@@ -813,18 +813,19 @@ Describe the importance of the technological outcome with regard to its transfor
DZXC significantly advances the state-of-the-art across six of the seven expected impacts.
The project will \textbf{develop a deeper fundamental and practical understanding} of systems for quantum information processing.
We will develop a deep quantum compiler that can take input in a variety of high-level quantum programming languages, automatically add error correction, optimise the process, and output machine instructions adapted for different quantum devices.
We will develop a deep quantum compiler that can take input in a variety of high-level quantum programming languages, automatically add error correction, optimise the process, and output machine instructions adapted for different devices.
Creating the system necessarily will produce foundational insights into the operation and capability of quantum devices including using the \zxcalculus to identify and certify resources required for quantum speedup.
The \dzxc system will model noise, error rates, and connectivity of the target platforms and take steps to minimise decoherence, thus \textbf{enhancing the robustness and scalability} of quantum information technologies.
The \dzxc system will model noise, error rates, and connectivity of the target platforms and take steps to minimise decoherence, \textbf{enhancing the robustness and scalability} of quantum information technologies.
As the basis of a retargetable compiler, the \dzxc system will make it easy to support new quantum devices and thereby \textbf{identify new opportunities and applications} fostered through quantum technologies.
By providing open APIs, we will make the \dzxc system available to all academic and industrial users, thus \textbf{transferring these technologies} from laboratories to industries.
The intelligent compilation chain will make quantum programming available to non-specialists, \textbf{enlarging the community involved} in tackling the new challenges of quantum computation.
Developing the \dzxc system will utilise the entire range of knowledge required for building quantum technologies, from experimental and theoretical physics, through to quantum computing theory, and on to formal methods of computer science, which \textbf{enhances interdisciplinarity} and \textbf{crosses traditional boundaries} between disciplines.
Developing the \dzxc system will utilise the entire range of knowledge required for building quantum technologies, from experimental and theoretical physics, through to quantum computing theory and foundations, and on to formal methods of computer science.
This \textbf{enhances interdisciplinarity} and \textbf{crosses traditional boundaries} between disciplines.
With our newly-founded member group at the University of Gdansk, we have a \textbf{partner from the widening countries}.
The project also involves several other research groups that have been founded in the past few years, thus \textbf{building leading innovation capacity}.
Additionally, the team includes as co-investigators multiple \textbf{excellent young researchers} on the brink of group development.
With our newly-founded member group at the University of Gdansk, we have a \textbf{partner from the widening countries} for bi-directional knowledge exchange.
The project also involves several other research groups that have been founded in the past few years and links to QuEnG and NQIT, thus \textbf{building leading innovation capacity}.
Additionally, the team includes as PIs and co-Is multiple \textbf{excellent young researchers}.
Our industrial partner, CQC, is an \textbf{ambitious high-tech SME} with a team leader who has expertise in technology transfer from academia to industry.
