BSc in Industrial Engineering

This Program is accredited by the MFHEA

Program Overview 

Industrial engineering focuses on improving how systems work to maximise efficiency, productivity, and value. Industrial engineers apply engineering, business, and social science principles to design, analyse, and optimise processes across industries such as manufacturing, healthcare, logistics, entertainment, and global distribution.

By reducing waste in time, cost, materials, and energy, they help organisations operate smarter and more sustainably. Through studies in process design, optimisation, modelling and simulation, production planning, engineering management, and supply chain systems, industrial engineering graduates are equipped to improve performance and drive continuous improvement in complex, real-world systems.

Program Information

GENERAL INFORMATION

MQF Level 6

4-year program

Face-to-face

ECTS: 266/US: 133

COURSE STRUCTURE
MODULE CODE MODULE / UNIT TITLE  COMPULSORY / ELECTIVE ECTS / ECVETS MODE OF DELIVERY MODE OF ASSESSMENT
 CIE 214 Statics Compulsory 6 Lectures, Lab Examination Assesment 
 CIE 301 Engineering Communication Compulsory 6 Lectures, Lab Examination Assesment 
 CHE 112 General Chemistry II Compulsory 8 Lectures, Lab Examination Assesment 
ENR 102 Introduction to Engineering Lecture Series and Design Compulsory 6 Lectures, Lab Examination Assesment 
 MAT130 Calculus II Compulsory 8 Lectures Examination Assesment 
 MAT 220 Multivariable Calculus Compulsory 8 Lectures, Lab Examination Assesment 
           
 PHY 240 Introductory Electricity and Magnetism Compulsory 8 Lectures, Lab Examination Assesment 
IEE 175 Computer Proramming for Engineering Applications Compulsory 6 Lectures, Lab Examination Assesment 
IEE 250 Introduction to Systems and Industrial Engineering Compulsory 6 Lectures Examination Assesment 
IEE 265 Engineering Economics Compulsory 6 Lectures Examination Assesment 
IEE 277 Object-Oriented Modeling and Design Compulsory 6 Lectures Examination Assesment 
IEE 270 Mathematical Foundations and Numerical Computation Compulsory 6 Lectures Presentation Report
IEE 295 Systems and Industrial Engineering Soph Colloquium Compulsory 2 Lectures Presentation Report
IEE 305 Introduction to Engineeing Probability and Statistics Compulsory 6 Lectures Examination Assesment 
IEE 321 Probabilistic Models in Operations Research Compulsory 6 Lectures Examination Assesment 
IEE 330R Engineering Experimental Design Compulsory 6 Lectures Examination Assesment 
IEE 340 Linear Programming Compulsory 6 Lectures Examination Assesment 
IEE 367 Engineering Management Compulsory 6 Lectures Examination Assesment 
IEE 370 Embedded Computer Systems Compulsory 8 Lectures Examination Assesment 
IEE 377 Software for Engineerss Compulsory 6 Lectures, Lab Examination Assesment 
IEE 383 Integrated Manufacturing Systems Compulsory 6 Lectures, Lab Examination Assesment 
IEE 406 Quality Engineering  Compulsory 6 Lectures Examination Assesment 
IEE 410A Human Factors and Ergonomics in Design Compulsory 6 Lectures Examination Assesment 
IEE 431 Simulation Modeling and Analysis Compulsory 6 Lectures Examination Assesment 
IEE 457 Project Management Compulsory 6 Lectures Examination Assesment 
IEE 462 Production Systems Analysis Compulsory 6 Lectures Examination Assesment 
IEE 464 Cost Estimation Compulsory 6 Lectures Examination Assesment 
IEE 498A Cross-disciplinary Design Compulsory 6 Lectures Examination Assesment 
IEE 498B Cross-disciplinary Design Compulsory 6 Lectures Examination Assesment 
           
TOTAL ECTS FOR COMPULSORY 180
General Education 86
TOTAL ECTS / ECVETS for Course Completion 266
ENTRY REQUIREMENTS

For general Entry Requirements:

Please see the information on the Admission Page – Entry Requirements 

DEGREE REQUIREMENTS

GPA needed to earn the degree:  2.0 or higher

Credits needed to earn the degree: 266 ECTS

LEARNING OUTCOMES

Knowledge

By the end of the program, students will be able to:

  • Understand the global, economic, environmental, and societal impact of engineering solutions.
  • Recognized the importance of lifelong learning in a rapidly evolving engineering profession.
  • Develop a career progression plan, including pathways for advanced education, professional certification, and specialized training.

Skills

By the end of the program, students will be able to:

  • Prepare professional engineering proposals, reports, and technical documentation.
  • Deliver clear and effective oral presentations to both technical and non-technical audiences.
  • Design and use effective audio-visual and digital communication tools.
  • Communicate professionally through engineering drawings, plans, and technical visuals.
  • Write effective professional communications, including emails, memoranda, and reports
  • Demonstrate the ability to independently initiate and engage in lifelong learning.
PEDAGOGICAL METHODS

The program adopts a flipped classroom teaching model, combining digital learning with interactive, on-campus instruction to enhance engagement and practical understanding.

Students begin each module by watching short, pre-recorded lectures prepared by UA lead faculty and completing online quizzes before attending class. This approach allows students to build foundational knowledge in advance.

On-campus sessions are led by an AUM co-professor, who focuses on:

  • Clarifying key concepts and addressing questions.
  • Leading hands-on exercises, including problem-solving, design projects, software instruction, and discussions.
  • Facilitating collaborative learning through small-group activities.

Additional learning support includes:

  • Supplementary lectures where required.
  • Assigned readings and homework, submitted and assessed throughout the course.
  • One-to-one academic support through scheduled office hours.

Laboratory-Based Learning

  • Fully on-site laboratory sessions (2–3 hours).
  • Hands-on experiments and applied data analysis, completed individually or in groups.
  • Assessment through written laboratory reports and/or oral presentations.

This blended teaching approach ensures students develop strong theoretical foundations, practical skills, and collaborative competencies essential for professional and academic success.

EMPLOYABILITY/CAREERS

Graduates of Industrial Engineering programmes enjoy diverse and flexible career pathways across a wide range of industries. The broad skill set developed allows graduates to adapt to multiple sectors and advance into technical and leadership roles.

Career Pathways

Industrial engineering graduates may pursue roles in:

  • Manufacturing and Production Management
  • Entertainment and Media Operations
  • Shipping, Logistics, and Supply Chain Management
  • Healthcare Systems and Operations
  • Project and Operations Management
  • Transportation and Infrastructure Systems
  • Systems Modelling and Process Optimisation
  • Telecommunications and Technology Services
  • Customer Experience and Service Design
  • Government and Public Sector Organisations

Leadership & Career Progression

  • Strong foundations for management and leadership roles in high-tech and innovation-driven industries.
  • Skills that support progression into operations management, systems engineering, and executive roles.

With a focus on efficiency, optimisation, and strategic decision-making, industrial engineering graduates benefit from unlimited career opportunities across global industries.

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Dr. Eren Yildirim

Assistant Professor

Contact the Director for this Program

Dr. Eren Yildirim 

Email: [email protected]
Phone: +356 2169 6970

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