The Bachelor of Technology (B.Tech) in Automation and Control program is designed to equip students with the theoretical knowledge and practical skills required to understand, design, and implement automated systems in various industries. The core focus of this program includes control systems, robotics, instrumentation, process automation, and advanced manufacturing techniques. Graduates of this program are prepared to take on roles in industries such as manufacturing, automotive, aerospace, and energy, where automation and control technologies play a critical role in enhancing productivity, efficiency, and safety.
PROGRAMME |
SEMESTRE |
DURATION |
CREDIT |
PARTNER INSTITUTION |
ACCREDITATION |
AUTOMATION AND CONTROL |
6 SEMESTERS |
3 YEARS |
360 |
UNIVERSITY OF BUEA |
|
CORE OBJECTIVES
1. Develop a Strong Understanding of Automation and Control Systems
- – Control Systems : Teach students the fundamental principles of control systems, including feedback loops, stability analysis, and control strategies to maintain desired system behavior.
- – Instrumentation : Provide an understanding of sensors, actuators, and measurement systems used in automation to monitor and control physical processes.
- – Process Control : Equip students with knowledge of process control techniques for optimizing industrial processes such as chemical, mechanical, and electrical systems.
2. Promote the Application of Automation in Various Industries
- – Industrial Automation : Teach students how to design and implement automated systems in manufacturing industries, including assembly lines, quality control, and automated material handling systems.
- – Robotics : Introduce students to the principles of robotics, including robot design, kinematics, path planning, and programming for automation tasks.
- – PLC (Programmable Logic Controllers) : Equip students with practical knowledge of PLC programming and integration in industrial control systems.
- – SCADA (Supervisory Control and Data Acquisition) : Provide students with the tools to design, operate, and maintain SCADA systems for large-scale industrial operations.
3. Enhance Skills in System Design and Integration
- – System Design : Teach students how to design integrated automation systems, ensuring compatibility and functionality between various components like sensors, controllers, and actuators.
- – Advanced Manufacturing Technologies : Introduce modern manufacturing techniques such as CNC (Computer Numerical Control) systems, additive manufacturing (3D printing), and smart manufacturing practices that incorporate automation.
- – Optimization of Automated Systems : Train students in system optimization techniques to enhance performance, reduce costs, and increase system reliability in automated environments.
4. Develop Expertise in Mechatronics and Robotics
- – Mechatronics : Equip students with interdisciplinary knowledge combining mechanical, electrical, and software engineering for designing and controlling automated systems.
- – Robot Programming and Control : Teach students to program and control industrial robots, including knowledge of robot operating systems, motion control, and sensor integration.
- – AI and Machine Learning in Automation : Introduce students to the role of artificial intelligence and machine learning algorithms in optimizing and improving the efficiency of automated systems.
5. Foster Research and Development in Automation and Control
- – Automation Innovation : Encourage students to engage in research and development activities aimed at advancing automation technologies, with an emphasis on improving energy efficiency, speed, and safety in industrial environments.
- – AI-Driven Automation : Explore how artificial intelligence is transforming automation through machine learning, predictive maintenance, and advanced decision-making systems.
- – Smart Grids and IoT : Train students on the integration of Internet of Things (IoT) devices and smart grids into automation systems for improved energy distribution and management.
6. Prepare Students for Practical Applications and Industry Needs
- – Hands-on Projects and Labs : Provide practical experience through labs and industry projects that allow students to implement automation solutions in real-world scenarios.
- – Control System Simulation : Teach students to use software tools to simulate control systems and predict their behavior under various conditions before implementation.
- – Industry Collaboration : Offer opportunities for students to work with industry partners to solve automation challenges, ensuring students gain experience in dealing with the latest technological developments and standards.
7. Strengthen Communication, Leadership, and Teamwork Skills
- – Effective Communication : Equip students with the ability to effectively communicate technical concepts related to automation systems to both technical and non-technical stakeholders through reports, presentations, and technical documentation.
- – Leadership and Project Management : Develop leadership skills for managing teams and projects in the field of automation, focusing on decision-making, resource management, and strategic planning.
- – Collaboration and Networking : Promote collaboration with industry experts, engineers, and researchers through internships, conferences, and project-based learning to build a strong professional network.
8. Foster an Understanding of Automation Ethics and Sustainability
- – Ethics in Automation : Teach students about the ethical issues surrounding automation, including job displacement, privacy concerns, and the societal impacts of increased automation.
- – Sustainable Practices : Encourage students to incorporate sustainability into automation systems by designing energy-efficient, environmentally-friendly solutions that minimize waste and reduce carbon footprints.
9. Prepare Students for Career Readiness and Professional Development
- – Internships and Industry Experience : Offer students opportunities for internships and fieldwork with leading automation companies, providing exposure to cutting-edge technologies and industry practices.
- – Certifications and Professional Development : Help students prepare for industry certifications like Certified Control Systems Technician (CCST), Certified Automation Professional (CAP), and other relevant qualifications.
- – Career Services and Networking : Provide career counseling, resume-building support, and networking opportunities with professionals in the automation and control industry to help students transition from education to the workforce.
10. Encourage Lifelong Learning and Continuous Improvement
- – Commitment to Lifelong Learning : Instill a mindset of continuous learning, encouraging students to stay current with advancements in communication technologies, networking protocols, and industry trends.
- – Innovation and Adaptability : Prepare students to innovate and adapt to the rapidly evolving communications and networking fields, focusing on emerging technologies and next-generation network architectures.
CAREER OPPORTUNITIES
1. Automation Engineer
- – Role : Design, develop, and maintain automated systems in various industries such as manufacturing, automotive, and energy, optimizing processes for efficiency and cost-effectiveness.
2. Control Systems Engineer
- – Role : Develop and implement control systems to regulate the behavior of machines and processes in industries like chemical, petrochemical, and power generation.
3. Robotics Engineer
- – Role : Specialize in the design, construction, and programming of robots for industrial, medical, and consumer applications, focusing on increasing automation and precision.
4. PLC Programmer
- – Role : Write and implement programs for programmable logic controllers (PLCs) used in industrial automation systems to control machinery and processes.
5. Mechatronics Engineer
- – Role : Work on interdisciplinary projects involving mechanical, electrical, and software systems, focusing on integrating automated systems in manufacturing and robotics.
6. Instrumentation Engineer
- – Role : Design, install, and maintain systems that measure and control industrial processes, using sensors and actuators to optimize system performance and reliability.
7. Process Control Engineer
- – Role : Focus on optimizing industrial processes through automation, using sensors, control systems, and data analytics to monitor and improve operations.
8. Automation Systems Designer
- – Role : Design and integrate complex automated systems for specific industrial applications, such as production lines, packaging systems, or energy systems.
9. Test Engineer (Automation)
- – Role : Responsible for testing automated systems and ensuring that control systems, robots, and other equipment perform according to specifications.
10. Research and Development Engineer
- – Role : Engage in the development of new automation technologies, focusing on advanced manufacturing, robotics, and process automation to improve system efficiency and innovation.