Information Technology in Material Science

Are you interested in new materials, advanced technologies, and how they connect with the modern IT world? Do you want to create innovations used in optics, electronics, semiconductors, or even in banknote protection and chip manufacturing?

The Information Technology in Material Science program takes you to the intersection of physics, chemistry, computer science, and engineering. From the very first semesters, you’ll be actively involved in research, laboratory work, and the development of real-world applications. Whether it’s preparing advanced nanostructures, designing electronic components, or analyzing data using artificial intelligence, you’ll be part of the process where true innovation begins.

The teaching team includes experts from scientific and industrial institutions — including the IT4Innovations National Supercomputing Center, where you’ll gain hands-on experience with quantum computing and tools for big data processing.
The program’s goal is clear: to prepare you for the future of science and industry in their most advanced form.

Program Overview

Information Technology in Material Science is unique in the way it connects the hard natural sciences with advanced computational engineering.
You’ll learn to design, test, and analyze new materials for specific applications — for example, in lighting technology, optoelectronics, data storage, or sensors.

The foundation of the program is research and development using cutting-edge computational methods — from numerical simulations to artificial intelligence and machine learning.
It is a modern, technology-oriented program that enables you to become a bridge between science and industrial practice.

Why Study This Field?

Because the connection between materials research and computational technology is absolutely crucial today.
The industry of the future needs professionals who understand materials at the atomic level and know how to transform them into functional products.

Thanks to partnerships with companies such as Onsemi, Forvia Hella, and other members of the Czech Optical Cluster, you’ll receive education that’s closely linked to real-world practice and current market needs.

You’ll gain experience with real data, component design and testing, and technological process management.
Because the program is internationally oriented, you’ll also have opportunities for internships abroad, research stays, and collaboration with universities across Europe.

Practical Focus of the Studies

Forget boring memorization — this program takes you straight into cutting-edge laboratories and real projects. You’ll gain hands-on experience in areas such as:

• preparation of thin films and nanostructures,
• surface modification and crystal growth,
• microscopy, spectroscopy, and non-destructive testing,
• use of simulation and modeling software for materials,
• programming in Python, Matlab, TensorFlow,
• applying artificial intelligence and parallel data processing tools.

The program includes strong links to industrial practice, problem-solving for real companies, and the management of your own research projects — including collaboration with the IT4Innovations Supercomputing Center.

After completing this program, you’ll have a unique combination of competencies that make you stand out on the job market:

• the ability to design, model, and test new materials for technological applications,
• expertise in industrial automation and measurement techniques,
• proficiency in data analysis and processing using AI and machine learning,
• mastery of modern visualization and virtual reality tools,
• the capability to lead research projects, publish results, and present them to both professional and general audiences.

Emphasis is placed not only on technical knowledge but also on your ability to think critically, communicate across disciplines, and manage complex projects.

Graduates of Information Technology in Material Science are among the most sought-after experts in industrial enterprises, research institutions, technology startups, and the public sector.

Typical positions include:

• Materials engineer,
• Technology developer,
• Nanotechnology specialist,
• Industrial analyst,
• Research scientist,
• Rapid prototyping expert,
• Process engineer in semiconductor, lighting, or electronics manufacturing,
• Head of research team or technological laboratory.

Thanks to the program’s broad scope, you can also work in interdisciplinary areas such as optics, environmental technologies, sensor development, or industrial informatics.