# AME140 Lab #2 INTRODUCTION TO ELECTRONIC TEST EQUIPMENT AND BASIC ELECTRONICS MEASUREMENTS

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1 INTRODUCTION TO ELECTRONIC TEST EQUIPMENT AND BASIC ELECTRONICS MEASUREMENTS The purpose of this document is to guide students through a few simple activities to increase familiarity with basic electronics laboratory equipment. Electronic Components: Components: Resistors, Capacitors, and Inductors: Resistors: Resistors have three important ratings that must be observed, the resistance value, the precision of that value, and the maximum power it can dissipate. Resistance Value: The resistance that a particular resistor presents to the flow of current is shown on the device in color- coded bands. To read the code, hold the resistor so that the first band (closest to one end, or not gold or silver,) is on your left. Then the first 3 bands give the value of the resistance as follows: The first 2 bands give the significant digits of the value, without any decimal points: black 0 brown 1 red 2 orange 3 yellow 4 green 5 blue 6 violet 7 grey 8 white 9 The third band gives the power of ten by which you multiply the first two digits: black 10 0 brown 10 1 red 10 2 orange 10 3 yellow 10 4 green 10 5 blue 10 6 violet 10 7 grey 10 8 white 10 9 Thus a resistor with bands "green- red- blue" would have the value 52x10 6 Ω (NOTE: This is 52, NOT 5.2!!!) Precision of value: The precision of the resistor is denoted by the fourth band, no band=20%, silver=10%, gold=5%, red=2%. 1

2 Maximum power dissipation capacity: The maximum power that a resistor can dissipate is not marked on the device, but can be told from the physical size of the device. Standard values are 1/8, 1/4, 1/2, and 1 Watt, and up from there in 1 Watt steps. The smaller the resistor, the lower the power dissipation rating. There is danger in having a resistor with too small a power dissipation capability in a circuit, as they burn up if too much power is put through them, but the only reason not to have a larger one is the additional size and expense of higher power resistors. Capacitors: Capacitors store electric charge and are the second most common element in electronic circuits. They are described by their capacitance, safe working voltage, and type of insulator Capacitance: Values are given in micro (10-6 ) or pico (10-12 ) Farads. The value is often printed on the device, or sometimes there is a manufacturer's code. Unfortunately there is no uniform coding as there is for resistors. Working voltage: The working voltage of a capacitor is determined by the breakdown potential of the dielectric and typical values are 50 VDC, 100 VDC, and 250 VDC. As with resistors, using too high a value doesn't hurt except for the added size and weight and expense. Dielectric: Capacitors basically consist of conductive plates (metal) separated by an insulator (dielectric), and are made with many different materials as dielectrics, such as mica, polystyrene, mylar, teflon, ceramic or others. For noncritical uses the cheapest and most popular type of capacitor is the disk ceramic. Ceramic capacitors are not suitable for very high frequency use however and mica capacitors are usually used in such applications. Each type of dielectric has its own merits and the choice of capacitor depends on the intended application. Inductors: Inductors store magnetic fields and are the least common passive elements in modern circuits, appearing mostly in filters and in high frequency applications. Also, inductors are often the least ideal in their behavior. Inductors are described by their value of inductance, the quality factor (Q), and the maximum current they can carry. Inductance: Values are usually in the micro (10-6 ) to milli (10-3 ) Henry range. Again, the value may be printed on the case, or there may be a manufacturer's code, but there are essentially no standard symbols. Quality factor: The quality factor is a dimensionless parameter that is a measure of how ideal the inductor is, i.e. the ratio of inductance to resistance. Q will be discussed in lectures. Typical Q values for inductors are in the range of 40 or 50, that is the resistance is just a few percent of the inductive impedance at the intended operating frequency. Maximum current rating: As usual, the higher the current the higher the price and the larger the size. Many inductors are designed for high frequency, low current use, so these ratings are typically in the milliampere range. 2

5 2 BNC- to- clip leads for the oscilloscope 3 Banana- to banana leads (1 ea. red, black, green) 2 Probe leads for the DMM (1 ea. red, black) Digital Multimeters (DMM) Ohmmeter: Select a few resistors of different values from the parts bin in the lab, noting the value for each given on the front of the drawer. Use the color code given above to verify the nominal values of the resistors. Connect the DMM to measure resistance as described above and measure the actual resistance of each of the resistors that you selected. Note if they are within the tolerance shown by the fourth band. Volt Meter: Use the DMM as a voltmeter to measure the voltages on the power supplies. Familiarize yourself with the polarity of the power supply, how you would connect it up to get + 10 Volts, - 10 Volts etc. Ammeter: We will defer the use of the ammeter function until below. Breadboards: Insert the ends of one of the resistors that you selected into two different strips on the breadboard. (The resistor should be greater than 10kΩ.) Connect the +12 V power supply across it and using the multimeter, verify that the voltage drop is still 12 V. Then change the DMM configuration to that of an ammeter and measure the current flowing through the resistor. Compare the measured current to that expected from Ohm's Law? Signal Generators: Signal generators are best demonstrated in conjunction with an oscilloscope, so we defer the use of these until we use the scope a bit. Oscilloscope: Inputs and Time Base: Connect the output of the signal generator to the Channel 1 input of the oscilloscope. Adjust the generator to provide a sine wave with maximum amplitude and set the vertical deflection sensitivity of the scope appropriately. Vary the frequency of the generator over its complete range and adjust the scope sweep speed to maintain a usable display. Vary the offset voltage of the generator and observe its effect. How do you make sure that there is no offset present? Note how the amplitude and frequency of the mathematical description of the sine wave relate to the display on the oscilloscope? Trigger Level: Set triggering to NORM (NOT AUTO) and adjust the trigger level and slope controls and observe the effects. Also vary the signal input amplitude to verify that the trigger is generated at a determined voltage threshold. What happens when the input upon which you are triggering falls below the threshhold? LEARN TO RECOGNIZE WHAT HAPPENS WHEN THE SCOPE IS NOT TRIGGERED! THIS IS THE MOST COMMON SOURCE OF ERROR IN USING THE OSCILLOSCOPE. Now set the triggering to AUTO and repeat the above. ONCE AGAIN, LEARN TO RECOGNIZE A 'SCOPE THAT IS IN AUTO- TRIGGER MODE AND NOT SYNCHRONIZING PROPERLY! YOU SHOULD BE ABLE TO RECOGNIZE THIS FROM ACROSS THE ROOM AND KNOW WHAT TO DO ABOUT IT. If your scope has a slope (positive or negative) button press it and try to figure out what that does to the triggering of the scope. 5

6 More Time and Frequency: Measure the peak- to- peak (p- p) amplitude of the signal when the generator is set for maximum output. Measure the frequency of the signal when the generator dial is set for 1 khz, 10 khz, and 100 khz. Which setting is more accurate, the 'scope or the generator settings? Rise and Fall Time: Set the generator to produce square waves with a frequency of 1 khz. Ideally, a square wave changes from maximum negative to maximum positive values instantaneously. The real signal cannot, for physical reasons, go from the maximum negative level to the maximum positive level, or vice- versa, instantly. The rise- and fall- times of signals are conventionally defined as the time it takes the signal to go from 10% to 90% of the full voltage change (either increase or decrease.) Try to measure the rise time of the 1 khz square wave. Use of External Trigger: Connect the TTL OUTPUT of the signal generator to Channel 1, and the signal output to Channel 2 of the scope. Then set up a dual- trace display, making sure that channel 1 is selected as the trigger source, and inspect the time relationship between the TTL OUTPUT (or SYNC) and signal waveforms for all types of output. Verify that you can alter the signal amplitude without affecting the triggering of the scope. Now move the line from channel 1 to the EXT SYNC input of the 'scope and set the trigger source switch to external. Note that channel 2 remains the same as when triggering internally on channel 1. Vary the trigger level and slope and observe the effects on the display of channel 2. Verify again that you can alter the signal amplitude without affecting the triggering of the scope. Summary: By following these few simple steps hopefully you have gained some confidence in the use of the electronics test equipment. There is no written lab report but these simple skills will be indispensible for building and testing audio electronics. 6

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