Target Audience:

B.E./ B.Tech/ M.E./ M.Sc. in Electronics/ Electronics and Telecommunication/ Electrical/ Computer Sciences/ IT/ Instrumentation/ M.C.A or equivalent.
Students who have appeared for final exams of above mentioned courses may also apply.

Selection Procedures
Stage I : Entrance test consist of a online examination test consisting of Objective questions based on C and Assembly language, Aptitude & Numerical Ability, Logic and reasoning and Current Technological trends etc.

Stage II : Shall consist of Technical / Personal interview and review of scholastic records leading to confirmation of admission.

Prerequisites : Basic Knowledge of OS and Progamming also Good Communication Skill.

Batch Capacity : 20 Students /Batch.

Opportunity : Mainly following industry segments requires Embedded System like Telecom/Mobile Communication, Wireless, Industrial Engineering, Consumer Electronics, Aerospace, Military, Automotive, Medical etc

Special Offer :

In addition to deliver the course effectively , JOBSINDYA and IKSEN also shapes the students into professionals easily recruitable into the industry. We feel our responsibility to guide and help the student getting into the industry.

If you use our placement service, we do what it takes to rocket you to the top. We are so confident of our ability that as a company, we offer unparallel value for money plus an iron clad placement guarantee that is difficult to beat.

For this purpose,JOBS INDYA has a well established Placement Cell to facilitate students to get into industry. The Placement cell coordinates the task of organizing the campus interviews for our students.

Our Team not only brings the companies to the campus but also enables the students to go through the campus recruitment process. Keeping in mind the company requirement , we not only supplement the technical contents of the course but also conduct soft skill classes for the students for an overall personality development by which they improve on their communication skills, presentation skills, Aptitude, Interview techniques, group discussion skills and many other aspects of their personality.

Syllabus For Embedded System Design

Master the fundamental concepts of real-time embedded system programming and jumpstart your embedded projects with effective design and implementation practices. This course bridges the gap between higher-level abstract modeling concepts and the lower-level programming aspects of embedded systems development. You gain a solid understanding of real-time embedded systems with detailed practical examples and industry wisdom on key concepts, design processes, and the available tools and methods.

We have divided the course in the following major chronological categories :

C/C++ for Embedded Systems:
C/C++ as a computer language is well known but the usage of the same in Embedded system is little or misunderstood by most of the programmers. This module covers as to how efficiently should these languages be used while developing an Embedded System. Programming considerations like memory usage, runtime library usage, interrupt service routines. Booting process, memory mapping/address space, external registers/system registers, cache management etc will be covered in detail. In this module students will be encouraged to revisit their C/C++ and operating system concepts as we believe this is the basic component of the course. More Details

Operating System Fundamentals:
The course begins with the fundamental elements of an Operating System multitasking embedded application software design and development. Processor and operating system concepts relevant to multitasking systems are examined, with focus on preemptive task scheduling, intertask communication and synchronization.

The module continues with a detailed survey of popular operating system kernel services, giving many application examples. Topics include timer services, dynamic memory allocation schemes, network communication programming interfaces and device driver supervisors. Multitasking code development is discussed and example programs are reviewed and debugged. Practical experience is gained during student work exercises.
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Embedded Systems:
The focus of this course is really the analysis of the design of embedded systems. Students will work individually to analyze and understand the design and operation of an existing microprocessor-based computer system. Students will not design hardware in this course, but will analyze hardware, and design and implement software to facilitate this analysis. Laboratory work will consist of multi-week projects that involve utilizing a digital oscilloscope and logic analyzer to investigate the details of embedded systems behavior, and the interaction of hardware and software.

This will cover the following sections:

Session 1: Basics of developing an embedded system
This section will cover the basic concepts involved in the design and development of the embedded system and will be a brief walkthrough of the overall course structure This will cover the various technical details associated with the usage and development of various emebedded system tools including software and hardware.

Session 2: CPU Architectures & Assembly Language Programming for 89c51/ ARM and its derivatives
In this course, we will investigate the; microcontroller with a comparative analysis of some popular forms; memory devices, interface and other support circuitry; assembly language and machine language programming; microcontroller use in dedicated applications. The course includes a laboratory devoted to software and hardware design. This section will mostly deal with the microcontroller architecture which includes 89c51/ARM(its derivatives).
Following are some of the details pertaining to this section:

Basic microcontroller architecture, the bus structure and memory map
Instruction set of the 89c51/ARM(and its derivatives) and writing simple programs
Hardware Interfacing - 8255,8279, ADC/DAC,LCD Display interface etc.
Subroutines, passing parameters and relocatable program modules
Design of memory systems for the microcontroller
Input-output structure for the microcontroller: Isolated and Memory-mapped I/O
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Session 3: Introduction of RealTime Operating System

RTOS Includes :- RTLinux, QNX, uC/OS This course introduces the principles shared by many real-time operating systems, and their use in the development of embedded multitasking application software. The course begins with the fundamental elements of real-time multitasking embedded application software design and development.

The course continues with a detailed survey of popular operating system kernel services, giving many application examples. This module will cover the following details:

Difference between and regular OS and RTOS
Various RTOS Scheduler Algorithm ( Rate monotonic, Deadline monotonic)
Priority, Priority Inversion
Task, Threads, Processes
Memory Management
Understanding of commercially available RTOS (QNX, ThreadX, VXWorks, Nucleus, WinCE) comparisons and various parameters to evaluate an RTOS
Session 4: Introduction to Board Support Packages

This session examines the requirements and characteristics of a Board Support Package (BSP) and Device Drivers for embedded applications. It deals with issues important to engineers who need to write a BSP for custom hardware. It is also useful for application software engineers who want to have a better understanding of underlying firmware and how it relates to their application. Rather than focusing on the BSP requirements for a specific real-time operating system (RTOS), this course examines features that are shared by most BSPs. In addition, real world RTOS examples are used to demonstrate how certain problems are solved by different operating systems.
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Session 5: Device Driver Designing for Embedded Systems

This course examines features and design similarities that are shared by device drivers in a variety of environments. The module begins with a presentation of the basic structure of device drivers and device I/O supervisors. This is followed by an in-depth discussion of fundamental issues in the design of device driver software or firmware, such as mutual exclusion, and synchronous vs. asynchronous execution. High-level design of device drivers is presented with emphasis on tailoring the structure of the driver to the characteristics of specific hardware devices and the nature of the data they carry. Interrupts, exception handling and DMA are discussed in detail.
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Session 6: Real Time Kernel Based Multitasking

This session covers details of "kernel" as a major firmware component of an embedded application. Different execution architectures are discussed and advantages of using kernel are emphasized .We then introduce concepts of task & task states and review problems of multitasking and ways to resolve these. The mechanisms of inter-task communication/synchronization and resource sharing are then introduced.

Session 7: RTOS Scheduling

This session covers how to meet the external world response time requirements under the worst-case situation of, sporadic and a-periodic events. We then briefly discuss scheduling theory mathematically, which guarantees determinacy for the time responses to simultaneous external events. This covers the various aspects of customizing the scheduler as per your requirements .

Session 8: Real Time Operating System Design Details

This module covers the activities of high-level design of real-time and embedded systems software that's to be developed using a real-time operating system (RTOS).The class begins with a quick examination of some fundamental issues in real-time multitasking embedded application software design and development, and briefly reviews several modern techniques for real-time and embedded software requirements specification. It then quickly focuses on how to structure a software system that must execute within strict deadline and resource limits. Emphasis is placed on multitasking and timing behaviors, rather than object orientation.
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Session 9: Real Time Operating System - Development Tools

This session covers the techniques required to be followed in debugging embedded, multitasking, real time, Distributed application, defining code Segment, Data Segment (Initiated /Un-initialized Data, Stack Space, Dynamics Memory Allocation) Use of Cross Compiler, Linker, Locator, Loader, Code Coverage Analyzer are then discussed.
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Session 10: Real Time Operating System - Case Study

This module goes into the details of an RTOS related to its design, implementation and deployment. Based on the above knowledge gathered, students will be given an opportunity to work with RTOS's like uC/OS/RTLinux/QNX and will be required to write sample program and will be given an exposure to real-life implementation by allowing them to perform various assignments in this area.
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Session 11: Digital Signal Processing(Optional)

In this module we explain DSP including its advantages, applications and limitations. We offer real understanding of the practice and limitations of converting analog to digital signals, principles and applications of correlation and convolution; frequency spectrum analysis and the Fourier Transform, basics of digital filters and their application, and an initial introduction to digital filters. Following topics will be covered during this session:

The Generic DSP Processor Architecture
Application Specific Integrated Circuits
DSP Design and Analysis Software
Converting analogue signals
Sampled data systems
Filters- Analog, Digital, IIR, FIR
Impulse and frequency responses
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Device Drivers:

This module will teach you how to write your own drivers and how to hack around in related partsof the kernel. We have taken a device-independent approach; the programming techniques and interfaces are presented, whenever possible, without being tied to any specific device. Each driver is different; as a driver writer, you will need to understand your specific device well. But most of the principles and basic techniques are the same for all drivers. This module will give you a handle on the background you need to make your device work.

Session 1: Windows Device Drivers(Optional)

This hands on training course provides the knowledge and practice necessary to begin writing Windows device drivers for Windows XP, Windows 2000 and Windows NT 4.0. This course provides a thorough grounding for Windows device driver development. Through lecture, class discussions and hands on lab work, the student will develop an immediately useful knowledge of how to write a device driver that will interface hardware to the system and to application programs. The various topics covered under this section are:

windows Device Driver Architecture
Windows Device Driver Development Kit
Device Driver Development and Debugging Techniques
Device Driver Performance tuning techniques
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Session 2: Linux Device Drivers

The module covers the key issues in developing and testing Linux device drivers. This provides substantial practice with the key steps in developing Linux device drivers. The module shows how device drivers work with the Linux kernel, how to compile and load drivers, how to debug drivers, how to access PCI/ISA hardware, as well as other essential topics. Attendees will develop a complete, simple, driver that demonstrates the process of creating a Linux device driver. The course covers the key issues in Linux device drivers. Such questions as: how do I develop a character device, how do I debug a driver, how do I use task queues, are examined. The topics include the following:

Linux Device Driver Architecture
Linux Driver Development Resources
Device Driver Development and Debugging Techniques
Device Driver Performance tuning techniques
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Specialized Course:

This module will focus on the latest technology which is in demand in the industry and will cover the basics of the same. Students will be given an opportunity to understand the technology and all the relevant exposure to further contribute to the same.

Storage Technology

This is the latest happening in the IT market now days and is in hot demand. This module will cover the basics of the storage technology and will give exposure to the following:

History of Storage Technology
Why is it in focus these days?
Introduction to SCSI
Introduction to RAID
Introduction to Fibre Channel
Introduction to ISCSI
Introduction to Volume Manager