| 1.
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Define basic electricity terms. (I)
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| 2.
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Use standard color code to determine resistance values (I)
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| 3.
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Make circuit measurements using ammeter, voltmeter, ohmmeter, and
oscilloscope. (I, II, III)
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| 4.
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Use Ohm's law and Kirchhoff's laws to solve series, parallel, and
series-parallel circuit problems. (I)
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| 5.
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Apply principles of superposition and Thevenin's and Norton's theorems
to simple circuits. (I, II, III)
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| 6.
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Describe the properties of electric fields, resistance of conductors
and semiconductors, and the temperature dependence of the property of
resistance. (I, III)
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| 7.
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Describe the property of capacitance and the physical properties that
affect capitance. (I)
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| 8.
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Determine the transient response of current and voltage in capacitive
resistive, inductive resistive, and capacitive, inductive and
resistive connected components. (II)
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| 9.
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Describe the properties of magnetic fields and magnetic materials, and
relate then to the operation of magnetic devices. (I)
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| 10.
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Describe the properties of electromagnetic induction and self
induction and the physical properties that affect inductance. (I, II)
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| 11.
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Determine the frequency and calculate peak, peak-to-peak, and RMS
values of a sine wave. (II)
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| 12.
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Calculate voltages and currents using phasors (II)
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| 13.
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Calculate equivalent inductance and capitance of devices connected in
series, parallel, and series-parallel. (II)
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| 14.
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Analyze the ideal transformer in terms of voltage, current and
impedance. (II)
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| 15.
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Calculate voltages and currents for series, parallel, and
series-parallel AC circuits. (II)
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| 16.
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Explain the use and application of filters. (II)
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| 17.
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Define these electronic terms: intrinsic semiconductor, n-type
material, p-type material, doping, covalent bonding, pentavalent atoms
and trivalent atoms. (III)
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| 18.
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Explain the operation and applications of a forward and revere-biased
diode. (III)
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| 19.
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Describe the functions of the base, emitter, and collector of a
bipolar transistor, and explain how they are biased. (III)
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| 20.
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Solve for all DC voltages and currents in the three basic transistor
amplifier configurations: CE, CC, CB. (III)
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| 21.
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Explain the operation of Field effect transistors and correct biasing
techniques. (III)
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| 22.
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Build and troubleshoot transistor amplifiers (III)
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| 23.
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Apply the scientific method of inquiry and deduction to the laws,
theories and axioms of DC,AC and solid state circuits in specific
laboratory experiments. (I, II, III)
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