models.
To provide adequate knowledge in the time response of systems and steady state error analysis.
To give basic knowledge is obtaining the open loop and closed–loop frequency responses of systems.
To understand the concept of stability of control system and methods of stability analysis.
To study the various ways of designing compensation for a control system.
Terminology and classification of control system, examples of control system, Laplace Transform and its application, mathematical modeling of mechanical and electrical systems, differential equations, transfer function, block diagram representation and reduction, signal flow graph techniques.
Open loop and closed loop systems, effect of feedback on control system and on external disturbances, linearization effect of feedback, regenerative feedback.
Standard test signals, time response of 1st order system, time response of 2nd order system, steady-state errors and error constants, effects of additions of poles and zeros to open loop and closed loop system.
Concept of stability of linear systems, effects of location of poles on stability, necessary conditions for stability, Routh-Hurwitz stability criteria, relative stability analysis, Root Locus concept, guidelines for sketching Root-Locus.
Correlation between time and frequency response, Polar plots, Bode Plots, all-pass and minimum-phase systems, log-magnitude versus Phase-Plots, closed-loop frequency response.
Nyquist stability criterion, assessment of relative stability using Nyquist plot and Bode plot (phase margin, gain margin and stability).
Design problem, types of compensation techniques, design of phase-lag, phase lead and phase lead-lag compensators in time and frequency domain, proportional, derivative, integral and PID compensation.
State space representation of systems, block diagram for state equation, transfer function decomposition, solution of state equation, transfer matrix, relationship between state equation and transfer function, controllability and observability.
Students who are successful in this class will demonstrate at least the abilities to:
Demonstrate an understanding of the fundamentals of (feedback) control systems.
Determine and use models of physical systems in forms suitable for use in the analysis and design of control systems.
Express and solve system equations in state-variable form (state variable models).
Determine the time and frequency-domain responses of first and second-order systems to step and sinusoidal (and to some extent, ramp) inputs.
Determine the (absolute) stability of a closed-loop control system
Apply root-locus technique to analyze and design control system.
I.J. Nagrath and M. Gopal, ‘Control Systems Engineering’, New Age International Publishers, 2003.
Benjamin C. Kuo, Automatic Control systems, Wiley India Pvt. Ltd, 9th edition.
A. Anand Kumar, “ Control Systems” PHI, New Delhi, 2007
Norman S. Nise, Control System Engineering, Wiley India Pvt. Ltd.
R. Anandnatarajan, P. Ramesh Babu, “Control System Engineering” Scitech Publication (India) Pvt. Ltd. 2014
Distefano (schaum series) Control Systems TMH
M. Gopal, ‘Control Systems, Principles and Design’, Tata McGraw Hill, New Delhi, 2002.
Manik, Control System, Cengage Learnings.
Stefani shahian- Design of feedback control system oxford university press.
Salivahanan Control Systems engg. Pearson Education, New Delhi
K. Ogata, ‘Modern Control Engineering’, Pearson Education, New Delhi
B.S. Manke linear control system, khanna publishers
Choice Based Credit System
The focus of this course is to introduce the fundamental concepts and tools of electronic circuit designing software & let students acquaint with the software being used in the electronic circuit designing industries.
Study of the key features and applications of the software in the field of Electronic Circuits, Electronic Instrumentation and Network Analysis.
Design, Optimization and simulation of;
Basic Electronic circuits (examples rectifiers, clippers, clampers, diode, transistor characteristics etc).
Transient and steady state analysis of RL/ RC/ RLC circuits, realization of network theorems.
Use of virtual instruments built in the software.
Overview and use of the software in optimization, designing and fabrication of PCB pertaining to above circuits simulated using above simulation software.
After completion of this course students should be able to,
Understand the basics of electronic circuit designing software’s.
Design & simulate various electronic circuits.
Analyze the circuit’s behavior & characteristics.
Verify the characteristics obtained after simulation by implementing circuits on bread board practically.
Simulate and design the PCB layout.
Choice Based Credit System
Predict approximate physical and mechanical behavior of a material based on the type of bonding present (covalent, ionic, metallic, and/or van der Waals) and the presence of any of the several types of defects common in condensed matter.
Use knowledge of the crystal structure (BCC, FCC, and HCP) of a metal to make general predictions about the metalís ability to plastically deform.
Calculate the extent of diffusion-driven composition changes based upon composition, time, and temperature.
Predict the equilibrium microstructure of a material comprised of two constituents (e.g., Fe and C or Al and Cu) given the binary phase diagram and thermal history of the material.
Select materials for different applications based on the constraints of the given applications.
Atomic structure, molecules and general bonding principles, crystal system and structure , Miller indices, Bravais lattice, Bragg’s law, crystal structure for metallic elements, structural imperfections, dielectric parameters, polarsation, static dielectric constant of solids, ferroelectric materials, piezoelectricity, compex dielectric constant, dipolar relaxation, Debye equation , dielectric loss, insulating materials and their properties, composite materials
Magnetism: fundamental concepts pertaining to magnetic fields, magnetic dipole movement of current loops, orbital magnetic dipole movement and angular momentum of simple atomic model, classification of magnetic materials, spin magnetic moment, paramagnetism, ferromagnetism, spontaneous magnetization and Curie-Weiss law, ferromagnetic domains, magnetic anisotropy, magnetostriction, antiferromagnetism, ferrites and its applications, magnetic resonance
Conductors: introduction, atomic interpretation of Ohm’s law, relaxation time, collision time, mean free path , electron scattering, resistivity of metals, Linde’s rule, Joule’s law, thermal conductivity of metals, high conductivity materials, high resistivity materials, solder and electrical contact materials, carbon brushes, fuses, superconductivity-The free electron model, thermodynamics and properties of superconductors, meissner effect, classification of superconductors
Semiconductors: chemical bonds in Ge and Si, carrier density, extrinsic semiconductor, n-type , p-type semiconductor, Hall effect, mechanism of current flow, drift current, diffusion current, Einstein relation, materials for fabrication of semiconductor devices, fabrication technology , continuity equation, capacitance of junction barrier, junction transistors, thermistor, variastors Optical properties of materials: introduction, electromagnetic radiation spectrum, refractive index, reflection, Birefringence, Translucency, colourcentres, dispersion, absorption, excitons, photoelectric emission, electroluminescence , photoconductivity, photoelectric cells, lasers, ruby lasers, Nd-YAG laser, carbon dioxide laser, optical fibres, fibre materials, mechanism of refractive index variations, fabrication of fibre, fibre cables, solar cell, fuel cell, MHD generators.
Banerjee-Electrical & Electronics Material,PHI.
S. O. Kasap-Priniciple of Electronics Material &Device,TMH.
Jones- Material Science for Electrical & Electronics Enginnering,Oxford.
V.Raghvan Material science&engineering,PHI.
J.Allison ElectronicsEnginnering, Material &Device,TMH.
Gilmore: Material Science, Cengage Learnings.
Gupta & Gupta Advance Electrical & Electronics Material,Wieley India.
James F.Shackelford-Introduction Material Science for Enginnering Pearson.
V.Rajendran - Material science,TMH.
Choice Based Credit System
This course in systems engineering examines the principles and process of creating effective systems to meet application demands. The course is organized as a progression through the systems engineering processes of analysis, design, implementation, and deployment with consideration of verification and validation throughout.
What is System Engineering, Origin, Examples of Systems requiring systems engineering,Systems Engineer Career Development Model, Perspectives of Systems Engineering, Systems Domains, Systems Engineering Fields, SystemEngineering Approaches.
Structure of Complex Systems, System Building Blocks and Interfaces, Hierarchy of Complex Systems, System Building Blocks, The System Environment, Interfaces and Interactions, Complexity in Modern Systems.
Concept Development and Exploration, Originating a New System, Operations Analysis, Functional Analysis, Feasibility, System Operational Requirements, Implementation of Concept Exploration.
Engineering Development, Reducing Program Risks, Requirements Analysis, Functional Analysis and Design, Prototype Development as a Risk Mitigation Technique, Development Testing, Risk Reduction.
Integration and Evaluation, Integrating, Testing, And Evaluating The Total System, Test Planning And Preparation, System Integration, Developmental System Testing, Operational Test And Evaluation, Engineering For Production, Transition From Development To Production, Production Operations.
After successful completion of the course, students would be able to Plan and manage the systems engineering process and examine systems from many perspectives (such as software, hardware, product, etc.) Students can distinguish critical functions, diagnose problems, and apply descoping strategies and judge the complexity of production and deployment issues.
Evaluation will be a continuous and integral process comprising classroom and external assessment.
Alexander Kossiakoff, William N Sweet, “System Engineering Principles and Practice, Wiley India
Blanchard Fabrycky, Systems engineering and analysis, Pearson
Dennis M. Buede, William D.Miller, “The Engineering Design of Systems: Models & Methods” Wiley India
JeffreyL Whitten, Lonnie D Bentley, “System Analysis and Design Methods”
Richard Stevens, Peter Brook,” System Engineering – Coping with complexity, Prentice Hall