Abstraction, precision and rigour make modern science an essential contributor to technical and social progress, but often go hand in hand with a tendency towards hyper-specialisation. The exchange of ideas between seemingly far apart fields, but also between neighbouring disciplines, suffers. We intend to counter this tendency: Through interdisciplinary thinking beyond established scientific taxonomy, we link seemingly unconnected ideas, exploit similarities, and connect strengths.

Vision & Goals

Research in quantum computing, systems and software engineering should further scientific knowledge, while focussing on concrete solutions to tangible engineering challenges.
It should be possible to develop and use quantum and classical software and systems with the same predictability and reliability that has been established in traditional engineering disciplines.
Openness and reproducibility need to be at the core of every scientific endeavour (see our OSS contributions on Github)

Contributions: Beyond Papers

The open source software produced in the group is used and extended (instead of just being cited) in publications of academic institutions all across the world:

Strategy

New applications of quantum computing must be identified by determining sweet spots for their beneficial application. Boundary conditions and constraints of the system/use-case. There is no benefit from the application of quantum computing for the sake of using the technology; research must be goal-oriented and result-oriented. Use-case and application must be first-class ingredients of a research effort.
Quantum processing units will become part of complex, software intensive systems, yet it will not be possible, unlike with classical CPUs, to abstract most of their individual characteristics and assume uniform future hardware fully accessible via generic interfaces. To retain the strengths of decades of engineering progress and insights, QPU-extended systems should be based on open components are extended and modified by vertical, cross-cutting and carefully engineered changes throughout the entire software stack, using architectural co-design/ to account for peculiarities of hardware and software.
Building software-intensive, quantum augmented systems is a socio-technical challenge. Software-intensive systems are among the most complex engineering artefacts created by humans, and complexity arises from the interaction of thousands of developers, and from interrelations between tens of thousands of technical artefacts. State and evolution of these systems must be understood. Based on prior research that has established deep quantitative insights based on statistical modelling and network science, these insights must be extended to quantum software and systems engineering.