SRJC Course Outlines

 8/11/2024 2:35:22 AM ENGR 16 Course Outline as of Fall 2021 Changed Course CATALOG INFORMATION Discipline and Nbr:  ENGR 16 Title:  ELEC CIRC & DEVICES Full Title:  Electric Circuits and Devices Last Reviewed:1/25/2021

 Units Course Hours per Week Nbr of Weeks Course Hours Total Maximum 4.00 Lecture Scheduled 3.00 17.5 max. Lecture Scheduled 52.50 Minimum 4.00 Lab Scheduled 3.00 8 min. Lab Scheduled 52.50 Contact DHR 0 Contact DHR 0 Contact Total 6.00 Contact Total 105.00 Non-contact DHR 0 Non-contact DHR Total 0

 Total Out of Class Hours:  105.00 Total Student Learning Hours: 210.00

Title 5 Category:  AA Degree Applicable
Repeatability:  00 - Two Repeats if Grade was D, F, NC, or NP
Also Listed As:
Formerly:

Catalog Description:
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Fundamental principles of circuit analysis and an introduction to the theory and use of common electronic devices. Subjects covered include: node and loop analysis, circuit simplification and equivalence, natural and forced response, operational amplifier behavior and circuits, semiconductor theory and behavior, diodes, transistors, and digital circuits. Mathematical concepts reviewed and applied include: matrices and system of equations solutions, binary and hexadecimal numbers, Fourier and Laplace transforms, complex numbers and phasors. Students are required to have a graphing calculator with CAS (Computer Algebra System).

Prerequisites/Corequisites:
Course Completion of PHYS 42 AND Course Completion or Current Enrollment in MATH 2

Recommended Preparation:

Limits on Enrollment:

Schedule of Classes Information
Description: Untitled document
Fundamental principles of circuit analysis and an introduction to the theory and use of common electronic devices. Subjects covered include: node and loop analysis, circuit simplification and equivalence, natural and forced response, operational amplifier behavior and circuits, semiconductor theory and behavior, diodes, transistors, and digital circuits. Mathematical concepts reviewed and applied include: matrices and system of equations solutions, binary and hexadecimal numbers, Fourier and Laplace transforms, complex numbers and phasors. Students are required to have a graphing calculator with CAS (Computer Algebra System).

Prerequisites:Course Completion of PHYS 42 AND Course Completion or Current Enrollment in MATH 2
Recommended:
Limits on Enrollment:
Transfer Credit:CSU;UC.
Repeatability:00 - Two Repeats if Grade was D, F, NC, or NP

ARTICULATION, MAJOR, and CERTIFICATION INFORMATION

 Associate Degree: Effective: Inactive: Area: CSU GE: Transfer Area Effective: Inactive: IGETC: Transfer Area Effective: Inactive: CSU Transfer: Transferable Effective: Fall 1981 Inactive: UC Transfer: Transferable Effective: Fall 1981 Inactive: C-ID:

Certificate/Major Applicable: Major Applicable Course

COURSE CONTENT

Student Learning Outcomes:
At the conclusion of this course, the student should be able to:
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1.   Apply the complete range of circuit analysis techniques to determine voltages, currents, and power in alternating current, direct current, and transient response circuits.
2.   Explain and mathematically characterize the operation of common electronic devices including operational amplifiers, timing and counter chips, digital building blocks, diodes, and transistors.
3.   Demonstrate the proper use of electronic lab equipment such as oscilloscopes, multimeters, frequency generators, power supplies, and prototyping boards.
4.   Apply professional documentation standards to lab experiment and technical analysis reports.

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At the conclusion of this course, the student should be able to:
1.    Draw schematic circuit diagrams, labeling and defining voltage and current variables according to standard conventions of component, loop, and nodal analysis.
2.    Solve for the voltages, currents, and power in complex direct current circuits with independent and dependent sources using Kirchoff's laws, node and loop analysis, voltage and current dividers.
3.    Use parallel and series simplification relationships, Thevenin and Norton equivalence laws, and superposition and suppression principles to simplify circuits.
4.    Apply complex numbers, phasor analysis and impedance to find the voltages, currents, and power of complex alternating current circuits with independent and dependent sources.
5.    Estimate and compute frequency response, construct and interpret Bode plots, and design, build, and test prototypes of passive and active alternating current filter circuits.
6.    Find the transient and total responses caused by step inputs to first- and second-order circuits with given initial conditions.
7.    Analyze and test diode circuits using the ideal, offset, graphical and data sheet modeling.
8.    Analyze, design and construct bipolar junction transistor circuits using small and large signal models.
9.    Construct and predict the output of digital circuits composed of gate, flip-flops, counters and decoders.
10.  Model circuits using circuit simulation software.
11.  Solder components onto a printed circuit board.
12.  Set up and run lab experiments using standard electronic equipment including oscilloscopes, multimeters, frequency counters, signal generators, power supplies, and prototyping boards.
13.  Use thorough and careful data collection and analysis techniques and apply industry standard report documentation to deliver professional quality technical reports.

Topics and Scope
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Lecture & Lab, Topics & Scope
I.  Principles and Techniques of Direct Current Circuit Analysis
A. Circuit elements and Kirchhoff's Laws
B. Voltage and current dividers
C. Mesh and nodal circuit analysis
D. Power calculations
E. Network theorems (Thevenin, Norton, and maximum power)
F. Graphical solutions for nonlinear circuit elements
G. Measurement instrumentation (voltmeter, ammeter, and oscilloscope)
II.  Alternating Current Circuit Analysis
A. Amplitude (root mean squared and peak), period, phase, and frequency
B. Sinusoidal voltages and currents
C. Periodic signals (e.g. square wave, sawtooth)
D. Review of complex numbers
E. Phasors
F. Impedance
G. Alternating current power
H. Frequency response and Bode plots
I.  Natural response
J. Total response
K. Pole-zero diagrams (optional)
L. Practical applications (e.g. resonant circuits, impedance matching, three-phase circuits)
III.  Analog Building Blocks
A. Analog signals and systems
B. Dependent sources
C. Modeling concepts
D. Input and output resistance
E. Open-circuit voltage amplification
F. Practical applications (e.g. batteries and other real sources)
IV.  Semiconductors
A. Physical and chemical properties of doped semiconductors
B. Diodes, ideal and non-ideal behavior
C. Transistor behavior and manufacturing
D. Transistor biasing and modeling
E. Graphical circuit analysis for non-linear elements
F. Practical applications (e.g. amplifiers, logic gates)
V.  Operational Amplifiers
A. Characteristics of operational amplifiers
B. Circuit analysis assuming ideal op amps
C. Non-ideal op amp behavior
D. Op amp realizations
E. Practical applications (e.g. op amp math circuits)
VI.  Digital Building Block
A. Digital signals and binary numbers
B. Logic gates (e.g. function and realization)
C. Logic chips (e.g. function, realization, and manufacture)
D. Digital systems (e.g. combinational logic and memory)
E. Practical applications (e.g. state machines, computers)
VII.  Laboratory Exercises
A.Resistance measurement and circuit simulation
B. Printed circuit board assembly
C. Sinusoidal voltage measurements
D. Superposition and Thevenin equivalence modeling
E. Alternating current analysis and filters
F. Operational amplifiers
G. Transient response
H. Diode rectification
I. Transistor biasing and amplification
J. Digital counter and display
K. Stoplight state machine (optional)

Assignments:
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1.  Homework problem sets (10 - 15)
2.  Lab worksheets, reports, and technical memos (10 - 15)
3.  Quiz(zes) (0 - 10)
4.  Examinations (2 - 5)
5.  Comprehensive final examination
6.  Textbook reading (approximately 40 pages per week)