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M.ENG – INSTRUMENTATION ENGINEERING

The Master of Engineering in Instrumentation Engineering program is designed to develop advanced skills in the design, development, and management of instrumentation systems used in industries such as manufacturing, process control, aerospace, automotive, and energy. Students will gain comprehensive knowledge of the latest technologies and methodologies in instrumentation, sensor technologies, automation, and control systems, focusing on enhancing operational efficiency, accuracy, and safety. This program emphasizes practical experience and innovation, preparing students to handle complex instrumentation challenges in diverse industrial sectors.

PROGRAMME  SEMESTRE   DURATION  CREDIT  PARTNER INSTITUTION  ACCREDITATION  
INSTRUMENTAL ENGINEERING    2 SMESTERS   2 YEARS  120  UNIVERSITY OF BUEA   

OBJECTIFS

1. Develop a Strong Foundation in Instrumentation Engineering Principles

  • – Introduction to Instrumentation Systems : Teach students the fundamental concepts of instrumentation systems, including sensors, actuators, transducers, and control systems used to measure and regulate physical parameters such as temperature, pressure, flow, and level.
  • – Measurement Systems : Equip students with the knowledge of various types of measurement systems, signal processing techniques, and error analysis to ensure accurate data collection and interpretation.
  • – Sensors and Transducers : Introduce students to a wide range of sensors and transducers used in industrial applications, including temperature sensors, pressure sensors, flow meters, and strain gauges, and their working principles and applications.
  • – Control Systems : Provide students with an understanding of control systems, including feedback loops, PID control, and advanced control strategies used in industrial automation and process control.

 

2. Enhance Expertise in Advanced Instrumentation and Automation Techniques

  • – Automation and Process Control : Teach students the principles of automation and process control systems, including programmable logic controllers (PLCs), distributed control systems (DCS), and supervisory control and data acquisition (SCADA) systems used in industries such as manufacturing, energy, and chemical processing.
  • – Embedded Systems in Instrumentation : Equip students with the knowledge of embedded systems and microcontroller-based instrumentation applications, including sensor interfacing, data acquisition, and real-time control.
  • – Digital Signal Processing (DSP) : Provide students with skills in digital signal processing techniques used in modern instrumentation systems to enhance measurement accuracy, noise reduction, and data analysis.
  • – Industrial Communication Protocols : Teach students about industrial communication networks and protocols such as Modbus, Profibus, CAN, and Ethernet, which are used to facilitate communication between instruments and control systems.

 

3. Promote the Development of Precision Measurement and Calibration Techniques

  • – Precision Instrumentation : Equip students with the skills to design and maintain high-precision measurement instruments, ensuring that instruments meet required standards and deliver accurate, reliable results.
  • – Calibration and Validation : Provide students with knowledge of calibration techniques and standards used to ensure the accuracy of instruments in industrial settings, including traceability to national and international standards.
  • – Measurement Uncertainty : Teach students how to quantify and minimize measurement uncertainty in instrumentation systems to ensure the reliability and consistency of measurement results across a variety of conditions.

 

4. Advance Expertise in Instrumentation System Design and Integration

  • – System Design and Integration : Teach students the principles of designing integrated instrumentation systems that combine sensors, data acquisition devices, control systems, and user interfaces into cohesive solutions.
  • – Instrumentation Network Design : Equip students with the ability to design and implement instrumentation networks, ensuring efficient data communication and management for industrial applications.
  • – System Optimization : Provide students with strategies for optimizing instrumentation systems, balancing factors such as accuracy, cost, reliability, and efficiency in industrial applications.
  • – Safety and Hazard Analysis : Teach students how to design instrumentation systems with a focus on safety, including understanding hazardous areas, explosion-proof systems, and complying with safety standards such as IECEx and ATEX.

 

5. Promote Sustainability and Energy Efficiency in Instrumentation Systems

  • – Energy-Efficient Instrumentation : Equip students with knowledge of energy-efficient instrumentation systems, focusing on reducing power consumption and minimizing environmental impact while maintaining system performance.
  • – Sustainable Practices in Process Control : Teach students how to design and implement instrumentation systems that optimize resource use, reduce waste, and enhance environmental sustainability in industrial processes.
  • – Green Instrumentation Technologies : Introduce students to the development and application of environmentally-friendly technologies such as low-power sensors, renewable energy-powered instrumentation, and sustainable manufacturing practices.

 

6. Develop Advanced Skills in Instrumentation System Maintenance and Troubleshooting

  • – System Maintenance and Troubleshooting : Equip students with the skills needed to maintain, troubleshoot, and repair instrumentation systems, ensuring high system uptime and minimal operational disruptions.
  • – Predictive Maintenance : Teach students the principles of predictive maintenance techniques such as condition monitoring, vibration analysis, and performance data analytics, allowing for early detection of faults and minimizing downtime.
  • – Failure Analysis : Provide students with tools for conducting failure analysis on instrumentation systems, including root cause analysis (RCA) and reliability-centered maintenance (RCM) techniques.

 

7. Strengthen Knowledge of Industrial Instrumentation Standards and Compliance

  • – Instrumentation Standards : Provide students with an understanding of national and international standards for instrumentation systems, including ISO, IEC, and ANSI standards, ensuring that systems are compliant with industry norms and regulations.
  • – Quality Control and Assurance : Teach students the importance of quality control and assurance in the design, manufacturing, and operation of instrumentation systems, ensuring high performance and reliability.
  • – Regulatory Compliance : Equip students with the knowledge of regulatory compliance requirements for instrumentation systems, including safety, environmental, and operational regulations in industries such as oil and gas, chemical processing, and pharmaceuticals.

 

8. Enhance Communication, Leadership, and Project Management Skills

  • – Technical Communication : Teach students how to effectively communicate complex technical information to both technical and non-technical audiences, including through reports, presentations, and documentation.
  • – Project Management : Equip students with project management skills, including budgeting, scheduling, and resource allocation, to lead and manage instrumentation projects in an industrial setting.
  • – Leadership in Instrumentation Engineering : Provide students with leadership training to manage teams of engineers and technicians, ensuring effective collaboration and the successful completion of instrumentation projects.

 

9. Encourage Innovation and Research in Instrumentation Engineering

  • – Research in Instrumentation : Encourage students to participate in research projects that contribute to advancing the field of instrumentation engineering, such as the development of new sensors, smart instrumentation systems, or novel control techniques.
  • – Emerging Technologies : Introduce students to emerging trends in instrumentation engineering, such as the Internet of Things (IoT), Industry 4.0, and artificial intelligence (AI) for automation and control, and their applications in industrial processes.
  • – Innovative Instrumentation Solutions : Teach students how to develop and implement innovative solutions to complex challenges in industrial instrumentation, leveraging new technologies and methodologies.

 

10. Prepare Students for Career Readiness and Professional Development

  • – Internships and Hands-On Experience : Offer students opportunities for internships and practical experience in industrial settings, where they can apply their theoretical knowledge to real-world problems.
  • – Professional Certifications : Guide students in obtaining relevant certifications in instrumentation and control engineering, such as Certified Control Systems Technician (CCST) or Certified Automation Professional (CAP), to enhance their professional qualifications.
  • – Career Services and Networking : Provide career counseling, resume-building support, and networking opportunities with professionals in the instrumentation and automation industries to help students transition into the workforce.

 

11. Foster Lifelong Learning and Continuous Improvement

  • – Commitment to Lifelong Learning : Instill a mindset of continuous learning and professional development, encouraging students to stay updated on the latest advancements in instrumentation technologies and methodologies.
  • – Adaptability and Innovation : Prepare students to adapt to evolving technologies and trends in the instrumentation field, ensuring that they are capable of innovating and improving instrumentation systems to meet changing industrial needs.

CAREER OPPORTUNITIES

1. Instrumentation Engineer

  • – Design, develop, and maintain instrumentation systems : Focus on measuring and controlling physical parameters in industries such as manufacturing, oil and gas, and pharmaceuticals.

 

2. Control Systems Engineer

  • – Work with automation and control systems : Including PLCs, SCADA, and DCS, to design, program, and optimize systems for industrial applications.

 

3. Automation Engineer

  • – Specialize in the development and implementation of automated systems : Focus on controlling industrial processes to improve efficiency, accuracy, and safety.

 

4. Measurement and Calibration Specialist

  • – Focus on calibration, maintenance, and validation of measurement instruments : Ensure compliance with industry standards and regulations.

 

5. Process Control Engineer

  • – Optimize industrial processes : Design and manage control systems that regulate variables such as temperature, pressure, and flow in manufacturing environments.

 

6. Embedded Systems Engineer (Instrumentation)

  • – Develop and implement embedded systems for instrumentation applications : Focus on sensor interfacing, data acquisition, and real-time control.

 

7. Instrumentation and Control Systems Consultant

  • – Provide expert advice : Focus on the design, implementation, and optimization of instrumentation and control systems, ensuring efficiency, safety, and compliance with industry standards.

 

8. Reliability Engineer (Instrumentation)

  • – Focus on improving the reliability of instrumentation systems : Utilize predictive maintenance and failure analysis to prevent system failures and improve operational performance.

 

9. Industrial Automation Specialist

  • – Work on the integration of instrumentation, automation, and control systems : Enhance production efficiency, reduce costs, and improve product quality.

 

10. Instrumentation Project Manager

  • – Oversee and manage instrumentation engineering projects : Ensure the successful design, installation, testing, and maintenance of projects, completing them on time and within budget.

 

ADMISSION REQUIREMENTS

PROGRAMME   LEVEL OF ADMISSION  STUDENT PROFILE  ADMISSION TEST  APPLICATION FILE  APPLICATION FEE 
INSTRUMENTAL ENGINEERING        All GCE A/L (with minimum 2 papers Without Religion), All Baccalaureat, or Equivalent  by Interview &  Entrance Exam (Maths, Physics, Chemistry, English) 
  • A hand written application addressed to the director 
  • a certified copy of birth certificate 
  • a certified copy of ordinary GCE level 
  • a certified copy of advanced level/result slip 
  • an A4 envelope carrying the candidate’s address 

 

 

30 000 F CFA 
  • All
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