nizam college: department of physics · lesson plan for the academic year 2017-2018 (semester ii)...

NIZAM COLLEGE: DEPARTMENT OF PHYSICS

LESSON PLAN FOR THE ACADEMIC YEAR 2017-2018 (Semester II)

Class: B. Sc I year Section: Computer Hardware

Course/ Paper: Digital Design

Unit: I No. of Hours Allotted: 12

Topics to be covered No. of Hours

Introduction to Diodes and characteristics 01

Special characteristics 01

Bipolar Junction transistor characteristics 01

RTL and DTL Circuits 02

TTL(Transistor Transistor Logic) circuits 02

ECL (Emitter Coupled Logic) Circuits 01

MOS (Metal Oxide Semiconductor) 01

CMOS (Complementary Metal Oxide Semiconductor) 01

CMOS transmission gate circuits 02

Name of the Teacher: Head, Department of Physics

Signature: Signature:

D. MAHIJA





Unit: II No. of Hours Allotted: 14


Introduction to Flip Flops 01

Flip-Flop Excitation Tables 01

Characteristic Equations for Flip Flops 01

Sequential Circuits or State Machines, Block diagrams of Mealy and Moore

models

01

Analysis of Clocked Sequential Circuits 02

State Tables and State Diagrams 01

Design Procedure 01

Designing SM with Edge Triggered Flip Flops (D,J-K Type) 03

State Reduction and Assignment 01

Design of Counters 01

Binary Sequence and Non-binary Sequence 01



D. MAHIJA





Unit: III No. of Hours Allotted: 12


Introduction, Binary Adder and Subtractor 01

Decimal Adder 01

Magnitude Comparator 01

Decoders and Encoders 01

Multiplexers 01

Read Only Memory(ROM) 01

Programmable Logic Array(PLA) 01

Programmable Array Logic(PAL) 01

Introduction to ASM Chart 01

Timing Considerations 01

Control implementations 01

Design with Multiplexers 01



D. MAHIJA





Unit: IV No. of Hours Allotted: 12


Introduction to Operational amplifiers 03

Inverting amplifiers 01

Non-inverting amplifiers 01

R-2R Ladder network 01

Analog to Digital Converter 02

Digital to Analog Converter 02



D. MAHIJA


LESSON PLAN FOR THE ACADEMIC YEAR 2017-2018 (Semester VI)

Class: B. Sc III year Section: Computer Hardware

Course/ Paper: Computer Networks



Introduction to Data Communications 01

Networks, Protocols and Standards 01

Topology 01

OSI & TCP/IP Protocol Suites 01

Physical Layer: Transmission modes 01

DTE-DCE Interface 01

Modems 01

Guided and Unguided Media 01

Multiplexing and Switching 01

DSL, FTTC 01


Signature: Signature

D. MAHIJA




Course/ Paper: Computer Networks Number of hours Allotted: 10

Unit II


Introduction to Data Link layer 01

Line discipline, Flow Control, Error Control 01

Asynchronous protocols 01

Synchronous protocols 01

Character Oriented Protocols 01

Bit Oriented Protocols 01

Link Access Procedures 01

LANs and MANs, Project 802 01

Ethernet, Token bus, Token ring 01

FDDI, Fast Ethernet, DQDB, SMDS, PPP 01



D. MAHIJA




Course/ Paper: Computer Networks No. of Hours Allotted: 10

Unit : III


Repeaters, Bridges, Hubs 01

Switches, Routers, Gateways 01

Shortest path routing, Distance Vector routing 01

Link State routing, X.25 layers and protocols 01

Congestion Control-Leaky bucket algorithm 01

TCP/IP Protocol Suite- IP protocol 01

IP addresses, Sub-netting 01

IPv4, IPv6, ARP 01

RARP, ICMP, ISDN services and channels 01

Broadband ISDN, ATM Design goals, architecture and layers 01



D. MAHIJA




Course/ Paper: Computer Networks



Responsibilities of Transport layer 01

Transport Connection 01

OSI Transport Protocol 01

TCP, UDP 01

Application Layer : BOOTP and DHCP 02

DNS, TELNET, FTP, SMTP 01

HTTP, WWW, VoIP 01

Four aspects of Network security 01

Privacy, Digital Signatures 01



D. MAHIJA


LESSON PLAN FOR THE ACADEMIC YEAR 2017-2018 (Semester I)


Course/ Paper: Digital circuits and combination logic



Number systems: Binary, Octal, Decimal and Hexadecimal 01

Binary to Decimal, Octal and Hexadecimal conversion, Decimal to Binary,

Octal and Hexadecimal conversion

02

Octal to Binary, Decimal and Hexadecimal conversion, Hexadecimal to Binary,

Octal and Decimal conversion

02

Introduction to Logic gates 01

Truth tables of NOT, OR, AND, NAND, NOR, XOR, XNOR gates 01

Demorgan’s Laws 01

Boolean Algebra 01

Logic equations and simplification 02

Introduction to ASCII and GRAY codes; Conversion of Gray to binary and

binary to gray numbers

01

Name of the Teacher: Head, Department of


D. MAHIJA







Boolean lows and theorems 01

Introduction and truth table to Karnaugh map 01

pairs, quads and octets 01

sum of the products method, product of sums method 01

Karnaugh simplification 03

Introduction to Data processing Circuits, Multiplexers 01

Demultiplexers 01

Encoders, priority encoder 01

Decoder 01

Exclusive OR gate: Parity generators and checkers 01



D. MAHIJA







Binary Addition, subtraction 01

Octal, Hexadecimal addition and subtraction 02

2’s complement, 2’s complement Arithmetic 01

Half Adder and truth table 01

Full Adder and truth table 01

The Adder subtractor 01

Binary Multiplication and division 01

Read Only Memory(ROM) 01

Programmable Read Only Memory(PROM) 01

Applications of ROM, PROM 01

Random Access Memory (RAM) 01



D. MAHIJA







Introduction to Flip-Flops, The clocked R-S Flip Flop 01

The J-K Flip Flop, Preset and Clear 01

The T-Flip Flop, Introduction to shift registers 01

Asynchronous counter (Ripple Counter) 01

Divided by 2, 5, 10 (decade) counters 02

Master Slave JK Flipflop, Race around condition 02

The D-Flip Flop 01

Random Access Memory (RAM) 01

Memory Decoding 01

Error Correcting Codes 01



D. MAHIJA


LESSON PLAN FOR THE ACADEMIC YEAR 2017-2018 (Semester IV)

Class: M.Sc Final Year Section: Bio-Physics

Course/ Paper: Bio-Physics / Radiation Biophysics


Topics to be covered No. of Hours Introduction 1 Light sources and materials 1 monochromators 1 intensity measurements 1 Definition and theory of action spectra 1 Inactivation of proteins and DNA 1 Light action on respiratory pigments 1 Photosynthesis,examples 1 Cooperative events in light action 1 the Poisson’s distribution, examples. 1


Topics to be covered No. of Hours Nature of ionizing radiation 1 Measure of radiation – the roentgen 1

Ionisation by X-rays, rays or neutrons 2 Bethe’s equation - derivation and application 2 Dosimetry 1 Action of ionizing radiation on molecular systems 1 Target theory;Variable linear energy transfer 1 Radiation sensitivity of large molecules 1 Ionising radiation interaction with tissues and

chromosomes. 2


Topics to be covered No. of Hours Production of X-ray beams 1 X-ray machine; Properties of X-rays 1 Absorption of X-rays 1 X-ray image intensifier T.V 1 Radiation to patient from X-ray 1 Live X-ray imaging – fluoroscopy 1 Mamography 1 theory, instrumentation, working of CT scan 1 MRI scan 1 PET scan 1


Topics to be covered No. of Hours Radioactivity and radiation sources 2 Statistical aspects of nuclear medicine 1 Basic instrumentation and its clinicalapplications. 2 Nuclear medicine imagingdevices 1 Physical principles of nuclear medicine 1 Imaging procedures and RIA 1 Therapy with radioactivity 1 Biological effects of radiation - principles of

radiation therapy 1

mega voltage therapy 1 Brachy therapy 1

Name of the Teacher: Dr Abdul Hameed Head, Department of



LESSON PLAN FOR THE ACADEMIC YEAR 2016-2018 (Semester III)

Class: M.Sc., II-Year, III-Semester Section:

Course/ Paper: 8051 MICRO-CONTROLLER & ITS APPLICATIONS/ P303/T/EC Paper- III



1 Architecture Of Microcontroller 8051: 1

2 Micro controllers & Embedded Processors: 1

3 Micro controller versus General-purpose Microprocessors, 1

4 Microcontrollers for embedded systems, 1

5 Embedded applications, choosing a Microcontroller. 1

6 8051 Architecture: 8051 Microcontroller hardware, input/output pins, 1

7 Ports and circuits, 1

8 External memory, 1

9 Counter and timer, 1

10 Serial data input and output, 1

11 Interrupts, 1

12 Other members of 8051. 1

Name of the Teacher: Dr. R. Saranga Pani Head, Department of








1 8051 Instructions and Assembly Language Programming: 1

2 Addressing modes: immediate and register addressing modes, 1

3 accessing memory using various addressing modes. 1

4 Arithmetic instructions and programs unsigned addition and subtraction, 1

5 unsigned multiplication and division, 1

6 signed members concepts and arithmetic operations. 1

7

Logic Instruction and programs: Logic and compare instructions rotate and

1

swap instructions.

8 Jump, Loop and call instructions; Loop and jump instructions, 1

9 call instructions, 1

10 time delay, generation and calculation. 1

11 Single bit instructions and programming: single bit instruction programming, 1

12 single bit operation with carry reading input pins versus port latch. 1

13 I/O port programming: I/O programming, 1

14 bit manipulation. 1









1 8051 Timer / Counter, 1

2 Serial Communication And 1

3 Interrupts Programming: 1

4 Timer / Counter programming: programming 8051 timers, 1

5 counter programming, 1

6 pulse frequency and pulse width measurements. 1

7 Serial data communication programming: 1

8 Basics of serial communication, 1

9 8051 connection to RS232, 1

10 8051 serial communication programming. 1

11 Interrupts programming: Interrupts of 8051; 1

12 programming timer interrupts, 1

13 programming external hardware interrupts, and 1

14 programming serial communication interrupts. 1

Name of the Teacher:

Signature:

Dr. R. Saranga Pani

Head, Department of

Signature:







1 Application Of 8051 Micro Controllers: 1

2 Programmable peripheral interface (PPI)-8255, programming 8255, 1

3 8255 interfacing with 8051. 1

4 Interfacing Key board. 1

5 Interfacing LED 1

6 Interfacing LCD, 1

7 Interfacing A/D & 1

8 D/A converters, 1

9 Interfacing stepper motor. 1





Class: M. Sc., II-Year, IV-Semester Section:

Course/ Paper: MOBILE CELLULAR COMMUNICATIONS/ P403/T/EC Paper - III



1 Cellular Concepts: 1

2 Mobile communications-évolution, 1

3 International Mobile Satellite, 1

4 Personnel Communication System [PCS], 1

5 Standards, 1

6 Mobile Personnel Computers, 1

7 Speech Coder. 1

9 Antenna Gain, Propagation characteristics, 1

10 Model for multipath-faded radio signals 1

11 Instrumentation for lab testing. 1









1 Spread Spectrum Systems and Diversity Techniques: 1

2 Concept of Spread Spectrum System, 1

3 pseudo-noise sequences, 1

4 performance of Direct Sequence Spread Spectrum Systems, 1

5 Code Division Multiple Access, 1

6 Direct Sequence systems, 1

7 Frequency Hopping systems, Synchronization. 1

8 Applications. 1

9 Concept of Diversity Branch and Signal Paths, 1

10 Combining and Switching Methods, 1

11 Carrier-to- Noise and Carrier- to- Interference Ratio, 1

12 Performance Improvements. 1









1 Medium Access Control: Motivation for a specialized MAC 1

2 Hidden and exposed terminals, Near and far terminals 1

3 SDM 1

4 FDMA 1

5 TDMA, Fixed TDM 1

6 Classical Aloha, Slotted Aloha 1

7 Carrier sense multiple access, Demand assigned multiple access 1

8 PRMA packer reservation multiple access 1

9 Reservation TDMA 1

10 Multiple access with collision avoidance, Polling 1

11 Inhabit sense multiple access 1

12 Comparison of S/T/F CDMA Telecommunication Systems: 1

13 CDMA, Spread Aloha multiple access 1

14 GSM, Mobile services, System architecture 1

15 Radio interface, Protocols 1

16 Localization and calling, Handover, Security, New data services. 1









1 Satellite Systems: History, Applications 1

2 Basics, GEO, LEO, MEO, Routing, Localization, Handover 1

3 Examples. Satellite applications: Communication satellites 1

4 surveillance satellite, navigation satellites 1

5 Global positioning system (GPS) space segment, control segment 1

6 GPS receivers, GPS applications 1

7 Broadcast Systems: Overview, cyclic repetition of data 1

8 , Digital audio broadcasting 1

9 Multimedia object transfer protocol 1

10 Digital video broadcasting 1





Class: M.Sc Previous Section:

Course/ Paper: IV Solid state Physics

Unit: I Crystalline State & Structural Studies No. of Hours Allotted: 13

Topics to be covered No. of

Hours

Crystal translational vectors, unit cell, Bravais lattices 01

Crystal system, Miller indices, 02

Symmetry operations, Point groups, 01

Space groups and their notation. 01

Crystal structures of fcc, bcc, hcp 01

CsCl, NaCl, ZnS and Diamond structures 01

Bragg’s law, Atomic structure factor 01

Geometrical structure factor and Debye Waller factor 01

Concept of reciprocal lattice, Concept of Brillouin zones 01

Experimental methods of X-ray diffraction of crystals – Laue and

Powder methods

01

Determination of unit cell parameters of a cubic crystal 01

Elements of neutron and electron diffraction 01

Unit: II Lattice Vibrations and Thermal Properties No. of Hours Allotted: 13


Hours

Elastic waves in one dimensional array of identical atoms 02

Vibrational modes of a diatomic linear lattice and dispersion relations 02

Acoustic and Optical modes, 01

Infrared absorption in ionic crystals 01

Phonons and verification of dispersion relation in crystal lattices 01

Lattice heat capacity- Einstein and Debye theories 02

Lattice thermal conductivity – Phonon mean free path 02

Origin of thermal expansion and Gruneisen relation 02

UNIT – III : Band Theory and Semiconductor Physics No. of Hours Allotted: 13


Hours

Failure of Free electron theory of metals 01

Bloch theorem 01

Behavior of electron in periodic potentials 01

Kronig- Penny model 01

E vs K relation 01

Density of states in a band 01

Effective mass of electron 01

Negative effective mass and concept of hole 01

Distinction between metals, Semiconductors and Insulators 01

Intrinsic semiconductors 01

Fermi level 01

Expressions for electron and hole concentrations in intrinsic

and extrinsic semiconductors

01

Hall effect in semiconductors 01

UNIT – IV : Crystal Growth and Imperfections No. of Hours Allotted: 13


Hours

Crystal growth from solution and melt growth from vapour phase 01

Experimental techniques of growth from melt 02

Classification of imperfections 01

Schottky and Frenkel defects expression for their equilibrium

concentrations in metals and ionic crystals

02

Colour centers and their models 01

Diffucion mechanisms Fick’s laws of diffusion, Kirkendall effect 02

Ionic conductivity 01

Dislocations- Edge and Screw dislocations 01

Dislocation multiplication 01

Grain boundaries 01

Name of the Teacher: Dr. P. Hima Bindu Head, Department of Physics



LESSON PLAN FOR THE ACADEMIC YEARS 2013-2018 (Semester II)

Class: M.Sc Previous Section:

Course/ Paper: I Electromagnetic Theory

Unit: I Electro-Static Potentials and Maxwell’s Field Equations :

No. of Hours Allotted: 13


Hours

Special techniques for calculating electrostatic potential : Poisson’s and

Laplace’s equations

02

Solutions of Laplace’s equations for electrostatic potential in Cartesian,

spherical and cylindrical coordinates

03

Multipole expansion of the energy of a system of charges in an electrostatic

field

01

The scalar and vector magnetic potentials 01

Derivation of Maxwell’s equations 01

General wave equation 01

Gauge transformations-Lorentz and Coulomb gauges 01

Momentum, angular momentum and free energies of electromagnetic field 02

Poynting Theorem (work energy theorem in electrodynamics) 01

Unit: II Propagation of Plane Electromagnetic Waves: No. of Hours Allotted: 13


Hours

Electromagnetic (EM) waves in unbounded media 02

EM wave equation for a homogeneous isotropic dielectric medium 02

Propagation of plan EM waves in free space 02

Propagation of EM waves in homogeneous isotropic dielectric

medium

01

Energy transmitted by a plane EM wave 01

Propagation of EM wave in conducing medium 02

Attenuation and Skin effect 01

Energy transmitted –Polarization of EM wave 02

Unit: III Interaction of Electromagnetic Waves with Matter : No. of Hours Allotted: 13


Hours

Propagation of EM waves in bounded media 01

Boundary conditions for E, D, B and H 02

Reflection and Refraction of plane 02

EM waves at plane interface between two dielectrics

Laws of reflection and refraction- Fresnel’s relations 02

Reflection (R) and Transmission( T) coefficients 01

Brewester’s angle- Total internal reflection 01

Reflection and Refraction of plane EM waves at plane interface

between non-conducing and conducting medium

02

Metallic reflection and its applications 01

Dispersion in non-conductors –Normal and anomalous dispersion 01

Unit: IV Electromagnetic Fields and Radiating Systems: No. of Hours Allotted: 13


Hours

Electromagnetic radiation: Inhomogeneous wave equation for potentials 02

Retarded potentials 01

Multi-pole expansion of EM radiation for harmonically oscillating source 01

Long wavelength approximation 02

Oscillating electric dipole radiation 01

Oscillating magnetic dipole radiation 01

Radiation from centerfed linear antenna 01

Radiation from accelerated charges 01

Lienard-Wiechert potentials 02

Electromagnetic field of a charge in arbitrary motion 01

Name of the Teacher: Dr. P. Hima Bindu Head, Department of Physics


nizam college: department of physics · lesson plan for the academic year 2017-2018 (semester ii)...

Documents