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DI05000231 · Semester 5 · 5G scheme

Virtual Instrumentation

Notes and solutions following the Gujarat Technological University (GTU) syllabus for DI05000231. Independent material — not issued by the university.

Automation & RoboticsInstrumentation & Control Engineering

Materials

Syllabus

The official syllabus this material follows.

  • Syllabus

    9 pages

    FreeRead

Complete Book

The whole syllabus, unit by unit, written for the exam.

Syllabus units

Unit 1: Introduction to Virtual Instrumentation
  • Historical perspective of virtual instrumentation
  • Basics of Virtual instrumentation
  • Role virtual instrumentation in real-time world
  • Block diagram and Architecture of Virtual Instrumentation
  • Data flow techniques in virtual instrumentation
  • Compare virtual instrumentation and traditional instrumentation
  • Limitations of traditional instrumentation
  • Application of virtual instrumentation in Industry
  • Hardware and Software in Virtual Instrumentation
  • Role of hardware in virtual instrumentation
  • Role of software in virtual instrumentation
  • Virtual Instrumentation for Test, Control and Design
  • Virtual instrumentation for Test
  • Virtual instrumentation for Industrial I/O and Control
  • Virtual instrumentation for Design
Unit 2: Programming techniques in Virtual Instrumentation environment
  • Basics of Graphical User Programming (GUI)
  • Compare conventional programming and GUI based programming
  • Prepare basic program in virtual instrumentation software
  • Compare graphical programming and text based programming
  • VI and Sub-VIs: Concepts of modular programming; creating, saving, and calling Sub-VIs within a main Virtual Instrument
  • Structural Control and Execution Logic: Iterative Structures, Decision Making, Mathematical Operations
  • Data Handling and Organization: Data Storage Entities, Variable Management, Strings and File I/O
  • Visualization and Signal Display: Basics of Charts, Basics of Graphs, Signal Generation
Unit 3: Elements Of Data Acquisition in virtual instrumentation environment
  • Introduction to Data acquisition system
  • Block diagram of DAQ System
  • Selection criteria of hardware and software for data acquisition system
  • Basics of Analog to Digital Converter (ADC), Digital to Analog Converter (DAC), Digital Input Output (DIO)
  • Describe Basics of ADC, DAC, DIO
  • Basics of Counters and timers
  • Function and application of Counters and timers
  • Timing, Interrupts; RS232C/ RS485
  • Describe concept RS232/ RS485 module
  • Signal Processing in DAQ
  • Signal processing in a DAQ system
  • Define analog signal.
  • Define digital signal.
  • Define sampling
  • Define quantization
  • Define sampling rate.
  • Explain signal conditioning
Unit 4: Operating System And Hardware Overview
  • PC architecture, current trends, operating system requirements
  • PC based instrumentation
  • Interface requirement for virtual instrumentation
  • Basics of analog and digital interfaces
  • Need for analog-to-digital and digital-to-analog conversion
  • Working principles of ADC and DAC
  • Definition and characteristics of analog signals
  • Definition and characteristics of digital signals
  • Timing concepts (clock, synchronization)
  • Compare PC based and PXI based system
Unit 5: Virtual Instrumentation for Environment Sustainability
  • Introduction to Environmental Sustainability
  • Definition of environmental sustainability
  • Importance of environmental protection
  • Role of technology in sustainable development
  • Role of Virtual Instrumentation in environmental Monitoring
  • Advantages of VI in environmental monitoring
  • Energy monitoring and management using virtual instrumentation
  • Role of VI in Robotics
  • Basics of robotics control system using Virtual Instrumentation

About this course

This course offers a comprehensive introduction to the principles and applications of Virtual Instrumentation. Students will leverage software-defined measurement techniques to design, model, and analyze complex electronic circuits and control systems. By mastering industry-standard simulation tools, learners will bridge the gap between theoretical concepts and practical implementation, gaining the proficiency required to build and test advanced automation and electronic architectures in a virtual environment.