AM7187/543 M5430

Practices of Microsensors

Department
Applied Mechanics
Instructor
李尉彰Wei-Chang Li
Category
Graduate Courses_Spring Semester 2026

Course Introduction

AM7187 · 應用力學研究所

Practices of Microsensors

Practices of Microsensors — 114-2 Elective (3.0 credits).

AM7187 Curriculum Number 114-2 Semester 3.0 Credits 10 Seat Limit

✦ Course Information

Course title Practices of Microsensors
Semester 114-2
Designated for College of Engineering · Graduate Institute of Applied Mechanics
Curriculum Number AM7187
Curriculum Identity Number 543EM5430
Class
Credits 3.0
Full / Half Yr. Half
Required / Elective Elective
Remarks The upper limit of the number of students: 10.

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Class Section

Class Instructor Time Location
WEI-CHANG LI Tuesday 6, 7, 8 (13:20–16:20)

Course Description

The course aims to cultivate the hands-on capability using several modules on sensors and data processing practical practices.

Course Objective

Based on learning by doing, to make students to quickly catch up the skills of basic electronics, devices, data analysis.

Course Requirement

  • This course requires funding to cover equipment and material cost. To ensure proper funding usage, email the lecture before select this course to identify your need for taking this course.
  • Student Workload (Expected weekly study hours before and/or after class): —
  • Office Hours:
  • Designated reading:

References

Grading

評量方式

NTU has not set an upper limit on the percentage of A+ grades.

等第制

NTU uses a letter grade system for assessment. The grade percentage ranges and the single-subject grade conversion table in the NATIONAL TAIWAN UNIVERSITY Regulations Governing Academic Grading are for reference only. Instructors may adjust the percentage ranges according to the grade definitions. For more information, see the Assessment for Learning Section.

Progress

Week Date Topic
Week 1 MEMS Fabrication Process Overview
Week 2 Capacitive Transducers Modeling
Week 3 Nonlinearity in Capacitive Transducers
Week 4 Electrical Stiffness Modeling
Week 5 Stress Modeling in CMOS-MEMS Process
Week 6 Temperature Coefficient of Frequency
Week 7 Temperature Compensation Using Electrical Stiffness
Week 8 Midterm
Week 9 Nonlinearity in Resonators
Week 10 Internal Resonance Modeling
Week 11 FEA Simulation for Nonlinearity
Week 12 Mechanical Frequency Combs
Week 13 Applications of Mechanical Frequency Combs
Week 14 Impact Induced Nonlinearity
Week 15 Applications of Vibro-Impact Resonators
Week 16 Final Project Demo

Attachments

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