Examples of using Quantum technologies in English and their translations into German
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Leaping into the future with quantum technologies, secuview 1_2018.
Blatt has no doubt: quantum technologies are driving forward a technological revolution, the future impact of which is still unclear.
WE-Heraeus-Seminar Leaping into the future with quantum technologies.
I expect quantum technologies to develop along similar lines.
This program will aim to intensify the development of quantum technologies in Europe starting in 2018.
The first generation of quantum technologies forms the basis of semiconductor and laser technology, for example.
Defects in thin molybdenum sulfide layers, generated by bombardment with helium ions,can serve as nano-light sources for quantum technologies.
There is no doubt that applied quantum technologies will change the world as we know it today.
This paves the way for entanglement over 20 kilometers and more", comments Matthias Bock,PhD student in quantum technologies and first author of the study.
As with all quantum technologies, quantum computing is based on a peculiar feature of quantum mechanics, quantum entanglement.
The professorship willbe part of the Institute for Functional Matter and Quantum Technologies participating in the Center for Applied Quantum Technologies ZAQuant.
DLR is also conducting research and development work in the field of fast optical communications via satellites,and in cryptographic security using quantum technologies.
The Quantum Technology major contributes to the development of quantum technologies in Finland, and it has strong ties to international activities across the world.
Together, the two Joint Labs will develop systems andkey technologies that will enable future space applications of quantum technologies on small satellites.
To establish these quantum technologies as an interdisciplinary field of excellence in the Fraunhofer-Gesellschaft and anchor them in a lively and open-framework group of researchers.
During the current legislative period, the federal government of Germany will be making a total of around 650 million euroavailable for research and development in quantum technologies.
Applications such as quantum technologies or diagnostic possibilities in medicine benefit from this, as do industry with new possibilities in the fields of measurement and calibration.
The consequences are errors in the quantum algorithms that greatly restrict their usefulness for deterministic quantum technologies that depend on the predictive accuracy.
Quantum technologies ranks among the key technologies of the 21st century and have increasing potential for applications in the economy and society, for example in the field of secure information transmission, improved medical diagnostics or precise weather forecasts.
While exascale supercomputers are expected to be ready by 2018,the strategy for quantum technologies is still in the early stages and has a long-term approach.
The EESC calls for greater clarity on how the European Data Infrastructure, which is also intended to promote development and the implementation of High Performance Computing(HPC),will interact with the flagship initiative to boost quantum technologies.
This includes €3.5 billion for datainfrastructure,67 €1 billion for a large-scale EU-wide Quantum Technologies flagship and €0.2 billion for actions on widening access and building trust.
Thanks to its scalability and sustainability, the solid state-based technology is suitable for long-termgeneration of extremely low temperatures for the application of quantum technologies on an industrial scale.
As an active user of High Performance Computing(HPC),Airbus is already extending current capacity by integrating and leveraging quantum technologies in fields such as route optimisation and satellite imagery.
The new graduate school, a physics initiative of the Berlin universities, in cooperation with non-university research institutions, is intended to support early-career researchers on their way to a successful doctorate in the natural sciences,especially in the field of optical sciences and photonic quantum technologies.
After completing your Quantum Technology degree,you can tackle industrial challenges involving quantum physics and develop quantum technologies for the benefit of society.
This is in essence the ambition of macQsimal,a new project selected by the European Commission for their recently launched Quantum Technologies Flagship initiative.
He is a director of the Max-Planck Institute for Solid State Research(MPI)in Stuttgart and the founding director of the Institute for Functional Materials and Quantum Technologies(FMQ) of the Physics Department at the University of Stuttgart.
He received his Ph.D. in 1999 under Rudolf Ahlswede and Friedrich Götze at the Universität Bielefeld in Germany before moving to the University of Bristol andthen to the Centre for Quantum Technologies(CQT) at the National University of Singapore.
In the journal"International Innovation", published in 2013, they describe how small steam cells help them,what potential applications they see for future quantum technologies, and what challenges the team faces.