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Dec 26, 2024
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ELT 383 - Electronic Circuit Analysis Credits: 3 Lecture Hours: 3 Lab Hours: 0 Practicum Hours: 0 Work Experience: 0 Course Type: Voc/Tech An analytical introduction to direct current fundamentals essential in all phases of electricity and electronics. Topics covered include Ohm’s law, Kirchoff’s law, Thevenin-Norton and Superposition theorems, impedance, resonance, series and parallel circuits, resistors, capacitors, inductors, batteries, and meters. Corequisite: ELT 384 Competencies
- Understand the physics of electricity.
- Explain the structure of the atom
- Describe the motion of electrons in a closed circuit.
- Explain the differences between AC and DC current
- Evaluate various types of resistors and their parameters
- Read resistor color codes
- Identify types of variable resistors
- Calculate series and parallel combinations
- Utilize Ohm’s Law
- Evaluate the current, voltage, resistance relationships
- Identify the parameters of current, voltage, and resistance.
- Convert between various units of measure
- Evaluate power in electric circuits
- Analyze series circuits
- Calculate total resistance, current and power in series circuits
- Evaluate current flow and polarity in series circuits
- Evaluate series aiding and series opposing voltages.
- Analyze the effects of opens and shorts of series circuits
- Analyze parallel circuits
- Calculate total resistance, current, and power in parallel circuits.
- Evaluate current flow and polarity in parallel circuits.
- Analyze the effects of opens and shorts of parallel circuits
- Evaluate conductances in parallel
- Analyze series-parallel circuits
- Calculate total resistance, current, and power in series-parallel circuits
- Evaluate current flow and polarity in series-parallel circuits
- Analyze the effects of opens and shorts of series-parallel circuits.
- Utilize voltage and current dividers
- Calculate component voltages using voltage division.
- Calculate component current using current division
- Identify the components of a moving-coil meter
- Evaluate the operation of various meters
- Calibrate current, voltage, and resistance meters
- Evaluate the loading effects of meters
- Define Kirchoff’s laws
- Analyze circuits using Kirchoff’s laws.
- Analyze series circuits using Kirchoff’s voltage law
- Analyze parallel circuits using Kirchoff’s current law
- Analyze circuits using network theorems
- Calculate Thevenin equivalent circuits
- Analyze circuits using superposition
- Evaluate the parameters of insulators and conductors.
- Determine type, gage, and resistance of a conductor.
- Calculate temperature effects of resistance of conductors
- Identify types and functions of switches.
- Evaluate various types of batteries.
- Identify the various types of cells for examination.
- Identify the components of a cell.
- Evaluate series and parallel combinations of cells
- Evaluate internal resistance of cells.
- Calculate load matching of a supply.
- Define electromagnetic induction.
- Analyze alternating current and voltage.
- Explain the generation of alternating current and voltage
- Provide an explanation of the sine wave
- Voltage and current values for a sine wave
- Calculate frequency, period and wavelength of a sine wave
- Determine phase angle
- Analyze inductance
- Explain self inductance
- Provide an explanation of mutual inductance.
- Calculate series and parallel inductances
- Evaluate mutual inductance.
- Calculate transformer parameters
- Analyze inductive reactance
- Indicate the effect of XL on AC current and voltage
- Calculate inductive reactance in series and parallel
- Evaluate inductive reactance using Ohm’s law.
- Examine inductive circuits
- Examine the phase relationship of V and I in inductive circuits
- Calculate total impedance of series and parallel R-L circuits.
- Determine the Q of an inductor.
- Calculate power relationships in inductive circuits.
- Examine Capacitance
- Define how charge is stored in a capacitor
- Identify charge and discharge curves of a capacitor.
- Calculate total capacitance series and parallel capacitors.
- Examine capacitive reactance
- Indicate the effect of capacitance of AC voltage and current
- Calculate capacitive reactance
- Determine series and parallel capacitive reactances
- Evaluate capacitive reactance using Ohm’s law
- Evaluate capacitive circuits
- Describe the phase relationship of voltage and current in capacitive circuits
- Calculate the total impedance of series and parallel R-C circuits.
- Utilize capacitive voltage dividers
- Calculate power relationships in capacitive circuits
- Analyze R/C and R/L time constants
- Calculate R-C and R-L time constants
- Plot R-C and R-L time constant curves
- Describe the effects of long and short time constants
- Utilize complex numbers in solving AC circuits
- Define a complex number
- Indicate impedance in complex form.
- Perform polar to rectangular and rectangular to polar conversions.
- Evaluate AC circuits using complex numbers and Ohm’s law
- Examine Resonance and parallel resonance.
- Explain series resonant frequency.
- Calculate the resonate circuits
- Determine bandwidth of resonant circuits.
- Determine the Q factor of resonant circuits
- Examine filter circuits, low pass, band pass and band stop filters.
- Identify high pass circuits
- Calculate the critical frequency of filter circuits
- Indicate the output waveforms of filter circuits.
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