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V3101 ADVANCED DIGITAL SYSTEM DESIGN

Unit 1

MSI and LSI circuits and their applications:1.

Arithmetic circuits,

2.

comparators,3. Multiplexers,4.

Code Converters,

5.

XOR & AOI Gates,

6.

Design of sequential systems with small number of standard modules,

7. State register Counters with combinational networks Multimodule

8. RAM with combinational networks9.

Multimodule implementation of sequential systems

10.

Multimodule registers11.

Multimodule counters

Unit 2

Sequential Circuit Design:

12.Clocked Synchronous State Machine Analysis,

13.Mealy machines

14.

Moore machines,

15.

Finite State Machine design procedure

16.

derive state diagrams

17.

state tables,

18.state reduction methods,

19.state assignments.

20.

Incompletely specified state machines.

21.

Implementing the states of FSM.

Unit 3

Asynchronous sequential circuits:

22.

Analysis,

23.Derivation of excitation table,

24.

Flow table reduction,

25.

state assignment,

26.

transition table ,

27.

design of asynchronous Sequential circuits,

28.

Race conditions

29.Race cycles,

30.

Methods for avoiding races31.

Static hazards

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32.dynamic hazards,

33.

Methods for avoiding hazards,

34.

essential hazards

Designing with SM charts

35.

State machine charts,36.Derivation of SM charts,

37.Realization of SM charts.

Unit 4

Designing with Programmable Logic Devices:

38.

ReadOnly Memories,

39.

Programmable Array Logic PALs,

40.

Programmable Logic Arrays PLAs41.PLA minimization and

42.PLA folding,

43.

Other Sequential PLDs,

44.

Design of combinational circuits using PLDs.

45.

Design of sequential circuits using PLDs

46.

Complex Programmable Logic Devices

47.Field Programmable Gate Arrays

48.Altera Series FPGAs

49.

Xilinx Series FPGAsUnit 5

Timing issues in Digital system design:

50.timing classification

51.synchronous timing basics52.

skew

53.

jitter-

54.

latch based clocking-

55.self-timed circuit design

56.

self-timed logic,57.completion signal generation,

58.

self-timed signalling

59.

synchronizers

60.

Arbiters.

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ELV 3102 VLSI TECHNOLOGY & DESIGN

Unit 1

Review of Microelectronics and Introduction to MOS Technologies:1.

Technology trends.

2.

MOS Transistor Theory:3. n MOS transistor4.

p MOS transistor,

5.

threshold voltage equation,

6.

body effect,

7. MOS device design equation,

8. sub threshold region,9.

Channel length modulation.

10.

Mobility variation,

11.

tunnelling,

12.

punch through,

13.hot electron effect,

14.Modelling of MOS transistors using SPICE.

Unit 2

Basic IC Processing Steps:15.

Crystal growth

16.wafer preparation,17.epitaxy,

18.Oxidation,

19.

Lithography,20.

Etching techniques ,

21.

film deposition,

22.Diffusion,

23.Ion implantation,24.

metallisation,

25.

VLSI Process Integration NMOS,

26.

VLSI Process Integration CMOS

27.VLSI Process Integration BICMOS

Unit 3Basics of Digital CMOS Design:

28.

The MOS Inverter:

29.

principle,

30.

Depletion load inverters

31.enhancement load inverters

32.the basic CMOS inverter,

33.transfer characteristics,34.

logic threshold,

35.

Noise margins,36.Dynamic behaviour,

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37.

Propagation Delay,

38.

Power Consumption.

39.

Latch-up in CMOS circuits.

40.

Ratioed logic,

41.

Pass Transistor logic,Arithmetic circuits in CMOS VLSI;

42.

Adders-

43.

Multipliers

44.

Shifters.

Unit 4

Sequential MOS Logic Design:45.

Static latches;

46.

Flip flops

47.

Registers,

48.

Dynamic Latches

49.Dynamic Registers,

50.CMOS Schmitt trigger,

51.

Monostable sequential Circuits,

52.

Astable Circuits.

53.

Memory Design:

54.ROM cells design

55.RAM cells design,

56.SRAM

57.

DRAM,58.

Domino logic.

59.

NORA logic.

Unit 5

Circuit design Process:60.

Circuit elements-

61.

resistor ,

62.

capacitor,

63.interconnects,

64.

sheet resistance ,65.

standard unit capacitance

66.

unit delay concepts ,

67.

inverter delays ,

68.

driving capacitive loads,

69.propagation delays,

70.MOS layers,

71.Stick diagrams72.

mask layout encoding,

73.

Design rules74.

Design layout,

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75. Lambda Based Design rules,

76.

micron based design rules,

77.

Scaling of MOS circuits.

ELV3103 DESIGNING WITH MICROCONTROLLERS

Unit 1

8-Bit Microcontrollers:1.

Study of micro controller (MCS 51 family- 8051)

2.

Architecture:

3. CPU Block diagram,

4. Memory organization,

5. Program memory,

6.

Data memory,7.

Interrupts,

8.

Peripherals:

9. Timers,

10.Serial port,

11.I/O Port.

12.

Programming,

13.

Addressing Modes,

14.Instruction Set,

15.

Programming,16.Comparison of various families of 8- bit Microcontrollers.

Unit 2

PIC 16F 87X Microcontroller:17.

CPU Architecture

18.Block diagram ,

19.Memory organization,20.

Program memory,

21.

Data memory,

22.

Interrupts,

23.

Addressing Modes,

24.Instruction Set ,25.

Peripherals:

26.Timers,27.

ADC ,

28.

Serial port,

29.I/O Port,

30.Programming,

Unit 3

High Performance RISC Architecture:ARM

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31.

Background of ARM

32.

ARM architecture versions V4, V5, V6, V7,

33.

ARM Cortex M3 architecture ,

34.

Programmers model ,

35.

Thumb Instruction Set Architecture,36.Memory map,37.

Exceptions,

38.

Clocking

39.

resets,

40.Power management,

41.NVIC,42.

Memory Protection Unit,

43.

Core Debug,

44.

System Debug,

45.

Cortex M3 development using the GNU tool chain.

Unit 4

Design, Development and Debugging Tools for Microcontroller based

Systems:46.

Software tools like Cross assembler,

47.

compiler,

48.debuggers,

49.simulators tools like In-Circuit Emulators(ICE)

50.hardware tools like In-Circuit Emulators(ICE),

51.

Emulators,52.

Logic Analysers

Unit 5

Microcontroller based System Design:

53.Case study with reference to a popular 8- bit microcontroller.54.

Case study with reference to a popular 16- bit microcontroller.

55.

Case study with reference to a popular 32- bit microcontroller.

56.

A typical application design from requirement analysis through concept

design,

57.

Detailed hardware and software design using 8 bit Microcontrollers todemonstrate the use of Interrupts and available peripherals.

58.

Detailed hardware and software design using 16 bit Microcontrollers to

demonstrate the use of Interrupts and available peripherals.

59.

Detailed hardware and software design using 32- bit Microcontrollers to

demonstrate the use of Interrupts and available peripherals.

60.Timing Analysis.