Mechatronics Certificate

The Department of Mechanical Engineering offers a Certificate of Mechatronics. The certificate program is open to all matriculated, upper-division College of Engineering students or any student who has a bachelor’s degree from a recognized engineering program or an allied science. To obtain the certificate the student must complete 22 credit hours of mechatronics course work, plus a mechatronics project. The course work is made up of eight hours of core courses, ME EN 3200 and 3210, and 14 hours of electives. The requirements are described in more detail below.

Certificate Requirements

Any student in the college of engineering (or related sciences) can earn a certificate in mechatronics by passing the required classes and 14 semester hours of courses from the list of approved electives, and by completing an approved mechatronics project. The certificate will be awarded with the bachelor’s degree (B. S.) or at the graduate level.

Required Courses

Pass the year-long Mechatronics sequence (ME EN 3200 and 3210 or equivalent) receiving a grade of B- or better.

Approved Elective Courses

The student must pass 14 hours from the following list of classes, with a grade of B- or better. Other courses can be used with approval from Drs. Meek or Minor.

Course #
ME EN 5200Classical Control SystemsFall3
ME EN 5205System DynamicsFall3
ME EN 5210State Space ControlSpring3
ME EN 5220RoboticsFall3
ME EN 5230Robot ControlSpring3
ME EN 5240Advanced MechatronicsSpring4
ME EN 5670Control of Electric MotorsFall3
ECE/CS 5780Embedded System DesignSpring3
PHYS 3610Electronics for Scientific InstrumentationFall3
PHYS 3620Data Acquisition for Scientific InstrumentationSpring3


Mechatronics Project Requirements

The Mechanical Engineering Department’s Mechatronics Committee must approve each student’s mechatronics project, which must be completed as part of the requirements for the Mechatronics Certificate. Each student’s project must include the following:

  1. Use of micro-controller-based or embedded controllers;
  2. Mechanical and Electrical component design such as actuators, sensors, signal conditioning, and mechanisms;
  3. Use of sensors and actuators for feedback-based control.