A Bachelor of Engineering in Electromechanical Engineering (B.Eng. Electromechanical Engineering) is an interdisciplinary program that combines principles from both electrical and mechanical engineering to prepare students for designing, developing, and maintaining complex systems that integrate electrical and mechanical components. This program covers a broad range of topics, including circuit design, robotics, thermodynamics, fluid mechanics, control systems, and automation.
| PROGRAMME |
SEMESTRE |
DURATION |
CREDIT |
PARTNER INSTITUTION |
ACCREDITATION |
| ELECTROMECHANICAL ENGINEERING |
8 SEMESTERS |
4YEARS |
240 |
UNIVERSITY OF BUEA |
|
CORE OBJECTIVES
1. Develop a Strong Foundation in Engineering Principles
- – Fundamental Concepts: Equip students with a solid understanding of core engineering principles, including mechanics, thermodynamics, electromagnetism, fluid dynamics, and control systems.
- – Mathematical and Physical Analysis: Teach students the application of advanced mathematics, physics, and computational methods to model, analyze, and solve engineering problems.
- – Engineering Mechanics: Focus on the principles of statics, dynamics, and strength of materials, as well as structural analysis, which are crucial for designing electromechanical systems.
2. Enhance Knowledge of Electrical and Mechanical Systems Integration
- – Electromechanical Systems: Provide a comprehensive understanding of how electrical and mechanical systems interact, focusing on areas such as motors, actuators, sensors, and control systems.
- – Mechanical Systems Design: Teach students to design and analyze mechanical systems, including machines, mechanical components, and thermal systems.
- – Electrical Systems Design: Provide knowledge of electrical circuits, power systems, electrical control systems, and electronics, ensuring students can design and troubleshoot electrical subsystems in electromechanical systems.
3. Develop Expertise in Control Systems and Automation
- – Control Theory: Equip students with a strong understanding of control theory, including PID control, feedback loops, stability analysis, and control system design.
- – Automation and Robotics: Introduce students to automation systems, robotics, and mechatronics, focusing on the integration of sensors, actuators, and control systems to create intelligent systems.
- – Industrial Control: Teach the application of control systems in industrial settings, including programmable logic controllers (PLCs), SCADA systems, and advanced automation techniques.
4. Prepare Students for Design, Manufacturing, and Testing
- – Product Design and Development: Provide students with the tools and techniques necessary for designing electromechanical products, including the use of CAD software, prototyping, and simulation tools.
- – Manufacturing Processes: Teach students about manufacturing methods, such as machining, casting, and 3D printing, and how these methods affect electromechanical system design.
- – Testing and Quality Assurance: Equip students with the knowledge of testing methodologies, quality control, and product validation to ensure that electromechanical systems meet performance standards.
CAREER OPPORTUNITIES
1. Mechanical Design Engineer
- – Role: Focus on designing mechanical systems, products, or components, using CAD (Computer-Aided Design) software and other engineering tools.
- – Skills Needed: Proficiency in CAD software (SolidWorks, AutoCAD), material science, mechanical systems, problem-solving, and creativity.
- – Industry: Automotive, consumer electronics, industrial equipment, manufacturing.
2. Maintenance Engineer
- – Role: Ensure that mechanical systems and equipment run smoothly by performing routine maintenance, troubleshooting issues, and managing repairs.
- – Skills Needed: Mechanical troubleshooting, equipment design, preventative maintenance, safety protocols.
- – Industry: Manufacturing, energy, transportation, utilities.
3. Mechatronics Engineer
- – Role: Combine mechanical engineering with electronics and computer science to create smarter, more efficient systems and products.
- – Skills Needed: Knowledge of mechanical systems, electronics, automation, control systems, and software development.
- – Industry: Robotics, automotive, manufacturing, aerospace.
4. Industrial Engineer
- – Role: Optimize systems and processes in manufacturing or production settings to improve efficiency, reduce waste, and lower costs.
- – Skills Needed: Process design, optimization techniques, systems analysis, operations management.
- – Industry: Manufacturing, logistics, supply chain management.
