Top Exam oriented Books Recommended for MSc IT Information Technology by Gauhati University

 List of Best Recommended Text Books for MSc IT Students

• Stroustrup, B. (1995) The C++ Programming Language, Addison Wesley Publishing Company

• Schild Herbert , The Complete Reference to C++, Osborne McGraw Hill.

• Rambaugh et al., Object Oriented Modeling and Design, P.H.I. (EEE).

The Best Recommended History books for MA course in Gauhati University

        Top History Books Reading List: Recommended by Gauhati University for various Exams

Best Book 

1. Bloch. Marc. 1953. The Historians Craft. London : Manchester University Press 
2. Braudel.F.1992.On History. London: Chicago University Press
3. Bury. J.B. 1920.The Idea of Progress. London: The Macmillan and Co. 
4. Butterfield. H. 1931. The Whig Interpretation of History. London: WW Norton& Company 
5. Carr. E.H. 1987.What is History. London: Cambridge University Press 
6. Collingwood. R.G. 1946.The Idea of History. London: Oxford University Press 
7. Fritz. Stern.(ed.) 1973. The Varieties of History. New York: Random House 

MA History Complete Syllabus of Gauhati University

 MA History CBCS Complete Syllabus of Gauhati University

The Post-Graduate Course in History requires students to opt for 16 (Sixteen) courses over four

semesters. The Department also offers one Value Added Course (VAC) per semester, i.e. a total of 4 (four) VAC over 4

(four) semesters. While the sixteen courses in History are assigned 6 (six) credits each, the VACs are assigned four credits

each. Thus each semester has 28 (24+4) credits and the Post-Graduate Course in History requires a total of 112 (96+16)

credits.

Best C++ and Operating System Books Recomended by GU

C++ and Operating System Best Recommended Books by Department of Electronics & Telecommunication, Gauhati University, India

Suggested Reading:

Programming in C++:

1.      Programming in C++  -  Kamthane, Pearson Education; 2.      Programming in C++  - Balaguruswamy, TMGH; 3.      Let us C++  - Kanitkar, BPB Publishers

Operating System:

1.      Operating System – Deitel, Pearson Education 2.       Operating System – Tanenbaum, PHI

Digital Electronics and Microprocessor Best Recommended books for M.Sc Students

Digital Electronics and Microprocessor Best Recommended books for M.Sc and Engineering  Students

Suggested Reading:

Digital Design:

1.Digital logic and computer design –M. Mano. PHI. 2.Modern Digital Electronics –R.P. Jain, TMGH 3.Digital Fundamentals –Jain and Floyd, Pearson Education 4.Digital Electronics –Malvino & Leach, Pearson Education 5.Digital Computer Electronics –Malvino, TMGH 6.Digital Design – Morris Mano, Pearson Education 7.Digital Circuits and Design –S. Salivahanan and S. Arivazhagan, Vikash, Publishing Ltd. 8.Digital Techniques – Prof. P. H. Talukdar, N. L. Publications 9.Digital Design – Wakerly, PHI

Microprocessor-I:

1.      Introduction to Microprocessors – R.Gaonkar, New age Publication 2.      Fundamentals of Microprocessor – B.Ram. Dhanpat Rai 3.      8085 Microprocessor Programming and Interfacing –N. K. Srinath, PHI 4.      Microprocessor Based Design – Slater, PHI 5.      Microprocessors – Gilmore, MacGraw Hill Publication 6.      Microcomputers and Microprocessors – Uffenbeck, PHI

 

Best recommended Books by Gauhati University for MSc Electronics & Telecommunication Course

Best recommended Books by Gauhati University for MSc Electronics & Telecommunication Course

Suggested Reading:

Applied Quantum Mechanics:

1. Applied Quantum Mechanics – AFJ Levi, Cambridge Univ. Press 2. Concepts of Modern Physics – Arthue Beiser 3. Fundamentals of Nanoelectronics – George W. Hanson, Pearson Pub.

Semiconductor Devices: 1. Electronic Devices & circuits. – David A. Bell, PHI 2.Semiconductor Devices – Jasprit Singh, John Wiley 3. Semiconductor Devices – Physics and Technology – S.M.Sze, Wiley 4. Electronic Devises & Circuits Theory – Boylestad & Nashalsky. Pearson Education 5.Electronic Device & Circuit – Millman-Halkias, Tata McGraw Hill.

Applied Quantum Mechanics and Semi Conductor Devices Syllabus

Applied Quantum Mechanics and Semi Conductor Devices
1st sem MSc Electronics & Telecommunication Tech, Gauhati University Detail Syllabus

A) Applied Quantum mechanics (50 marks)
Historical Developments of Quantum mechanics (QM), importance of QM in Electronics.
Experimental verification of de Broglie hypothesis, concept of wave packet and wave function, uncertainty principle and its applications (5 marks).
Schrödinger wave equation, probability density current, Free electrons, 1D & 3D space, electrons confined to a bounded region of space: 1D and 3D rigid potential box, quantum confinement, degenerate and non-degenerate energy levels; Transmission and reflection of unbounded states: potential step and impedance matching (15 marks)..
Particle tunneling, Tunnel diode, electron tunneling limit to reduction in size of CMOS transistor, concept of resonant tunneling, double barrier resonant tunneling diode, heterostructure bipolar transistor with resonant tunnel – barrier (15 marks)..
Electrons subject to periodic potential: Band theory of solids, concept of effective mass & holes; Density of states (DOS) in bulk semiconductor, brief idea of DOS in low dimensional semiconductor structure, concept of quantum conductance (15 marks)..
B) Semiconductor Devices (50 marks)
Semiconductors: Direct and indirect semiconductors, energy bands in intrinsic and extrinsic semiconductors, law of mass action; density of states, Fermi Dirac distribution function, carrier statistics; carrier transport phenomena – drift and diffusion currents, Einstein’s relationship, carrier scattering, generation and recombination processes (10 marks) .
Junction diodes: Homojunctions and hetero-junctions, device structure of junction diode, different doping profiles of pn-junction; Energy band diagram of pn-juction diode, built-in potential and depletion width of uniformly doped step and one sided junction under thermal equilibrium and biased conditions, diode equation, I-V characteristics of diode and thermal effect, breakdown mechanisms in junction diodes; operation of Zener diode, tunnel diode, Schottky diode, varactor diode, basics of light emitting diodes and photodiodes. Diode circuits: equivalent models of diode, AC & DC circuits containing diodes – rectifier circuits, DC voltage regulator, clipping and clamping circuits. Switching response of signal diodes and power diodes, study of diode datasheets (10 marks).
Bipolar Junction Transistor: Device structure of pnp and npn transistors, detailed analysis of current flow in BJT, I-V characteristic curves for BJT in CE, CB and CC configurations, determination of h-parameters from I-V curves, small signal equivalent circuit of BJT, leakage current, base-width modulation, breakdown phenomena, thermal effects; a & b cut off frequencies, basics of phototransistor and hetero-junction BJT. Basic BJT circuits: DC load line & bias point, biasing schemes – fixed current   bias, collector to base bias, emitter current bias, potential divider bias; Bias stability factor; basic BJT circuits for signal amplification, frequency response of BJT amplifiers, study of BJT datasheets (10 marks).
Field Effect Transistors -JFET and MOSFET physics: Device structure of n-channel and p-channel Junction Field Effect Transistor (JFET); detailed analysis of current flow, linear and saturation regions of I-V characteristics, pinch off voltage, equation of drain current, channel length modulation. Device structure of n-channel and p-channel Metal Oxide Semiconductor Field Effect Transistor (MOSFET), enhancement and depletion type MOSFETs; detailed analysis of current flow, channel accumulation and inversion states, threshold voltage, sub-threshold, linear and saturation regions of I-V characteristics, channel length modulation, channel pinch off, equation of drain current; Basic JFET & MOSFET circuits: DC load line & bias point, biasing schemes, basic circuits for signal amplification, small signal AC equivalent circuits of JFET and MOSFET, frequency response of MOSFET/JFET amplifiers, Study of JFET & MOSFET datasheets (10 marks).
Basics of negative and positive feedback in amplifier: General theory of positive and negative feedback, Barkhausen criterion; Open loop and close loop gain, negative Feedback topologies and their effects on amplifier characteristics, positive feedback in oscillator circuits (5 marks).
Basics of operational amplifier (OP-AMP): Ideal and real characteristics of OP-AMP; internal building blocks of OP-AMP, comparison between BJT and FET based OP-AMPs; frequency response and gain of OP-AMP in open loop and closed loop, frequency compensation in OP-AMP; Basic OP-AMP circuits: non inverting & inverting amplifiers, comparators, adder, subtractor, log amplifier and oscillator circuits, active filters using OP-AMP, OP-AMP datasheets(5 marks).