Experiment 1 Electrical Circuits Simulation using Multisim Electronics Workbench: An Introduction

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Experiment 1 Electrical Circuits Simulation using Multisim Electronics Workbench: An Introduction Simulation is a mathematical way of emulating the behavior of a circuit. With simulation, you can determine a circuit s performance without physically constructing the circuit or using actual test instruments. Multisim is a complete system design tool that offers a very large component database, schematic entry, full analog/digital SPICE simulation, etc. It also offers a single easy to use graphical interface for all design needs. Introduction Go to Start Programs Multisim and click on Multisim. This will open the main window as shown in Figure 1. In Figure 1 important toolbars and menu are labeled. In addition to toolbars shown in Figure 1, there maybe other toolbars appearing on your screen concentrate on the labeled items in Figure 1 at this time. You can always open and close a toolbar from Main Menu. For example if you want to open or close (select/unselect) the Design Toolbar, select View Toolbars Design. If any toolbar is not appearing on your screen then use the above procedure to bring the toolbar. Most of the analysis can be performed turning on-off the simulate switch. If the Simulation Switch shown in Figure 1 is not appearing on your screen then select View Show Simulate Switch in the Main Menu. This will open the Simulation Switch. Main Menu Zoom Toolbar Design Toolbar Component Toolbar Simulate Switch Figure 1: Main Window of Multisim Simulation Software 1

We will now try to learn about Multisim simulation techniques by solving a simple example. Example Build the circuit shown in Figure 2 using Multisim Electronics Workbench. Figure 2: Circuit for Multisim Simulation STEP A: Placing the Components 1. Place a Battery (DC Source) a. Bring a dc source in the Multisim workspace: Open the Multisim program if it is not open. In the Component Toolbar, select Sources icon (refer to Figure 1 to find the Component Toolbar). This will open another window with several types of dc sources and other components as shown below in Figure 3. Click on DC Voltage Source in this new window. Select the Sources Icon from Component Toolbar Select the DC Source Figure 3: Selection of DC Voltage Source in Multisim Now bring your cursor in the workspace area and notice the change in the shape of cursor to Click at any point in the workspace. This will put the voltage source as 2

b. Change the value and name of voltage source: Double click on the voltage source that you just placed in the workspace, a new window with the name Battery will appear, as shown in Figure 4. Select Value in the Battery menu, if it is not already selected. Change the value from 12 to 30. Keep the unit as Volts in this menu. Now select Label in this menu and change the Reference ID to Vs. Click on OK. Figure 4: Battery Window for setup of DC voltage source 2. Place a Resistor: a. Bring a resistor in the Multisim workspace: In the Component toolbar, select Basic icon as shown. This will open another window with several basic components as shown below in Figure 5. Select the Basic Icon from Component Toolbar Select the Resistor Figure 5: Selection of Resistor in Multisim Click on Resistor, this will open the Browser-Basic window, as shown in Figure 6. Scroll through the Component List, select 30kohm, and click OK. The cursor shape will change again. Click in the workspace and this will put the resistor as, 3

Tip To make your scroll through the Browser s Component List faster, simply type the first few characters of the component s name. For example, type 30k to move directly to the area of 30kohm list. b. Change the name of resistor: Figure 6: Setup window for Resistor values Double click on the resistor, a new window with the name Resistor will open as shown in Figure 7. Select Label from the menu of this window. Change the Reference ID to R 1 (if it is not) and press OK. This will change the name of the resistor to R 1. Figure 7: Battery Window for Label of Resistor 4

d. Add other resistor R 2 Place resistor R 2 of value 20kΩ in the workspace through the same procedure. e. Rotate the resistor: Select resistor R 2 and press Ctrl-R to rotate the resistor or select Edit 90 Clockwise from the Main Menu. This will make the resistor vertical. Labels and values of all the components can be dragged individually. Drag the label R 2 and value 20kohm individually to put them at a proper place. 3. Place Ground: In the Component Toolbar, select Sources icon. Now click on Ground icon in the new window as shown in Figure 8. Click in the workspace to put the Ground symbol as Select the Sources Icon from Component Toolbar Select Ground Figure 8: Selection of Ground in Multisim STEP B: Connecting the Components 1. Arrange the components properly: Arrange the components according to the circuit given in Figure 2. You can select and drag the component to any place in the workspace. Select the components and drag them one by one to proper places as shown in Figure 9. Grid Figure 9: Arranging the Components in proper order 5

2. Show Grid in the workspace: You may show grid for ease of drawing the connections. Select View Grid Visible in the Main Menu if it is not visible. 3. Connect DC Voltage Source Vs to R 1 : Bring the cursor close to upper pin of Vs ; cursor shape will change to a plus sign. Click and move a little upward. A wire appears, attached to the cursor. Click again at a small distance above the Vs source. Notice that the line will change direction. Control the flow of the wire by clicking on points as you drag. Each click fixes the wire to that point as shown in Figure 10. In this way, when the cursor reaches the pin of R 1 click again, this will connect Vs to R 1 in a nice manner. Notice that a node number is automatically given. The mouse button was clicked at this location 4. Connect R 1 to R 2 : Figure 10: Manual connection of components In the same way connect R 1 to R 2 through the same procedure. 5. Making use of Junction to connect Ground: In the similar manner connect ground with V s and R 2. Notice that a small black circle appears just above the ground, this is called junction. When 2 or more components are connected at one point, a junction is created. A junction can also be placed manually by pressing Ctrl+J or selecting Edit Place Junction. This can be used to control the connection points manually. Also notice the ground node is automatically given node number 0. Do not alter it. This completes the connection and the complete circuit is shown in Figure 11. Figure 11: Complete Circuit in Multisim 6

6. Wire paths can be modified using drag points. Click on a wire. A number of drag points will appear on the wire as shown in Figure 12. Click any of these and drag to modify the shape. You can also add or remove drag points to give you even more control over the wire shape. To add or remove drag points, press CTRL and click on the location where you want the drag point added or removed. Drag Points Figure 12: Drag points for connecting wire STEP C: Placing Multimeter or Voltmeter in parallel to measure voltage. 1. To connect a Multimeter: a. Select View Toolbar Instruments. The Instruments toolbar will open as shown in Figure 13. Multimeter Figure 13: Instruments Toolbar b. Click on Multimeter icon. Now click in the workspace to place the Multimeter. Drag it and place it near resistor R 1 as shown in Figure 14. Make a connection from + terminal of Multimeter to the left pin of R 1 and from terminal to right pin of R 1. Note that reversal of + and terminals will give opposite readings. Figure 14: Multimeter connection for voltage measurement 7

c. Set the Multimeter to measure DC voltage: Double click on Multimeter to open the properties window shown in Figure 15. Select V to measure voltage. Select the DC wave shape. (Notice that the meter can also measure current A and resistance Ω. It can measure AC as well as DC values. Leave the window open for viewing the measurements. Selection for AC Measurement Selection for DC Measurement Figure 15: Multimeter properties window STEP D: Placing a Multimeter or Ammeter in series to measure current. 1. Place a second Multimeter in the workspace as we did in Step C. Remove the connection between R 1 and R 2. Connect the + terminal of the Multimeter towards R 1 and the - terminal towards R 2 as shown in Figure 16. 2. Set the Multimeter to measure current: Double click on this multimeter and select A in the multimeter properties window. Set the wave shape to DC. If current flows from 3 to zero, the meter will read positive. Figure 16: Multimeter connection for current measurement 8

STEP E: Simulate the circuit. 1. Save the file. Select File Save 2. Show the Simulate Switch, on the workspace. Select View Simulate Switch. 3. If the properties window is not open, double click the multimeters. Click to 1 position (ON) of the simulation switch to start simulation. Results will appear in the properties window of Multimeter. Compare your result with those in Figure 17 and show them to your instructor. Figure 17: Simulation result Exercise 1. Build the circuit of Figure 18 in Multisim Electronics Workbench. 2. Connect a voltmeter between nodes a and b. 3. Connect an ammeter for the measurement of I b0. D 9 E 5 9 LQ 5 9 5, E 9