Mechatronics Engineering
The mission of the program is to provide qualified students with a good foundation in Mechatronics Engineering in order to prepare them for a successful professional career and to contribute to the needs of society.
- To prepare mechatronics engineering professionals with proper ethics, training, and knowledge needed to compete in local and international markets.
- To provide graduates with proper background needed for research and graduate studies.
- To provide graduates with proper tools needed for adaptation with the global technical and economic development and to be engaged in lifelong learning.
- Ability to apply mathematics, science and engineering principles.
- Ability to design and conduct experiments, analyze and interpret data.
- An ability to design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability
- Ability to function on multidisciplinary teams.
- Ability to identify, formulate and solve engineering problems.
- Understanding of professional and ethical responsibility.
- Ability to communicate effectively.
- the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental, and societal context
- Recognition of the need for and an ability to engage in life-long learning.
- Knowledge of contemporary issues.
- Ability to use the techniques, skills and modern engineering tools necessary for engineering practice.
Mechatronics Engineering Fields
- Computer-machine controls.
- Sensors and control systems.
- Automation and robotics.
- Advancement of industrial technology.
- Design and manufacturing of industrial machinery.
- Computer aided design.
- Microcontrollers and PLCs.
- Automotive engineering and engine design
Study Plan
The study plan of the Mechatronics Engineering Program consists of 158 credit hours, distributed as follows:
|
Requirements |
Credit Hours |
|
University Requirements |
19-20 |
|
Faculty Requirements |
30 |
|
Program Requirements |
102 |
|
Elective Courses |
7-6 |
|
Total |
158 |
Program Requirements (102 Credit Hours)
Core Courses (99 Credit Hours) includes the following:
- Compulsory courses (99 Credit Hours) include the following:
|
Course No. |
Course Title |
Prerequisite(s) |
|
Calculus And Analytical Geometry 3 |
MATH1321 |
|
|
Introduction to Linear Algebra |
MATH1321 |
|
|
Numerical Methods |
MATH234, (COMP230 or COMP132, COMP142 or COMP133) |
|
|
Ordinary Differential Equations |
MATH1321 |
|
|
Basic Electrical Engineering Lab |
PHYS112, ENEE2311 |
|
|
Network Analysis 1 |
PHYS132 |
|
|
Analog Electronics |
ENEE2311 or ENEE2304 |
|
|
Analog Electronics Lab |
PHYS112, ENEE2360 |
|
|
Fundamentals Of Electrical Machines Lab. |
ENEE2101, ENEE4303 |
|
|
Electrical Machines Fundamental S |
ENEE2311 |
|
|
Power Electronics and Drive |
ENEE4303, ENEE2360 |
|
|
Digital Electronics & Computer Organization Lab |
ENCS238 or ENCS336 or ENCS432 or ENCS3341 |
|
|
Digital Systems |
COMP132 or COMP133 or COMP230 or COMP142 |
|
|
Embedded Systems |
ENCS2340 |
|
|
Embedded Systems Lab. |
ENCS3341 |
|
|
Mechanical Drawing |
ENME1210 |
|
|
Dynamics |
ENCE232 |
|
|
Statistical Analysis |
MATH2311 |
|
|
Engineering Measurement Lab |
PHYS112, ENMC3251 or concurrent |
|
|
Material Science |
CHEM143 |
|
|
Machine Dynamics |
ENME232 |
|
|
Thermodynamics |
PHYS141 |
|
|
Design Of Machine Elements |
ENCE232, ENME2111 |
|
|
Machine Design 2 |
(ENME435 or ENMC4421), ENME332 |
|
|
Control Systems |
MATH234, (ENMC4310 or concurrent) |
|
|
Fluid Power Control |
ENME4380, (ENME335 or ENMC4411) |
|
|
Computer Aided Engineering Lab. |
ENME2111 |
|
|
Thermal Fluid Engineering |
ENME232, ENME333 |
|
|
Thermal Fluid Laboratory |
ENMC4411 |
|
|
Practical Training |
Finishing 90 credits and Department Approval |
|
|
Mechanical Vibrations |
ENME232, MATH331 |
|
|
Sensors And Instrumentation |
ENCS2340, ENEE2360 |
|
|
Mechatronics Laboratory |
ENCS3341, (ENMC5371 or concurrent) |
|
|
Control Laboratory |
ENMC5362 or concurrent |
|
|
Introduction To Graduation Project |
Finishing 112 credits and Department Approval |
|
|
Graduation Project |
ENMC520 |
|
|
Advance Control Systems |
ENME4380 |
|
|
Mechatronics Systems Design |
ENEE4401, ENME4380 |
|
|
Digital Control Systems |
ENCS3341, ENMC5310 |
|
|
Industrial Automation |
ENME537, ENEE4401 |
2. Elective Courses:
(3 credit hours from the following course):
|
Course Code |
Course Title |
Prerequisite(s) |
|
Robotics |
ENME332, ENME4380 |
|
|
Special Topic in Mechatronics |
Department Approval |
|
|
CAD/CAM/ CNC |
(MATH330, ENMC3111) or (ENME433, MATH330)
|
|
|
Production Engineering 1 |
ENME331 |
- Student must successfully complete and obtain a cumulative average of 70% or more in the following courses:
MATH1411, MATH1321, PHYS141, PHYS132, ENME1210
- Department approval based on its capacity. In the case the number of applicants exceeds the enrolment capacity of the Department, only those with the highest overall competitive average grade will be admitted. The average grade will be calculated based on the grades of all course attempts.
The study plan of the Mechatronics Engineering Program consists of 158 credit hours, distributed as follows:
|
Requirements |
Credit Hours |
|
University Requirements |
19-20 |
|
Faculty Requirements |
30 |
|
Program Requirements |
102 |
|
Elective Courses |
7-6 |
|
Total |
158 |
