Compared to classical computers, future quantum computers are to even more effectively resolve particular calculation issues. While traditional computers perform one computation action after the other, quantum computers can perform lots of computation actions in parallel. This will speed up processing of big information volumes. The microstructure of particular products and aspects of the quantum bits, nevertheless, is of vital value. Researchers of Karlsruhe Institute of Technology (PACKAGE) research study products for such multi-functional quantum bits. Their task “Scalable Rare Earth Ion Quantum Computing Nodes” (SQUARE) is moneyed by the European Commission with EUR 3 million.
Contrary to the classical computer system chip, the tiniest memory component of a quantum computer system chip, the quantum bit or qubit, does not just shop binary details– 0 or 1, off or on–, however likewise worths in between, called quantum mechanics superpositions. With the aid of these quantum residential or commercial properties, lots of calculation procedures can be performed in parallel and, for this reason, calculating capability of a quantum computer system is improved considerably. “A promising approach to the next generation of quantum computers is based on materials, single systems of which are not larger than an atom and the quantum properties of which can be accessed and controlled optically,” states Professor David Hunger of PACKAGE’s Physikalisches Institut, who collaborates the SQUARE task.
For this, unusual earth ions, electrically charged atoms of rare-earth metals, show an exceptional capacity that will be studied in SQUARE. The ions can save quantum states for a long time and can be triggered independently by light in unique solid-state crystals. Hence, a a great deal of ions is available as qubits. “Thanks to their special electronic structure, rare earth ions are shielded against interference fields,” Hunger states. “Moreover, they can strongly interact with each other, which is a major basis for quantum circuits.” Quantum residential or commercial properties can be read out straight by light and quantum states can be transferred to photons. This allows affiliation of far-off quantum nodes and their usage for quantum interaction.
Research associating with single unusual earth ions still remains in an early phase, however “the project concentrates on a highly promising platform that offers many advantages over established approaches, such as ions captured in vacuum devices and superconducting quantum circuits,” David Hunger states.
SQUARE is targeted at developing unusual earth ions that can be attended to independently as fundamental foundation for scalable quantum innovations. In specific, it is prepared to show practical aspects of a multi-qubit quantum register that can be read out optically and to recognize foundation of a quantum network. This will considerably boost calculation capability of quantum computers in the future. In cooperation with market partners, main technological parts needed for scalable execution will be de-veloped.
FlagshipProject for Studying Quantum Technologies
TheEuropean Commission funds SQUARE within the structure of the Quantum TechnologyFlagship Over a period of 10 years, it is prepared to invest a billion euros into research study associating with quantum innovations. With this, advancement of unique innovations based upon essential quantum results will be sped up and closer cooperation with market will be started to accelerate advancement to maturity.
The SQUARE task belongs to the essential research study section of the Flagship and will be moneyed with EUR 3 million for a period of 3 years for the time being. It is performed by a consortium of 6 global clinical groups from Aarhus (Denmark), Lund (Sweden), Barcelona (Spain), Paris (France), Stuttgart, and Karlsruhe and the 2 business THALES (France) and attocube (Germany). The task is collaborated by Professor David Hunger of Karlsruhe Institute of Technology.
Source: KarlsruheInstitute of Technology (PACKAGE)