Master Course Description for EE-463 (ABET sheet)
Title: Microwave Electronic Design
Credits: 4
Coordinator: Yasuo Kuga, Professor, Electrical and Computer Engineering
Goals: To expose students to microwave circuit analysis, design, fabrication, and testing.
Learning Objectives: At the end of this course, students will be able to:
- Understand and use microwave CAD software and measurement techniques.
- Design simple passive and active microwave circuits.
- Design, fabricate, and test a microwave amplifier.
Textbook: D. Pozar, Microwave Engineering, 4th Ed., Wiley, 2012, ISBN 978-0-470-63155-3
References:
- Lecture notes
- Lab handout
- Ansoft Designer references
Prerequisites by Topic:
- Electromagnetic theory of transmission lines
- Smith chart and matching techniques
- Basic circuit analysis
Topics:
- Introduction to microwave transmission lines and matching techniques (1.5 week)
- Microstrip transmission lines
- Single and double stub tuning circuits
- Quarter-wave impedance matching circuits
- Quadrature and 180 degree hybrid analysis and design (2 weeks)
- Even- and odd-mode analysis of hybrids
- Reciprocal and lossless networks
- Cascaded network using ABCD parameters
- Frequency responses
- Low-pass and high-pass filter analysis and design (2 weeks)
- Filter design by insertion loss method
- Stepped impedance filter
- Filter transformation
- Filter implementation using microstrip lines
- Noise analysis (1.5 week)
- Noise in devices and systems
- Noise figure and noise temperature
- Non-linear responses of microwave circuits
- Design and fabrication of a microwave amplifier (2 weeks)
- Gain and stability analysis
- Input and output matching circuits
- Dynamic range, noise and non-linearity
- Microwave systems (1 week)
- Radar
- Radiometers
- Microwave communication systems
Course Structure: Lectures are organized so that the students can analyze and design the passive and
active microwave circuits assigned for each lab project. The first two weeks cover basic transmission line theory
and S-parameter analysis. The following eight weeks are divided into lab projects and a final project. Each project
starts with analysis followed by simulations using CAD programs. Students must also fabricate the circuits and evaluate
the performance.
Laboratory projects:
- Lab1 - Introduction to network analyzers
- One- and two-port calibration techniques
- Time- and frequency-domain analysis
- Unknown impedance measurements
- Lab 2 - Matching circuit design by Designer
- Single- and double-stub matching circuit design using CAD
- Smith chart analysis
- Circuit optimization using Designer
- Lab 3 - Quadrature hybrid design and fabrication
- Design of a 90-degree or 180-degree hybrid
- Circuit fabrication using a CAD program and copper tape
- S-parameter measurements using a network analyzer
- Lab 4 - Low-pass filter design and fabrication
- Design of Butterworth, Chebysheb, Stepped impedance LPFs
- Circuit fabrication using a CAD program and copper tape
- S-parameter measurements using a network analyzer
- Final Project: Amplifier design and fabrication
- Narrow-band amplifier design using Designer
- Circuit fabrication using a CAD program
- Gain measurements using a network analyzer
- Stability check and dynamic range measurements
Computer Resources:
- Ansys Electronics Desktop microwave circuit design software
- Layout CAD program
Laboratory Resources:
- Vector network analyzer
- Other microwave equipment:
- Spectrum analyzer
- Signal generator
- Noise source
Grading: 30% midterm and final exams, 40% lab projects, 30% final project
ABET Student Outcome Coverage: This course addresses the following outcomes:
H = high relevance, M = medium relevance, L = low relevance to course.
(2) An ability to apply engineering design to produce solutions that meet specified needs with consideration
of public health, safety, and welfare, as well as global, cultural, social, environmental, and economic factors.
(H) Students use microwave CAD software (Ansys ED) and modern microwave measurement systems (network analyzer,
signal generators, spectrum analyzer). Similar equipment and software are widely used in industry. The instructor
will discuss the professional ethics and responsibility in class.
(3) An ability to communicate effectively with a range of audiences. (H) Students must prepare
extensive written project reports. Grades are given for writing quality as well as technical content of the reports.
Prepared by: Yasuo Kuga
Last revised: 2/14/2019