Time seems like something out of crystal science fiction, but they could be the next major leap in quantum network research. A team based in Japan has proposed a way to use time crystals to simulate large-scale networks with very little computing power.
He published his results on 16 October Science advance.
First theorem in 2012 and observed in 2017, time is an arrangement of crystal matter that repeats in time. Normal crystals, such as diamonds or salts, replicate their atomic self-organization in space, but show no regularity in time. Time crystals self-organize and repeat their patterns in time, meaning that their structure changes over time.
“The discovery of time crystals is a very active area of research and many diverse experimental realizations have been achieved,” said paper author KA Nemoto, professor in the Informatics Research Division of the National Institute of Informatics. “An intuitive and complete insight about the nature of time crystals and their characterization is lacking, as well as a set of proposed applications. In this paper, we provide new tools based on graph theory and statistical mechanics to fill this theory. We do.”
Nemoto and his team specifically investigated how the quantum nature of time crystals – how they change from time to time in a predictable, repeating pattern – is used in large, specialized networks, such as communication systems or artificial Can be done to emulate intelligence.
“In the classical world, this would be impossible because it would require large amounts of computing resources,” said Marta Estrellas, one of the first authors of the paper at the National Institute of Informatics. “We are not only bringing a new method to represent and understand quantum processes, but a different way of looking at quantum computers.”
Quantum computers can store and manipulate multiple states of information, meaning that they can process vast data sets with relatively little power and time by resolving multiple possible outcomes at the same time, much like classical computers. One after the other.
“Can we use this network representation and its tools to understand complex quantum systems and their phenomena, as well as identify applications?” Nemoto asked. “In this work, we show the answer yes.”
Researchers plan to explore various quantum systems using time crystals after experimental testing of their approach. With this information, they aim to propose real applications to embed increasingly large complex networks in a few qubits or quantum bits.
“With multiple qubits using this method, a complex network can simulate the size of the entire world’s Internet,” said Nemoto.
The work was attended by the Japanese Ministry of Education, Culture, Sports, Science and Technology Quantum Leap flagship program, Japan Science and Technology Agency, Japan Society for the Promotion of Science and John Templeton Foundation.
Other contributors include T. Osada, b. Renaway and WJ Munro are all associated with the National Institute of Informatics. Of contributor. Sanaka and Osada are affiliated with Tokyo University of Science. Contributors are VM Bastidas and Munro with NTT Basic Research Laboratories and Research Center for Theoretical Quantum Physics. Contributor b. Renovate is with the Osaka University Institute for Datability Science. Renoway and Nemoto are also with the Japanese-French Laboratory for Informatics.
About Information and Systems Research Organization (ROIS)
ROIS is a parent organization of four national institutes (National Institute of Polar Research, National Institute of Informatics, Institute of Statistical Mathematics and National Institute of Genetics) and Joint Support-Center for Data Science Research. It is the mission of ROIS as members of inter-university research institutes, to facilitate their research activities, to go beyond the barriers of these institutions to promote integrated, cutting-edge research.
About National Institute of Informatics (NII)
NII is the only academic research institute in Japan dedicated to the new discipline of informatics. Its mission is to “create future value” in informatics. NII conducts both long-term basic research and applied research, which aims to solve social problems in a wide range of informatics research fields, ranging from fundamental principles to the latest topics such as artificial intelligence, big data, the Internet of things And information security.
As an inter-university research institute, NII builds and operates the educational information infrastructure required for research and educational activities for the entire academic community (including the science information network) as well as the provision of educational materials such as developmental services. Enables and service platform. https: /