1) Title of the course: Second Year B.Sc. Computer Science : Electronics
2) Introduction :
The syllabus at S.Y.B.Sc.(Computer Science) contains proper blend
of core theoretical concepts of Microprocessor Architecture and assembly language
programming , with introduction to microcontrollers , principles of communication
systems and applications in the fields like embedded systems and digital signal
processing. Semester Pattern is followed at S.Y.B.Sc. Electronic Science. Student
taking admission to S.Y.B.Sc.(Computer Science ) have to complete 4 theory courses
two each semester and one practical course (Annual) in subject Electronics. In the
theory courses adequate knowledge of Microprocessor Architecture and
Programming, Communications Principles, 8051 Microcontroller and embedded
systems and Digital Signal Processing. In the practical course of 100 marks there are
compulsory experiments along with the activities to be done. There are two types of
activities – One by the student by his own area of interest and other to be organised by
the teacher such that it will enhance the practical quality skills of the students.
3) Aims and Objectives :
The aim of the course is to generate the manpower with adequate theory
knowledge of the Microprocessor and microcontroller, Assembly Language,
communication principles, embedded system and Digital signal processing. The
advanced topics like Digital Signal Processing and 8051 Microcontroller along
with embedded system will open doors for the students to work in recent modern
development environment of electronics in the world.
Following are the objectives –
i) To design the syllabus with specific focus on key Learning Areas.
ii) To equip student with necessary fundamental concepts and knowledge base.
iii) To develop specific practical skills.
iv) To develop specialists in hardware-software co-design for application specific
electronic system.
v) To prepare students for demonstrating the acquired knowledge.
vi) To encourage student to develop skills for accepting challenges of upcoming
technological advancements.
These objectives can be achieved by implementing this syllabus at the second year
B.Sc. Computer Science in the subject Electronics.
4) Eligibility: First Year B.Sc. Computer Science Pass / ATKT .
2
5) Examination –
A) Pattern of Examination :
i) Semester and Practical
Theory Papers - Two Theory papers of 50 marks per semester
(Internal examination 10 +
Semester Examination 40, Total 50)
Practical - At the end of year 100 marks Examination.
(Internal examination 20 +
Semester Examination 80, Total 100)
ii) Pattern of the question Paper:
The pattern adopted for theory and practical examination is as below.
Theory: The topic wise weightage is decided as per lecture allotted
to cover the syllabus for the topics. The Internal option is also
taken into consideration in the process. Equal weightage is given
for each topic, and none of the topic can be put up as option by
the student for examination.
Internal Examination 10 Marks
Four types of questions – Objective, Fill in the blanks, True or
False and One sentence answer.
There are two or three different sets of the question papers used
for internal examination in the same class for same paper.
It is continues evaluation process and is executed by the teacher
conducting the course.
External Examination 40 Marks
Pattern is as follows-
Q.1 Answer any all of the following : 10 marks
Compulsory no internal option , contains one mark.
Q.2 Answer any TWO. : 10 marks
Three questions are given, each having 5 marks, any two
are to be solved.
Q.3 Answer any TWO. : 10 marks
Three questions are given, each having 5 marks, any two
are to be solved.
Q.4 Answer any ONE. : 10 marks
Two questions are given solve any one is to be solved for 10
marks.
OR
Split the 10 mark question with proper weightage for the topics
Practical : Internal Marks 20 : Continuous assessment
External Examination 80 Marks. –
Have to perform 2 experiments of 40 marks of the duration 3 hours
each. (Practical Examination is scheduled in two sessions.)
B) Standard of passing: Candidate must score 40% marks at the semester
examination in each course.
i.e. 16 marks at semester theory paper
32 marks at the practical course
There is no separate passing for internal course ,
however the total marks of internal and external
should cross 40% of the total marks to be awarded
for the paper.
3
C) ATKT Rules: As per University statues
D) Award of Class: It will as per University rules as –
Above 70% First class with distinction
Between 60% to 70% First Class
Between 50% to 60% Second Class
From 40% to 50 % Pass class.
E) External Students: Not applicable for this course. External Students are not
admitted for the course.
F) Setting of Questions paper/ Pattern of Question paper:
Setting of the question paper is as per University Schedule and it is
centralized system adopted by University of Pune. Pattern of question paper will
be as per decided by Board of Electronic Science, University of Pune.
G) Verification of Revaluation: As per University Statues and rules for
verification and revaluation of marks in stipulated time after declaration of the
semester examination result.
6) Structure of the course :
i)
a) Compulsory Paper : Four theory papers
b) Optional Paper : Nil
c) Question paper : Theory -
For Internal Examination 10 Marks
For Semester Examination 40 Marks
Practical
For Internal Examination 20 Marks
For Semester Examination 80 Marks
ii) Medium and Instructions: ENGLISH
7) Equivalence subject/Paper and Transitory Provision:
Semester OLD Syllabus New Syllabus
Semester
I
ELC 211 Computer Organisation Microprocessor Architecture And
Programming
ELC 212 Process Control Instrumentation Communications Principles
Semester
II
ELC 221 Microprocessors 8051 Microcontroller and Embedded systems
ELC 222 Communication Principles Digital Signal Processing
8) University Terms: More than 75% attendance is necessary for the course as per
University statues.
16 Weeks will be available for completion of theory course.
Practical course will be throughout the year.
9) Subject wise Detail Syllabus and Recommended books:
4
S.Y.B.Sc. Computer Science Semester I
Electronics: Paper- I MICROPROCESSOR ARCITECTURE AND
PROGRAMMING
1) Computer Organization [12]
CPU organisation: Different registers organisation
Memory organisation: cache mapping, memory management (Segmentation,
paging), memory mapping.
I / O organisation: I / O interface, DMA concept, Serial bus interface (RS 232,
USB), Parallel port, PCI bus, PCMCIA bus
2) Introduction to microprocessor [8]
Features of Pentium based microprocessors (Data bus, Address bus, Speed,
Addressable memory capacity, cache memory, Number of instructions
executed parallely)
Pentium microprocessor architecture
General purpose, Special purpose Registers of Pentium microprocessor
Real mode and protected mode addressing
3) Pentium Processor [12]
Pentium addressing mode
Instruction set of Pentium
Interrupt processing in Pentium: classification of interrupt, Interrupt handler,
Interrupt vector table, multiple interrupt processing, DOS INT 21H, Interrupt
function codes
4) Assembly programming [16]
Introduction to assembler (NASM), Assembly directives, introduction to
Programming (Flow chart, Algorithm, program), Assembly programmes of
Addition, subtraction, multiplication, division, code conversion, Array processing
(Finding largest-smallest number, arranging elements in ascending – descending
order), I/O related programming (Reading of key from keyboard, displaying string,
displaying graphic character), software device driver.
Recommended Books:
1 Morris Mano Computer System Architecture( 3rd Edition) PHP
2 Berry B. Brey & C.R.
Sarms
The Intel Microprocessors Pearson
Education
3 James Antonakos Pentium Microprocessors Pearson
Education
4 Michel Meyers Managing and troubleshooting PC
5 William Stalling Computer Organisation and Architecture (2002) PHI
6 Ron White How computer Works(4th Edition) Techmedia
Publication
7 Scott Mueller Upgrading and repairing PC’s ( 10th Edition)
8 Stephen J. Bigelow Troubleshooting, Maintaining and repairing PC’s
( 5th Edition)
TMH
9 Peter Abel Assembly Language Programing PHP
5
S.Y.B.Sc. Computer Science Semester I
Electronics: Paper- II Communications Principles
1. Introduction to Electronic Communication [10]
Importance of Communication, Elements of Communication system, Electromagnetic
spectrum, types of communication, Concepts of communication system: channel
bandwidth, Nyquist theorem, S/N ratio, channel capacity, error handling, Shannon
theorem, companding, Data rate, baud rate ,serial communication and protocol.
2. Modulation and Demodulation [10]
Basics of modulation and Demodulation Introduction to Modulation techniques:
Analog (Amplitude, Phase, Frequency modulation), Digital modulation, PAM,
PCM, delta modulation, MODEM - concept of ASK, FSK, QPSK, MSK,
GMSK, 16 QAM
3. Multiplexing and Multiple Access Techniques [10]
Space division multiplexing ,Time division multiplexing , Frequency Division
Multiplexing , Code division multiplexing , Introduction to multiple access ,FDMA
,TDMA , Spread spectrum multiple access : Frequency Hopped Multiple access ,
CDMA, Hybrid spread spectrum techniques , SDMA.
4. Introduction to wireless Communication [08]
Introduction to antennas, Parameters of antenna, multielement antennas (arrays),
multidirectional and omni directional antenna, microstrip antenna ,Concept of wireless
communication
Comparison of wired and wireless communication, Wireless communication
architecture, Ad-hoc networks, Protocols – listing and details of RFID.
5. Mobile communication [10]
Introduction to mobile communication, Cellular concept, Working of GSM: Hand
over, RTS-CTS protocol, Introduction to GPRS, IR transmission, blue tooth
Applications: SMS , EMS ,MMS
Recommended Books:
1 Micheal A . Miller Digital and Data Communication ,4th edition Jaico Pub.
House
2 Thiagarajan
Vishwanathan
Telecommunication switching system and
networks
PTH
3 Frenezel Louis E. Communication Electronics TMH
4 Rappaport Wireless Communication, 2nd edition PHI
5 Schiller Jochen Mobile Communication Pearson
6 Stern and Mahmoud Communication systems : analysis and design Pearson
7 Yi-Bang LIN Wireless & Mobile Network Architectures Wiley India
8 Imrich Chal amtac Wireless Communication Technology Roy Blake
6
S. Y. B. Sc. Computer Science Semester II
Electronics : Paper- I 8051 Microcontroller and Embedded systems
1. 8051 microcontroller block diagram, (12)
(Registers, Flags, PSW, PC, Input/Output Pins, Ports, Internal memory,
External memory Oscillator & Clock, counters and Timers, Serial Data IO
Transfer, Interrupts)
Instruction set (To be covered quickly with no questions directed to
wards syntax of Instructions)
2. I/O port programming: sensor and indicators interface (06)
8051 I/O programming, I/O bit manipulation programming.
3. Timer and counter programming (06)
Programming 8051 timers, counter programming, programming
timers 0 and 1 in 8051 C.
4. Serial port programming with and without interrupt (06)
8051 interrupts, programming timer interrupts, programming external
hardware interrupts, o/programming the serial communication interrupt,
interrupt priority in the 8051
5. Real world interfacing: (06)
Parallel and serial ADC, DAC interfacing, LCD interfacing
6. Embedded systems: (12)
Definition, examples, classification – w.r.t. size and real time requirements,
software tools required for development – cross assemblers, cross compilers,
locators, loaders, simulators, emulators
Recommended Books:
1 Muhammad Ali Mazidi,
Janice Gillispie Mazidi,
Rolin D. Mckinlay
“The 8051 microcontroller and Embedded
systems using Assembly and C”, Second Edition
Pearson
2 KENNETH AYALA,
DELMAR CENGAGE
FEARNING
“The 8051 Microcontroller Architecture
,Programming & Applications” , Third Edition
TMH
3 Michael Barr and
Anthony Massa
“Programming Embedded systems with 'C' and
GNU development tools” Second Edition
Shroff
Publishers
4 Myke Predko Programming and customizing the 8051
microcontroller
TMH
5 RajKamal Embedded systems Architecture, Programming
and Design
TMH
7
S. Y. B. Sc. Computer Science Semester II
Electronics : Paper- II Digital Signal Processing
1: Electronic Signals and Systems (12)
Basics: Concept of signal and signal processing, Block diagram representation of a
DSP system Analog to Digital conversion of signals classification of signals,
concept of sampling of CT signals, presentation of DT signal .
Fourier Transform: Fourier Transform, Concept of Amplitude and phase spectrum
of CT signals, Discrete Time Signals, Discrete Fourier Transform, Inverse
DFT, Fast Fourier Transform.
Concept of convolution and co-relation
Concept of transfer function of DT system, Impulse response, Time
and frequency domain analysis of DT system using transfer function,
concept of realization of transfer function.
2: Time and Frequency Domain analysis of DT signals (12)
Laplace Transform: Definition, Inverse Laplace transform, Properties of LT,
Applications in t-domain, s-domain signal analysis.
Z-transform: Definition, Inverse Z-transform, difference equation and its solution
Digital Filters: Concept, Impulse Invariant and BLT method for designing of DT
filters, IIR and FIR filters, brief introduction of window technique for
DT filters
3: Digital Signal Processor (12)
. Digital signal processor Architecture, Multiplier and Accumulators, ALU and
Barrel shifter, Memory and Cache, Registers, Buses, peripheral interfaces.
4: Applications of DSP: (12)
Practical A/D and D/A converters : Important parameters .
Audio signal processing in detail, summary of the DSP applications for the -
Filtering, Modulation, demodulation, Motion control and positioning,
seismography, Radar, Sonar, noise reduction and echo cancellation, speech
recognition, interference rejection, image processing.
Recommended Books:
1 S. Salivahan, A. Valuraj,
C.Gnanapriya
Digital Signal Processing , 2006 Edition TMH
2 Charles Schuller, Mahesh
Chugani
Digital Signal Processing: A Hands on
Approach , 2006 Edition
TMH
3 John G Proakis, Dimitris G
Monolkis
Digital Signal Processing: - Principles,
Algorithms and Applications
Pearson
4 Steven W.Smith, Newnes Digital Signal Processing- A practical Guide
for Engineers and Scientists
Elsevier
5 Palan N.G. Computer Algorithms in Signal Processing Technova
6 Haykin Simon , Veenvan
Barry
Signals and Sysytems John
Wiley
7 Bhat P.V. Network Analysis and Synthesis Technova
8 John Prokis DSP using MATLAB Pearson
8
S.Y.B.Sc. Computer Science
Electronics : Practical Course
· Total Experiments to be performed 20.
· 16 experiments compulsory: At least four practical from each of the ABCD groups.
· One activity Equivalent to 2 practical.
Continuation of F. Y. activity.
PSPICE Simulation or equivalent
Documentation type experiments
Presentation/Seminar on Electronics /advanced topic/research topics.
· Two activities to be organised by the teacher, (equivalent to two experiments) like
arranging experts lecture, demonstrations, skill development demonstration, basics of
electronics essential for B.Sc. Computer student.
· Both the activities will be examined at annual examination.
Practical Examination –
A ) Internal Marks 20 : 16 Marks
as usual for 16 marks for experiments and 04 marks for activities
B) Annual examination : 80 Marks in two session of 3 Hours as usual practice.
Session I 40 marks
Practical work 32 marks
Oral based on the student’s own activities 8 marks
Session II 40 marks
Practical work 32 marks
Oral based on Common activities arranged by teachers 8 marks
32 Marks can be divided as - Circuit diagram 05
Connection 05
Demonstration and working explanation 10
Result 05
Result analysis / conclusion / comments 02
9
LIST OF PRACTICALS :
Group “A” Microprocessor based experiments:
1. Interfacing of keyboard and comparing two strings. (One string is in the program and
other string read from keyboard.)
2. Read the strings through the keyboard. Arranging strings in ascending and descending
order.
3. Code conversion (Decimal to hex, hex to decimal, decimal to binary, binary to
decimal by hex dabble and double dabble method.)
4. Finding largest and smallest of a number in an array.
5. Finding roots of quadratic equation and finding factorial of a number.
6. Define cursor position and display character string using different font size and
colour.
7. Read and display printer status.
8. Interfacing seven-segment display through parallel port of Pentium motherboard.
9. Interfacing stepper motor to parallel port of Pentium motherboard.
Requirement for Microprocessor based experiments:
1. NASMW/ NASM 32
2. NASM IDE
Group “B” Micro controller based Experiments:
1. Arithmetic and logical problems – String addition, Largest/Smallest number in string,
hex to decimal conversion and vice versa.
2. Frequency generation using 8051 micro controller.
3. To design and test rolling display using 8051 micro controller.
4. To design and test traffic light control system using 8051 micro controller.
5. To design and test thumb wheel switch and SSD 8051 interfacing with
microcontroller.
6. Interfacing D.C. motor and speed control using PWM.
7. To study waveform generator (square, triangular and saw tooth using DAC) with
microcontroller.
8. Write a program for interfacing LCD with microcontroller.
9. Write a program to generate even/odd parity and check the parity of a number.
Requirement for Micro controller based Experiments:
1. IDE 8051 (Assembler)
2. ISP programmer
3. 89S51/52
4. Target board (PCB).
Group “C” Communication
1. Build and test FSK Modulation / Demodulation.
2. Build and test TDM.
3. Build and test Hamming code for error detection and correction.
4. Study of PN sequence generator for Spread Spectrum communication.
5. Study of Radiation pattern of an antenna.
6. Demonstration of working of Wi-fi card.
7. Demonstration Experiment on RFID application.
10
Group “D” Digital Signal Processing
1) Study of Fourier Analysis of Different Wave shapes.
2) Synthesis of Waveforms using multiple sine waves.
3) Study of Sampling theorem, Aliasing and it’s effect.
4) Study of transfer function and convolution principles.
5) Study of FIR and IIR Digital filters.
6) Study of windowing techniques for filters.
7) Study of AM modulation and demodulation.
8) Study of FSK and ASK modulation and demodulation.
9) Demonstration experiment on image processing and compression.
10) Demonstration experiment on sound processing and compression.
----------------------------------------------------------------------------------------------------------------
2) Introduction :
The syllabus at S.Y.B.Sc.(Computer Science) contains proper blend
of core theoretical concepts of Microprocessor Architecture and assembly language
programming , with introduction to microcontrollers , principles of communication
systems and applications in the fields like embedded systems and digital signal
processing. Semester Pattern is followed at S.Y.B.Sc. Electronic Science. Student
taking admission to S.Y.B.Sc.(Computer Science ) have to complete 4 theory courses
two each semester and one practical course (Annual) in subject Electronics. In the
theory courses adequate knowledge of Microprocessor Architecture and
Programming, Communications Principles, 8051 Microcontroller and embedded
systems and Digital Signal Processing. In the practical course of 100 marks there are
compulsory experiments along with the activities to be done. There are two types of
activities – One by the student by his own area of interest and other to be organised by
the teacher such that it will enhance the practical quality skills of the students.
3) Aims and Objectives :
The aim of the course is to generate the manpower with adequate theory
knowledge of the Microprocessor and microcontroller, Assembly Language,
communication principles, embedded system and Digital signal processing. The
advanced topics like Digital Signal Processing and 8051 Microcontroller along
with embedded system will open doors for the students to work in recent modern
development environment of electronics in the world.
Following are the objectives –
i) To design the syllabus with specific focus on key Learning Areas.
ii) To equip student with necessary fundamental concepts and knowledge base.
iii) To develop specific practical skills.
iv) To develop specialists in hardware-software co-design for application specific
electronic system.
v) To prepare students for demonstrating the acquired knowledge.
vi) To encourage student to develop skills for accepting challenges of upcoming
technological advancements.
These objectives can be achieved by implementing this syllabus at the second year
B.Sc. Computer Science in the subject Electronics.
4) Eligibility: First Year B.Sc. Computer Science Pass / ATKT .
2
5) Examination –
A) Pattern of Examination :
i) Semester and Practical
Theory Papers - Two Theory papers of 50 marks per semester
(Internal examination 10 +
Semester Examination 40, Total 50)
Practical - At the end of year 100 marks Examination.
(Internal examination 20 +
Semester Examination 80, Total 100)
ii) Pattern of the question Paper:
The pattern adopted for theory and practical examination is as below.
Theory: The topic wise weightage is decided as per lecture allotted
to cover the syllabus for the topics. The Internal option is also
taken into consideration in the process. Equal weightage is given
for each topic, and none of the topic can be put up as option by
the student for examination.
Internal Examination 10 Marks
Four types of questions – Objective, Fill in the blanks, True or
False and One sentence answer.
There are two or three different sets of the question papers used
for internal examination in the same class for same paper.
It is continues evaluation process and is executed by the teacher
conducting the course.
External Examination 40 Marks
Pattern is as follows-
Q.1 Answer any all of the following : 10 marks
Compulsory no internal option , contains one mark.
Q.2 Answer any TWO. : 10 marks
Three questions are given, each having 5 marks, any two
are to be solved.
Q.3 Answer any TWO. : 10 marks
Three questions are given, each having 5 marks, any two
are to be solved.
Q.4 Answer any ONE. : 10 marks
Two questions are given solve any one is to be solved for 10
marks.
OR
Split the 10 mark question with proper weightage for the topics
Practical : Internal Marks 20 : Continuous assessment
External Examination 80 Marks. –
Have to perform 2 experiments of 40 marks of the duration 3 hours
each. (Practical Examination is scheduled in two sessions.)
B) Standard of passing: Candidate must score 40% marks at the semester
examination in each course.
i.e. 16 marks at semester theory paper
32 marks at the practical course
There is no separate passing for internal course ,
however the total marks of internal and external
should cross 40% of the total marks to be awarded
for the paper.
3
C) ATKT Rules: As per University statues
D) Award of Class: It will as per University rules as –
Above 70% First class with distinction
Between 60% to 70% First Class
Between 50% to 60% Second Class
From 40% to 50 % Pass class.
E) External Students: Not applicable for this course. External Students are not
admitted for the course.
F) Setting of Questions paper/ Pattern of Question paper:
Setting of the question paper is as per University Schedule and it is
centralized system adopted by University of Pune. Pattern of question paper will
be as per decided by Board of Electronic Science, University of Pune.
G) Verification of Revaluation: As per University Statues and rules for
verification and revaluation of marks in stipulated time after declaration of the
semester examination result.
6) Structure of the course :
i)
a) Compulsory Paper : Four theory papers
b) Optional Paper : Nil
c) Question paper : Theory -
For Internal Examination 10 Marks
For Semester Examination 40 Marks
Practical
For Internal Examination 20 Marks
For Semester Examination 80 Marks
ii) Medium and Instructions: ENGLISH
7) Equivalence subject/Paper and Transitory Provision:
Semester OLD Syllabus New Syllabus
Semester
I
ELC 211 Computer Organisation Microprocessor Architecture And
Programming
ELC 212 Process Control Instrumentation Communications Principles
Semester
II
ELC 221 Microprocessors 8051 Microcontroller and Embedded systems
ELC 222 Communication Principles Digital Signal Processing
8) University Terms: More than 75% attendance is necessary for the course as per
University statues.
16 Weeks will be available for completion of theory course.
Practical course will be throughout the year.
9) Subject wise Detail Syllabus and Recommended books:
4
S.Y.B.Sc. Computer Science Semester I
Electronics: Paper- I MICROPROCESSOR ARCITECTURE AND
PROGRAMMING
1) Computer Organization [12]
CPU organisation: Different registers organisation
Memory organisation: cache mapping, memory management (Segmentation,
paging), memory mapping.
I / O organisation: I / O interface, DMA concept, Serial bus interface (RS 232,
USB), Parallel port, PCI bus, PCMCIA bus
2) Introduction to microprocessor [8]
Features of Pentium based microprocessors (Data bus, Address bus, Speed,
Addressable memory capacity, cache memory, Number of instructions
executed parallely)
Pentium microprocessor architecture
General purpose, Special purpose Registers of Pentium microprocessor
Real mode and protected mode addressing
3) Pentium Processor [12]
Pentium addressing mode
Instruction set of Pentium
Interrupt processing in Pentium: classification of interrupt, Interrupt handler,
Interrupt vector table, multiple interrupt processing, DOS INT 21H, Interrupt
function codes
4) Assembly programming [16]
Introduction to assembler (NASM), Assembly directives, introduction to
Programming (Flow chart, Algorithm, program), Assembly programmes of
Addition, subtraction, multiplication, division, code conversion, Array processing
(Finding largest-smallest number, arranging elements in ascending – descending
order), I/O related programming (Reading of key from keyboard, displaying string,
displaying graphic character), software device driver.
Recommended Books:
1 Morris Mano Computer System Architecture( 3rd Edition) PHP
2 Berry B. Brey & C.R.
Sarms
The Intel Microprocessors Pearson
Education
3 James Antonakos Pentium Microprocessors Pearson
Education
4 Michel Meyers Managing and troubleshooting PC
5 William Stalling Computer Organisation and Architecture (2002) PHI
6 Ron White How computer Works(4th Edition) Techmedia
Publication
7 Scott Mueller Upgrading and repairing PC’s ( 10th Edition)
8 Stephen J. Bigelow Troubleshooting, Maintaining and repairing PC’s
( 5th Edition)
TMH
9 Peter Abel Assembly Language Programing PHP
5
S.Y.B.Sc. Computer Science Semester I
Electronics: Paper- II Communications Principles
1. Introduction to Electronic Communication [10]
Importance of Communication, Elements of Communication system, Electromagnetic
spectrum, types of communication, Concepts of communication system: channel
bandwidth, Nyquist theorem, S/N ratio, channel capacity, error handling, Shannon
theorem, companding, Data rate, baud rate ,serial communication and protocol.
2. Modulation and Demodulation [10]
Basics of modulation and Demodulation Introduction to Modulation techniques:
Analog (Amplitude, Phase, Frequency modulation), Digital modulation, PAM,
PCM, delta modulation, MODEM - concept of ASK, FSK, QPSK, MSK,
GMSK, 16 QAM
3. Multiplexing and Multiple Access Techniques [10]
Space division multiplexing ,Time division multiplexing , Frequency Division
Multiplexing , Code division multiplexing , Introduction to multiple access ,FDMA
,TDMA , Spread spectrum multiple access : Frequency Hopped Multiple access ,
CDMA, Hybrid spread spectrum techniques , SDMA.
4. Introduction to wireless Communication [08]
Introduction to antennas, Parameters of antenna, multielement antennas (arrays),
multidirectional and omni directional antenna, microstrip antenna ,Concept of wireless
communication
Comparison of wired and wireless communication, Wireless communication
architecture, Ad-hoc networks, Protocols – listing and details of RFID.
5. Mobile communication [10]
Introduction to mobile communication, Cellular concept, Working of GSM: Hand
over, RTS-CTS protocol, Introduction to GPRS, IR transmission, blue tooth
Applications: SMS , EMS ,MMS
Recommended Books:
1 Micheal A . Miller Digital and Data Communication ,4th edition Jaico Pub.
House
2 Thiagarajan
Vishwanathan
Telecommunication switching system and
networks
PTH
3 Frenezel Louis E. Communication Electronics TMH
4 Rappaport Wireless Communication, 2nd edition PHI
5 Schiller Jochen Mobile Communication Pearson
6 Stern and Mahmoud Communication systems : analysis and design Pearson
7 Yi-Bang LIN Wireless & Mobile Network Architectures Wiley India
8 Imrich Chal amtac Wireless Communication Technology Roy Blake
6
S. Y. B. Sc. Computer Science Semester II
Electronics : Paper- I 8051 Microcontroller and Embedded systems
1. 8051 microcontroller block diagram, (12)
(Registers, Flags, PSW, PC, Input/Output Pins, Ports, Internal memory,
External memory Oscillator & Clock, counters and Timers, Serial Data IO
Transfer, Interrupts)
Instruction set (To be covered quickly with no questions directed to
wards syntax of Instructions)
2. I/O port programming: sensor and indicators interface (06)
8051 I/O programming, I/O bit manipulation programming.
3. Timer and counter programming (06)
Programming 8051 timers, counter programming, programming
timers 0 and 1 in 8051 C.
4. Serial port programming with and without interrupt (06)
8051 interrupts, programming timer interrupts, programming external
hardware interrupts, o/programming the serial communication interrupt,
interrupt priority in the 8051
5. Real world interfacing: (06)
Parallel and serial ADC, DAC interfacing, LCD interfacing
6. Embedded systems: (12)
Definition, examples, classification – w.r.t. size and real time requirements,
software tools required for development – cross assemblers, cross compilers,
locators, loaders, simulators, emulators
Recommended Books:
1 Muhammad Ali Mazidi,
Janice Gillispie Mazidi,
Rolin D. Mckinlay
“The 8051 microcontroller and Embedded
systems using Assembly and C”, Second Edition
Pearson
2 KENNETH AYALA,
DELMAR CENGAGE
FEARNING
“The 8051 Microcontroller Architecture
,Programming & Applications” , Third Edition
TMH
3 Michael Barr and
Anthony Massa
“Programming Embedded systems with 'C' and
GNU development tools” Second Edition
Shroff
Publishers
4 Myke Predko Programming and customizing the 8051
microcontroller
TMH
5 RajKamal Embedded systems Architecture, Programming
and Design
TMH
7
S. Y. B. Sc. Computer Science Semester II
Electronics : Paper- II Digital Signal Processing
1: Electronic Signals and Systems (12)
Basics: Concept of signal and signal processing, Block diagram representation of a
DSP system Analog to Digital conversion of signals classification of signals,
concept of sampling of CT signals, presentation of DT signal .
Fourier Transform: Fourier Transform, Concept of Amplitude and phase spectrum
of CT signals, Discrete Time Signals, Discrete Fourier Transform, Inverse
DFT, Fast Fourier Transform.
Concept of convolution and co-relation
Concept of transfer function of DT system, Impulse response, Time
and frequency domain analysis of DT system using transfer function,
concept of realization of transfer function.
2: Time and Frequency Domain analysis of DT signals (12)
Laplace Transform: Definition, Inverse Laplace transform, Properties of LT,
Applications in t-domain, s-domain signal analysis.
Z-transform: Definition, Inverse Z-transform, difference equation and its solution
Digital Filters: Concept, Impulse Invariant and BLT method for designing of DT
filters, IIR and FIR filters, brief introduction of window technique for
DT filters
3: Digital Signal Processor (12)
. Digital signal processor Architecture, Multiplier and Accumulators, ALU and
Barrel shifter, Memory and Cache, Registers, Buses, peripheral interfaces.
4: Applications of DSP: (12)
Practical A/D and D/A converters : Important parameters .
Audio signal processing in detail, summary of the DSP applications for the -
Filtering, Modulation, demodulation, Motion control and positioning,
seismography, Radar, Sonar, noise reduction and echo cancellation, speech
recognition, interference rejection, image processing.
Recommended Books:
1 S. Salivahan, A. Valuraj,
C.Gnanapriya
Digital Signal Processing , 2006 Edition TMH
2 Charles Schuller, Mahesh
Chugani
Digital Signal Processing: A Hands on
Approach , 2006 Edition
TMH
3 John G Proakis, Dimitris G
Monolkis
Digital Signal Processing: - Principles,
Algorithms and Applications
Pearson
4 Steven W.Smith, Newnes Digital Signal Processing- A practical Guide
for Engineers and Scientists
Elsevier
5 Palan N.G. Computer Algorithms in Signal Processing Technova
6 Haykin Simon , Veenvan
Barry
Signals and Sysytems John
Wiley
7 Bhat P.V. Network Analysis and Synthesis Technova
8 John Prokis DSP using MATLAB Pearson
8
S.Y.B.Sc. Computer Science
Electronics : Practical Course
· Total Experiments to be performed 20.
· 16 experiments compulsory: At least four practical from each of the ABCD groups.
· One activity Equivalent to 2 practical.
Continuation of F. Y. activity.
PSPICE Simulation or equivalent
Documentation type experiments
Presentation/Seminar on Electronics /advanced topic/research topics.
· Two activities to be organised by the teacher, (equivalent to two experiments) like
arranging experts lecture, demonstrations, skill development demonstration, basics of
electronics essential for B.Sc. Computer student.
· Both the activities will be examined at annual examination.
Practical Examination –
A ) Internal Marks 20 : 16 Marks
as usual for 16 marks for experiments and 04 marks for activities
B) Annual examination : 80 Marks in two session of 3 Hours as usual practice.
Session I 40 marks
Practical work 32 marks
Oral based on the student’s own activities 8 marks
Session II 40 marks
Practical work 32 marks
Oral based on Common activities arranged by teachers 8 marks
32 Marks can be divided as - Circuit diagram 05
Connection 05
Demonstration and working explanation 10
Result 05
Result analysis / conclusion / comments 02
9
LIST OF PRACTICALS :
Group “A” Microprocessor based experiments:
1. Interfacing of keyboard and comparing two strings. (One string is in the program and
other string read from keyboard.)
2. Read the strings through the keyboard. Arranging strings in ascending and descending
order.
3. Code conversion (Decimal to hex, hex to decimal, decimal to binary, binary to
decimal by hex dabble and double dabble method.)
4. Finding largest and smallest of a number in an array.
5. Finding roots of quadratic equation and finding factorial of a number.
6. Define cursor position and display character string using different font size and
colour.
7. Read and display printer status.
8. Interfacing seven-segment display through parallel port of Pentium motherboard.
9. Interfacing stepper motor to parallel port of Pentium motherboard.
Requirement for Microprocessor based experiments:
1. NASMW/ NASM 32
2. NASM IDE
Group “B” Micro controller based Experiments:
1. Arithmetic and logical problems – String addition, Largest/Smallest number in string,
hex to decimal conversion and vice versa.
2. Frequency generation using 8051 micro controller.
3. To design and test rolling display using 8051 micro controller.
4. To design and test traffic light control system using 8051 micro controller.
5. To design and test thumb wheel switch and SSD 8051 interfacing with
microcontroller.
6. Interfacing D.C. motor and speed control using PWM.
7. To study waveform generator (square, triangular and saw tooth using DAC) with
microcontroller.
8. Write a program for interfacing LCD with microcontroller.
9. Write a program to generate even/odd parity and check the parity of a number.
Requirement for Micro controller based Experiments:
1. IDE 8051 (Assembler)
2. ISP programmer
3. 89S51/52
4. Target board (PCB).
Group “C” Communication
1. Build and test FSK Modulation / Demodulation.
2. Build and test TDM.
3. Build and test Hamming code for error detection and correction.
4. Study of PN sequence generator for Spread Spectrum communication.
5. Study of Radiation pattern of an antenna.
6. Demonstration of working of Wi-fi card.
7. Demonstration Experiment on RFID application.
10
Group “D” Digital Signal Processing
1) Study of Fourier Analysis of Different Wave shapes.
2) Synthesis of Waveforms using multiple sine waves.
3) Study of Sampling theorem, Aliasing and it’s effect.
4) Study of transfer function and convolution principles.
5) Study of FIR and IIR Digital filters.
6) Study of windowing techniques for filters.
7) Study of AM modulation and demodulation.
8) Study of FSK and ASK modulation and demodulation.
9) Demonstration experiment on image processing and compression.
10) Demonstration experiment on sound processing and compression.
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