Thursday 8 November 2012

INDUSTRIAL AUTOMATION( FIELD INSTRUMENTS)

INDUSTRIAL AUTOMATION( FIELD INSTRUMENTS)

Level/Temperature/Pressure and flow transmitter
Pneumatic instruments
Control valves/Proximity
Linear displacement
Level/temp/Pressure Measurement and Applications
Pneumatic and Hydraulic

INDUSTRIAL AUTOMATION(drives)


Power diagram
Control diagram
VFD control panel
Application macro
Actual signals and parameters
Start up control with id run
No load test
Interfacing with PLC


Tuesday 30 October 2012

Basics of Plc Programming

Basics of Plc Programming

1) Plc architecture.

2) Plc System

3) Processor Memory Organization

4) Memory Map

5) Program Files

6) Data Files

7) Input table file operation (switch open)

8) Input table file operation (switch close)

9) Output table file operation(Output off)

10) Output table file operation(Output on)

11) Program Scan

12) Scan Process

13) Data Flow Overview

14) Scan Process

15) Scan Pattern(Horizontal Scanning order)

16) Scan Pattern(Vertical Scanning order)

17) Plc programming languages

18) Comparing Programming languages

19)  Relay type Instruction

20) Examine if close (XIC) Instruction

21) Examine if open (XIO) Instruction

22) Output Energize (OTE) Instruction

23) Status Bit Examples

24) Ladder Rung

25) Rung continuity

26)Allen Bradley slc -500 controller Addressing

27)Structure of A-16 Bit Word

28)Parallel input branch Instruction

29)Nested I/p &O/p Branches

30)Nested Contact Program

31)Plc Matrix Limitation Diagram

31)Programming of  Vertical contact

32)Programming of different Scan Patterns

33)Internal Control Relay

34)Programming the XIC Instruction

35)Programming of XIO Instruction

36)Operation of the XIO and XIC Instruction

37)Entering the Ladder Diagram

38)RX Logic Main Screen

39)Bit Instruction Tool Bar

40)Select Processor Type Screen

41)I/O Configuration Screen

42)Monitoring a ladder logic Program

43)Modes of operation

44)Variation of Run mode

Thursday 25 October 2012

Syllabus for Robotics

Duration: 6 weeks


Robotics is the branch of technology that deals with the design, construction, operation, structural disposition, manufacture and application of robots.


Syllabus for Robotics

Module 1: Introduction
  • What is Robotics
  • Introduction to various technologies in Robotics
  • Utility and real implementation of  Robots
  • Introduction to embedded system
  • Importance and Evolution of Embedded system
  • Relation with Real time systems
Module 2: Robot Projects
  • Robotic Arm and its controlling
  • Automatic guided vehicles
  • Line follower
  • Path finder
Module 3: Motors
  • Types of Motors
  • DC geared motors
  • Stepper motors and their types
  • Size and speed specifications
  • Motor driving ICs
Module 4: Programming
  • Architecture of the Microcontroller
  • Embedded Programming in C and assembly
  • Implementation over simulator
  • Implementation over real model
Module 5: Sensors
  • Infrared sensor
  • Ultrasound sensor
  • Light sensors
  • Smoke sensor
Module 6: Communication Devices
  • IR Communication
  • RF Module Interfacing
  • GSM Module interfacing
 Duration: – 6 weeks

Syllabus for ARM Processor

Syllabus for ARM Processor


ARM is the industry’s leading provider of 32-bit embedded microprocessors, offering a wide range of processors based on a common architecture that deliver high performance, industry leading power efficiency and reduced system cost. Combined with the broadest ecosystem in the industry with over 750 Partners delivering silicon, tools and software, the wide portfolio of more than 20 processors are able to meet every application challenge. With more than 20 billion processors already created and in excess of 10 million shipped every day, ARM truly is The Architecture for the Digital World.
ARM 7 Processor Syllabus
Introduction
  • Introduction of ARM Processors
  • Evolution of ARM
  • 32 – bit Programming
ARM7 Architecture
  • ARM7 Architecture
  • Instruction Set Architecture
  • LPC21xx Description
  • Memories
  • Peripherals
ARM Processor Programming
  • ARM Processor Programming in C
  • Using ARM Programming Tools
I/O Device Interface and practical
  • Study of Input Output Devices
  • LED Display
  • Intelligent LCD Display
  • BUZZER
  • Serial Communication Concepts(Tx & Rx)
  • RTC



Advance IO
  • ADC
  • EEPROM
Latest trends in ARM Processor
Introduction to …
  • ARM9
  • RTOS
Embedded Linux on ARM

Syllabus for PIC Microcontroller

Syllabus for PIC Microcontroller


Module 1: Introduction
  • Introduction to various technologies in Electronics
  • Analog, Power and Digital electronics basics
  • Comparison of different technologies
  • Introduction to embedded system
  • Importance and evolution of Embedded system
  • Comparison with other technologies
  • Different architectures and elements used in embedded system
Module 2: PIC 16f877 / 18f4520 microcontroller
  • Introduction to PIC architecture
  • Comparison of PIC with  other CISC & RISC based systems and Microprocessors
  • PIC family Categories and importance (10F/12F/16F/18F)
  • 16f877 / 18f4520 pin details and specifications (with package detail)
  • Instruction set / Bus architecture
  • RAM, FLASH, UART and other peripherals.
  • Interrupts, timer , Counters
  • Introduction to PIC ProBASIC programming KIT
Module 3: Assembly language
  • Assembly Language (Instruction set, Mnemonics, Memory address)
  • Use of Assemblers & Simulator
  • MPLAB
  • Configuring of 16f and 18f
  • Rules to write a code
  • Programming for PIC
  • Examples programs for PIC
  • Compilation and burning hex file on Programmer
Module 4: Embedded C language
  • Introductions to Embedded C
  • Loops, String , Arrays, Pointers
  • Functions and Macros
  • Compilers , Editors and Burners( HI-TECH C , C18 )
Module 5: Peripheral Interfacings
  • Port programming & led interfacing
  • Seven segment display
  • Liner keyboard
  • Matrix keyboard
  • DC motor
  • Stepper motor
  • Relay
  • Internal Watchdog timer
  • Timer & Counter
Module 6: Communication Protocols and Converters interfacings
  • Serial RTC (I2C)
  • EEPROM (I2C)
  • UART (Serial Communication)(SPI)
  • 8 – Channel Internal ADC
  • Sensors
Module 7: Advance display modules
  • Introduction to graphics
  • 16×2 LCD display
  • Graphics on Character LCD
  • Introduction Graphic LCD
  • Graphic LCD Controller and Commands
  • Interfacing and making Graphics for 128×64 GLCD
Module 8: Final project
  • Final embedded based Project

:� S 5 ��q 8 q style='font-size:12.0pt;font-family:"Times New Roman","serif";mso-fareast-font-family: "Times New Roman"'>16×2 LCD display
  • Graphics on Character LCD
  • Introduction Graphic LCD
  • Graphic LCD Controller and Commands
  • Interfacing and making Graphics for 128×64 GLCD
  • Module 8: Final project
    • Final embedded based Project

    Syllabus for AVR Microcontroller


    Syllabus for AVR Microcontroller


    The AVR is a modified Harvard architecture 8-bit RISC single chip microcontroller which was developed by Atmel in 1996. The AVR was one of the first microcontroller families to use on-chip flash memory for program storage, as opposed to One-Time Programmable ROM, EPROM, or EEPROM used by other microcontrollers at the time

    With a single cycle instruction RISC CPU, innovative Pico Power technology, and a rich feature set, the AVR architecture ensures fast code execution combined with the lowest possible power consumption. For high level application every nano second is countable. This program promises of encounter of all kind signal types that are required in most of high end projects.
    Module 1: Introduction
    • Introduction to various technologies in Electronics
    • Analog, Power and Digital electronics basics
    • Comparison of different technologies
    • Introduction to embedded system
    • Importance and Evolution of Embedded system
    • Comparison with other technologies
    • Different architectures and elements used in embedded system
    Module 2: ATmega 8515 / ATmega 16 microcontroller
    • Introduction to AVR architecture
    • Comparison of AVR  with  other CISC & RISC based systems and Microprocessors
    • AVR family Categories and importance (AT tiny/ ATmega/ Xmega)
    • Atmega 8515 / Atmega 16  pin details and specifications (with package detail)
    • Instruction set / Bus architecture
    • RAM, FLASH, UART and other peripherals.
    • Interrupts, timer , Counters
    • Introduction to AVR ProBASIC and SPI programming KIT
    Module 3: Assembly language
    • Assembly Language (Instruction set, Mnemonics, Memory address)
    • Use of Assemblers & Simulator
    • Rules to write a code
    • Programming for AVR
    • Examples programs for AVR
    • Compilation and burning hex file on Programmer
    Module 4: Embedded C language
    • Introductions to Embedded C
    • Loops, String , Arrays, Pointers
    • Functions and Macros
    • Compilers, Editors and Burners (Win AVR, GNU – GCC etc.)
    Module 5: Peripheral Interfacings
    • Port programming & led interfacing
    • Seven segment display
    • Liner keyboard
    • Matrix keyboard
    • DC motor
    • Stepper motor
    • Relay
    • Watchdog timer
    • Timer & Counter
    • Opto Isolators
    Module 6: Communication Protocols and Converters interfacings
    • Serial RTC (I2C)
    • EEPROM (I2C)
    • UART (Serial Communication)
    • ADC (Internal and Exrenal)
    • Sensors
    • On chip devices
    Module 7: Advance display modules
    • Introduction to graphics
    • 16×2 LCD display
    • Graphics on Character LCD
    • Introduction Graphic LCD
    • Graphic LCD Controller and Commands
    • Interfacing and making Graphics for 128×64 GLCD
    Module 8: Final project
    • Final embedded based Project