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1
Introduction
2
Processors
3
General Purpose and ASIPs Processor
4
Designing a Single Purpose Processor
5
Optimization Issues
6
Introduction to FPFA
7
FPGA Contd.
8
Behaviour Synthesis on FPGA using VHDL
9
Tutorial - I
10
Tutorial - II
11
Tutorial - III
12
Tutorial - IV
13
Sensors and Signals
14
Discretization of Signals and A/D Converter
15
Quantization Noise, SNR and D/A Converter
16
Arduino Uno
17
Arduino Uno (Contd.), Serial Communication and Timer
18
Controller Design using Arduino
19
Tutorial - V
20
Power Aware Embedded System - I
21
Power Aware Embedded System - II
22
SD and DD Algorithm
23
Parallel Operations and VLIW
24
Code Efficiency
25
DSP Application and Address Generation Unit
26
Real Time O.S - I
27
Real Time O.S - II
28
RMS Algorithm
29
EDF Algorithm and Resource Constraint Issue
30
Priority Inversion and Priority Inheritance Protocol
31
Modeling and Specification - I
32
Modeling and Specification - II
33
FSM and Statechart
34
Statechart and Statemate Semantics
35
Statecharts (Contd.)
36
PROGRAM STATE MACHINES
37
SDL
38
Data Flow Model - I
39
Data Flow Model - II
40
Hardware Synthesis - I
41
Hardware Synthesis - II
42
Scheduling
43
Digital Camera Design
44
Digital Camera - Iterative Design
45
HW-SW Partitioning
46
Optimization - I
47
Optimization - II
48
Simulation
49
Formal Verification
Description:
COURSE OUTLINE: This course on Embedded systems will first the students to the fundamental requirements of embedded systems and the interaction between hardware and software in such systems. Next, the course will discuss some basic steps of hardware design, introduce the students to ASIPs, ASICs and FPGAs. Next, the students will be exposed to the very important issue of designing for less power consumption and introduce them to the techniques that are adopted to this end. Since many of the embedded systems will have real time constraints, basic issues of real time operating systems will be discussed. This will be followed by formal specification models and languages, mapping the specification to hardware and software components along with decisions on design tradeoffs and hardware software partitioning. Next, the synthesis of hardware and software along with a few of the optimization techniques will be presented. The course will end with a brief overview of design verification methods that are adopted for embedded system design. Read more

Embedded Systems Design

NPTEL
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#Engineering #Electrical Engineering #Embedded Systems #Circuits #FPGA #Signal Processing #Sensors #Programming #Hardware Description Languages (HDL) #VHDL #Computer Science #Real-Time Systems #Real-Time Operating Systems #Software Engineering #Code Optimization #Internet of Things #Arduino #Arduino Uno
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Introduction