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Training
CITL-Tech-varsity
CITL-Tech varsity offers a complete training on EMBEDDED SYSTEM DESIGN AND DEVELOPMENT Program has been established to satisfy the growing demand for EMBEDDED ENGINEERS, OEMs and design centers worldwide. The course has been designed as per the current requirements of the industry and in consultation with our outsourcing clients.CITL-Tech varsity specialize in training courses for real time embedded developers matches international standards.A unique combination of industry and training, consists of inhouse R&D and production. The new curriculum comprehensively addresses four critical areas for engineering students, to make them industry ready—that of strong programming skill in c,c++,software engineering,embedded systems,live industry project,softskills or self development , global certification and placement assistance. By enhancing skills and employment readiness of engineering students, CITL will not only help the IT industry by increasing the talent availability but also by reducing huge cost of their in-house training
LINUX on ARM9
CITL provides industrial training to BTech/MCA/BCA/Diploma students in
fields like embedded systems, networking technologies , Embedded Systems: ARM micrcontroller family with embedded C
AVR micrcontroller family with embedded C PIC micrcontroller family with embedded C MCS-51 micrcontroller family with
embedded C PCB Designing and product and Real time operating systems.
250 hours of certified practical training accompanied with industrial projects to give you a glimpse of different areas in the embedded system industry.
Candidates will have to clear a screening test to get inducted for the course. The screening test will be based on basic electronics, microprocessors, microcontrollers, C programming and aptitude. Scholarship for merit list students of enrollment exam.
You will develop a disciplined engineering approach to and sound practical skills in the
specification, design and implementation of software for embedded systems. You will gain
specialist knowledge in digital signal processing and processors, control systems, mechatronics
and automation and research methods.
You will develop a disciplined engineering approach to and sound
practical skills in the specification, design and implementation of
software for embedded systems. You will gain specialist
knowledge in digital signal processing and processors, control
systems, mechatronics and automation and research methods.
A two-day course providing an introduction to the theory, structure and practice of
real-time operating systems. Particular emphasis is placed on issues related to
embedded applications. Nevertheless this course is still of significant value to engineers
developing non-embedded real-time projects. The course covers basic concepts,
practical issues and commercial implementations of modern operating systems.
Approximately 50% of the time is given over to lectures, the remainder being split
between course workshops and practical demonstrations.
Everybody learns C programming, but learning to use it effectively and appropriately in a real-time embedded environment is the motto of this course. For many programmers, these skills are learnt the hard way, through trial and error on the job. This course addresses this issue by not only teaching the C programming language, but through emphasizing the pragmatic use of C in a real-time environment. This is achieved through both lecture and direct hands-on experience.
Engineers work with the C programming language everyday for real-time embedded development. However most of the engineers never feel comfortable with certain aspects of the language. This course aims to move people off that thought and give them a fuller appreciation of the more advanced aspects of the language. Because of the requirements for programming real-time embedded systems, this course goes beyond just addressing the language issues and explores compile, link and run-time issues. In addition it covers interrupts and multi-tasking areas specific to C.
You will develop a disciplined engineering approach to and sound practical skills in
the specification, design and implementation of software for embedded Robotics.
You will gain specialist knowledge in processors, Robotics, mechatronics, research
methods.
You will develop a disciplined engineering approach to and sound practical skills in the specification, design and implementation of software for embedded systems. You will gain specialist knowledge in digital signal processing and processors, control systems, mechatronics and automation and research methods.
Linux is well-known in the data centre and on the desktop, but it is also becoming
popular as an operating system in embedded systems, replacing the traditional RTOs.
This course is designed to show you how to interact with Linux on an embedded
system. We describe the concepts and commands necessary to make effective use of
Linux through a combination of theory and practical sessions.
This course demonstrates how to port an embedded Linux system from version 2.4 of the kernel to 2.6. It describes the differences between the two versions and the new features. Using a practical example it covers changes to kernel configuration and compilation, device drivers, the driver model, the Native POSIX Threads Library, POSIX timers, message queues and shared memory. Throughout, the emphasis is on embedded and real-time applications.
Linux is often used as an embedded operating system, and yet it is still regarded as something of a black art by many. This course aims to remove the mystique by showing exactly how to deploy Linux on a typical embedded target board through a combination of theory and practice.
Implementing Linux on custom hardware will, in most cases, require you to write device drivers. This course shows how to write code that runs within the Linux kernel to handle hardware events and present a standard interface to applications.
Increasingly, embedded systems incorporate graphical displays and touch screens to create a rich man-machine
interface. Linux, of course, has the capability to display complex graphics as anybody who has seen Linux running
on a desktop PC will know. But, graphical environments are memory-hungry and can easily eat up hundreds of MB
of RAM and storage.
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