Unit 3 Sensor and Instrumentation _Graphical programming techniques.pptx
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This document provides an overview of LabVIEW programming techniques, including: 1. LabVIEW programs are called virtual instruments (VIs) that have a front panel (with controls and indicators) and a block diagram (with components wired together). 2. The block diagram uses controls, functions, and indicators accessed through palettes to build the program logic. Tools are used to operate and modify the front panel and block diagram objects. 3. SubVIs allow creating modular and reusable code segments by making an icon and connector for a VI, then using it within another VI to avoid recreating code.
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Lesson_1-4.ppt
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Graphical Programming for Test, Measurement, and Control
Rapid application development with Express VIs and easy-to-use graphical environment
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Automatic Wiring
Use Context Help Window when wiring
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Right-click terminals and select Visible Items»Terminals
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2. Add controls and indicators to the front panel by dragging them from the Controls and Functions palettes. Controls represent inputs, indicators represent outputs.
3. Add nodes representing functions to the block diagram by dragging from the Functions palette. These perform operations on the data.
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Here are a few points of discussion for the group exercise:
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- 2. Front Panel Controls = Inputs Indicators = Outputs Block Diagram Accompanying “program” for front panel Components “wired” together LabVIEW Programs Are Called Virtual Instruments (VIs)
- 4. VI Block Diagram NumericConstant WhileLoop Callto subVI Knob Terminal StopButton Terminal StopLoop Terminal Thermometer Terminal Temperature Graph
- 5. Controls and Functions Palettes Graphical, floating palettes Used to place controls & indicators on the front panel, or to build the block diagram Controls Palette (Panel Window) Functions Palette (Diagram Window)
- 6. Tools Palette Operating Tool Positioning/Resizing Tool Labeling Tool Wiring Tool Shortcut Menu Tool Scrolling Tool Breakpoint Tool Probe Tool Color Copy Tool Coloring Tool • Floating Palette • Used to operate and modify front panel and block diagram objects. Automatic Selection Tool
- 7. Run Button Continuous Run Button Abort Execution Pause/Continue Button Text Settings Align Objects Distribute Objects Reorder Additional Buttons on the Diagram Toolbar Execution Highlighting Button Step Into Button Step Over Button Step Out Button Status Toolbar
- 8. Signal Generation and Processing.vi Help » Find Examples… BrowseAccording to: Task » Analyzing and Processing Signals » Signal Processing » Signal Generation and Processing.vi Open and Run a Virtual Instrument
- 9. Control T erminals Block Diagram Window Front Panel Window Indicator T erminals Creating a VI
- 10. Creating a VI – Block Diagram • After Creating Front Panel Controls and Indicators, Switch to Block Diagram <Ctrl-E> • Move Front Panel Objects to Desired Locations Using the Position/Size/Select Tool • Place Functions On Diagram • WireAppropriate Terminals Together to Complete the Diagram
- 11. WiringTips– Block Diagram Wiring“Hot Spot” ClickToSelectWires ClickWhileWiringToTack WiresDown SpacebarFlips WireOrientation
- 12. SubVirtual Instruments Whatis a subVI? • Making an icon and connectorfor a subVI • Using aVI as a subVI
- 13. SubVIs • ASubVI is a VI that can be used within another VI • Advantages – Modular – Easier to debug – Don’t have to recreate code – Require less memory
- 14. Iconand Connector • An icon represents a VI in otherblock diagrams • Aconnector shows available terminals fordata transfer
- 15. SubVIs SubVIs
- 16. Steps to Create a SubVI • Create the Icon • Create the Connector • Assign Terminals • Save the VI • Insert the VI into a Top Level VI
- 17. Create the Icon • Right-click on the icon in the diagram or front panel
- 18. Create the Connector Right click on the icon pane (front panel only)
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- 21. Insert the SubVI into a Top Level VI Accessing user-made subVIs Functions >> Select a VI Or Drag icon onto target diagram