Dear Students, Prospective Students, Esteemed Colleagues, and Industry Partners,
Today, artificial intelligence has rapidly positioned itself at the center of our lives within the software domain. However, the real revolution is arriving with the technologies that will transform this intelligence into physical action, power, and motion. In the future, humanoid robots and "thinking, connected systems" will dictate every aspect of our lives. In this context, Mechatronics Engineering is the most critical engineering discipline that will enable the technological revolution brought by AI to interact with the physical environment in every possible way.
At the core of the mechatronics engineering perspective lies the handling of complex systems through a holistic systems engineering approach. Today, systems are no longer merely composed of lines of code, power electronics, sensors, and actuators. It is necessary to work on structures that operate with flawless hardware-software integration, interact with their surroundings, and make independent decisions. Within our department, the most solid ground we currently stand on and our strongest asset is our active field research in electric and autonomous vehicle technologies, as well as smart industrial systems.
We believe that mechatronics engineering is not a desk job. The industry needs engineers who are built upon a solid mathematical, engineering, and academic foundation, but who also go out into the field, holding a soldering iron and a screwdriver. Our goal is not merely to conduct theoretical research confined within laboratory borders; rather, it is to produce projects that are strictly bound to ethical values, develop products beneficial to society, and transform novelty into true innovation.
Education and Development Methodology at International Standards
At the center of our educational approach lies the V-Model product development process, which is the gold standard of complex systems engineering and the global automotive industry. Thanks to the robust infrastructure of our IPA2-supported Autonomous Vehicle Software and Test Center (OPINA) project, successfully implemented within Istanbul Okan University, our students have the opportunity to transform theory directly into practice. Using Model-Based Design (MBD) approaches, our students personally test the systems they build on our MIL, SIL, HIL, and DIL platforms. By gaining rapid prototyping capabilities at both the hardware and software levels, they graduate as engineers who master the entire "concept-to-product" cycle demanded by the industry.
An Innovation-Oriented Cluster Intertwined with Industry
As the coordinator of the Connected and Autonomous Vehicles Cluster supported by the Republic of Türkiye Ministry of Industry and Technology, we are located at the very heart of the industry. Within the ecosystem we have created in this context, we work shoulder-to-shoulder with dozens of technology-producing companies. Having our country's most powerful industrial associations such as TESİD, TAYSAD, and YASAD among our partners ensures that our students produce solutions to real-world field problems while still in the classroom, allowing them to graduate with a strong career network.
Our department is home to an expert, visionary, and strong academic staff. With our world-class technological infrastructure, laboratory facilities, and extensive sectoral network, we comprehensively provide all the foundational components an innovative engineer might need. This deep-rooted knowledge base and our industry collaborations can only turn into real value in the hands of bright and investigative young engineering candidates like you. Our aim is for you to use this powerful ecosystem to maximize your potential and become the leading engineers who design the autonomous, connected systems of the future.
