A rare interdisciplinary master's that fuses quantum physics with electrical engineering and systems design — covering everything from trapped-ion experiments and laser cooling to antenna theory, microelectronics, and high-frequency engineering. Students shape an individual profile across theoretical, experimental, or applied quantum technology directions.
Quantum Engineering at Universität des Saarlandes is a research-oriented master's program that sits at the intersection of quantum physics and modern engineering systems. Rather than staying within a single discipline, the curriculum deliberately spans two domains: the Quantum Physics core and the Systems Engineering core — and students navigate both throughout their studies.
The quantum physics side covers theoretical and experimental foundations including solid-state physics, atomic and molecular physics, quantum and modern optics, and nanostructure physics. The systems engineering side is equally substantive, with modules in advanced electronic packaging, microelectronics, digital transmission and signal processing, high-frequency engineering, and antenna theory. Together, these tracks reflect the real-world interdisciplinary nature of quantum technology development — where building a quantum device requires both understanding the underlying physics and engineering the hardware around it.
A defining feature of the program is flexibility in emphasis. Students can orient themselves toward a **theoretical profile** (heavy on quantum theory, computational physics, quantum field theory of light), an **experimental profile** (lab-intensive, including advanced physics practicals, particle trapping, and laser cooling), or an **applied/engineering profile** (focused on microelectronics, FPGA-based systems, high-speed electronics, and reliability engineering). This is not a binary choice — students can also build hybrid profiles through the elective structure.
Practical and project-based work is woven throughout. Team projects (both small and large-scale), a 15-credit laboratory project in the third semester, seminars in both physics and systems engineering, and hands-on practicals including an FPGA microelectronics lab and advanced physics practicals ensure that abstract concepts are regularly applied in working environments.
The program culminates in a **30-credit master's thesis** in the fourth semester, carried out within one of the active research groups at the university. These groups work on topics including trapped-ion quantum computing, laser cooling, quantum optics, nanostructure physics, solid-state physics, microelectronics fabrication, antenna systems, and quantum theory for technologies — giving students access to genuinely active research environments for their thesis work.
Instruction is fully in English, making the program accessible to international applicants without German language preparation.
