Quantum Engineering (Master of Science)

Quantum mechanics determines our understanding of physical processes on a microscopic scale. More than a century after groundbreaking work began on quantum mechanics, technical developments based on this phenomenon – such as transistors, lasers and global satellite navigation systems – have become part of our everyday lives. On the verge of the second quantum revolution, the aim is now to pave the way for the application of fundamental quantum physics in industrial fields. In this context, the combination of knowledge and skills from the fields of physics, mathematics, computer science and engineering plays a crucial role. The degree programme closes a gap that previous degree programmes were unable to fill. The programme primarily teaches students knowledge in all four pillars of quantum technologies: communication, simulation, sensors and computation. Once they have completed the programme, students will be able to use their technological expertise in individual specific fields of application to transfer quantum technology solutions from the basic research laboratory to practice. Students may be required to attend courses in Braunschweig in addition to their regular courses at Leibniz University Hannover and a hybrid offering. The programme is structured across four semesters and combines lectures, seminars, and laboratory components. In the first (summer) semester, students are recommended to attend the seminar Quantum technologies with laser cooled ions and atoms. This seminar brings together all new students, facilitates exchange, and provides an introduction to the programme structure. The first summer semester is particularly suitable for fulfilling any outstanding requirements or prerequisites. The second (winter) semester includes the two compulsory modules, which form the academic core of the programme. During the first and second semesters, students also begin to take elective modules from the fields of quantum and engineering. In each area, at least 10 ECTS (typically two modules) and up to 35 ECTS (approximately seven modules) must be completed, resulting in a total of 45 ECTS credits from elective coursework. Students are encouraged to complete the flexible lab module Computational Methods, Simulations & Experimental Control at any time. This module consists of four parts, each lasting approximately two weeks. The individual parts can be completed across different semesters. Depending on the component, work is either carried out in the laboratory or involves programming tasks that can be done remotely. At some point during the third semester, it is recommended to complete the mandatory internship. This can either take place in industry or as a project within one of the participating laboratories (e.g. LUH, TUBS, or PTB), typically requiring around eight weeks of work. The final semester is dedicated to completing the Master’s thesis, which is usually prepared in advance through a preceding project phase starting approximately three months earlier.