<!doctype html public "-//IETF//DTD HTML//EN">EE 305
- ELECTRICAL CIRCUITS AND ELECTRONICS
CATALOG DATA:
A service course covering
electrical engineering principles for engineering or science students with
majors outside of electrical engineering.
Topics include: circuits
analysis, power, electronics, digital logic and instrumentation.
TEXTBOOK:
Rizzoni, Principles and
Applications of
COORDINATOR:
Janet Lumpp, Associate Professor in Electrical
Engineering
GOALS:
The objective of this course
is to provide students with a working knowledge of basic circuit laws for DC
and AC circuits and to apply these laws to basic electronic circuits that
employ diodes, bipoler junction transistors and field
effect transistors.
PREREQUISITE:
PHY 232, MA 114
TOPICS:
1.
Circuit Laws and
Elements (Ohm's Law; Kirchoff's Laws; Superpositia Thevenin and Norton; Nodal; Mesh Maximum Power
Transfer)
2.
Energy Storage
3.
AC Circuits; phasors; complex power; filters
4.
Diodes
5.
Bipolar Junction
Transistors; Amplifiers
6.
Field Effect
Transistors; Amplifiers
7.
OP AMP
OUTCOME:
The following competencies
are taught to the students:
1.
Be able to apply
node voltage analysis and mesh current analysis.
2.
Be able to perform
ac circuit analysis with phasors.
3.
Be able to
perform power analysis in AC and DC circuits
4.
Understand
transistor fundamentals in amplifier and signal processing circuits.
5.
Analyze and
design signal-conditioning circuits, active filters, integrator, and
differentiator circuits containing operational amplifiers.
6.
Be able to
perform operations with binary numbers, design combinational logic circuits
using logic gates, and use Karnaugh maps to reduce
logical expressions.
7.
Be able to
perform power analysis on AC and DC machines.
8.
Understand the
principal classes of sensors, concepts of shielding and grounding,
ground-referenced and differential inputs, noise, and signal conditioning..
COMPUTER USAGE:
None
LABORATORY:
None
DESIGN CONTENT:
OP AMPS and electronic
amplifiers are designed with emphasis on instrumentation
CLASS SCHEDULE:
Lecture 3 hours per week
PROFESSIONAL CONTRIBUTION:
Engineering Science: 2
credits (66%)
Engineering Design: 1 credit
(33%)
R
These course outcomes fulfill the following program
objectives:
(a) an ability to apply
knowledge of mathematics, science, and engineering.
(c) an ability to design a
system, component, or process to meet desired needs.
(k) an ability to use the
techniques, skills, and modern engineering tools necessary for engineering
practice.
PREPARED BY:
Janet Lumpp, March 2004