CREATE ADVANCED INTEGRATED OPTICAL SYSTEMS FOR FASTER AND MORE SUSTAINABLE COMMUNICATION SYSTEMS, SENSORS, AND HEALTHCARE IMAGING.
Are you intrigued by the potential of optical systems to reshape the future of technology? Optical systems offer numerous advantages over traditional silicon chips: they are energy-efficient, generate less heat, weigh less, and come at a lower cost. Imagine contributing to the evolution of large language models like Chat GPT but with a million-fold improvement in energy efficiency, making them truly sustainable. What is even more exciting is that integrated optical quantum computers operate at room temperature, unlike electronic quantum computers that require near absolute zero temperatures to function effectively. Additionally, optical sensors often exhibit superior sensitivity in virus and molecule detection. So, how can you make them more accessible for everyday settings, such as hospitals? If you are eager to explore these areas of research, the specialisation in Integrated Optical Systems is for you.
WHAT IS INTEGRATED OPTICAL SYSTEMS?
The focus of the specialisation is on the design, simulation, fabrication, and testing of integrated optical systems, such as photonic integrated circuits. You will explore the most effective materials, fabrication processes, and design techniques. There is a strong emphasis on building blocks including waveguides, lasers, optical amplifiers, and 3D printed micromirrors. Through practical examples like designing micro ring resonators and evaluating their performance by means of simulations, you will gain insight into fundamental concepts. Integrating optics and electronics is another area you will explore. For example, how can you generate, manipulate, and detect optical signals within electronic circuits? Additionally, you will learn about optical phenomena at the nanoscale, including nanolasers, nanowaveguides, photonic crystals, or plasmonic propagation, and perform various simulations.
Thanks to our collaboration with ASML and the nanotechnology research institute MESA+, you will work on exciting real-world cases. For example, you can design a waveguide generating optimal white light for microscopy and spectroscopy by using a white light laser. What about investigating methods to make waveguides smoother, which can contribute to advancing laser technologies integrated into chips?
WHAT WILL YOU LEARN?
As a graduate of the Master's in Electrical Engineering with a specialisation in Integrated Optical Systems, you have acquired specific scientific knowledge, skills, and values that will help you in your future career.
OTHER MASTER’S
Is this specialisation not exactly what you are looking for? Maybe one of the other specialisations suits you better. You can also find out more about related master’s at the University of Twente: