Quantum information processing (QIP), and generally the useof quantum technologies (QT) for communication, sensing, metrology andcomputational purposes, has become a key technology during the last decade forthe advancement of science and technology. The capability to prepare andmanipulate quantum states and to generate superpositions and entanglement ondemand has led to the development of measurement and computational procedures,which promise to perform well beyond classical tools. During the last twodecades, the physics of quantum information (QI) has been developed inlaboratories and routes to quantum devices with unsurpassed features have beendemonstrated [ARU19]. In particular, it has been shown that quantum computing(QC) promises unprecedented computational power for the solution of some hardproblems, especially when quantum features are involved, as for example, inchemical calculations and for quantum simulations of many-body problems as arefrequently encountered in material sciences. Moreover, quantum proceduresenhance optimization routines and can be used for the efficient solution ofsome hard mathematical problems, such as factoring.
During the last decade,laboratory realizations of quantum computers have demonstrated their unique computationalcapabilities and spawned the efforts to make such devices available for a wideruse in industrial applications. IBM has made quantum computers available viacloud access and attracted a huge number of users and customers who want to getthemselves acquainted with the new technology. Google has demonstrated whatthey coined “quantum supremacy”, i.e., it shows a large speedup compared withclassical computational power. While the hitherto demonstrated algorithm(random circuits) is useless for practical purposes, it clearly demonstratedthe quantum advantage that can be achieved. Such a computational potential ledto the establishment of hundreds of startups, both hardware and softwareoriented, in search of realizing scalable quantum devices and algorithms. Whilemuch of the foundations and many demonstrated quantum features were obtained inEurope, most of these newly founded companies were established in the US,Canada, in Australia, some in the UK, the Netherlands and elsewhere in Europe,but very few in Germany. Realizing the potential advantages of QC and thegeneral-purpose use of QT and pertaining devices, several initiatives arecurrently forming to establish QC and QT in Germany and, especially, inBavaria. Expertise in QC and QT will enable advanced technologies and ensurethe leading role of the German and the Bavarian industry for decades to come.
MQV – the Munich Quantum Valley initiative intends to combine the profoundquantum knowledge of the research institutes and universities in Bavaria withexpert technologies of companies and industry to develop and provide QCtechnology, and more generally, expertise in QT. New startup companies areexpected to be established in the course of the proposed work, enhancing thetechnology environment and making Bavaria increasingly attractive for researchand development. Moreover, the initiative aims at educating a new generation ofengineers with a quantum technology background and quantum physicists withsolid engineering expertise to establish the basis for new quantum applicationsand quantum devices as a resource for shaping the future.
Martin Vossiek is engaged in research and development on microwave theory and technology, radar systems, local position systems, wireless motion capture and localization, imaging and localization algorithms, machine learning and neural network-based radar signal processing and wireless sensor systems and sensor networks and RFID.
MQV Superconducting Qubits Quantum Computer Demonstrators
(Third Party Funds Single)
Term: 1. January 2022 - 31. December 2026
Acronym: MUNIQC-SC
Funding source: Bundesministerium für Forschung, Technologie und Raumfahrt (BMFTR)
Motivation
Today, quantum computers are considered to be the computing machines of the future. They use so-called qubits instead of the conventional bits of classical computer technology. The special properties of these qubits allow the quantum computer to assume all states that can be represented with the qubits simultaneously, while conventional computers can only work with one of the combinations that can be represented by the available bits per computing step. Quantum computers can thus be used to solve tasks that conventional computers fail at. Processes at the molecular level can be simulated so that, for example, the mode of action of new active ingredients can be predicted for the pharmaceutical industry. Likewise, quantum computers can find ways to develop highly efficient battery storage or solve complex problems in traffic management.
Objectives and approach
The present collaborative project aims to build the demonstrator of a quantum computer based on superconducting circuits, as well as the peripherals necessary to interface the quantum computer to conventional computer systems. The work includes research into microwave circuits to control the qubits, research into integration methods for superconducting circuits, and extends to the development of customized compilers and runtime environments for the quantum computer. The associated quantum processor is expected to be able to compute with up to 100 qubits, and would thus be capable of representing ten to the power of thirty states simultaneously (which is about ten billion times the estimated number of stars in the universe).
Innovation and perspectives
The goal of the work is, among other things, to ensure reliable operation of such a quantum computer and, on the other hand, to create the periphery to make the computing power of this computer available to a broad group of users via cloud computing.
Munich Quantum Valley
(Third Party Funds Single)
Term: 1. October 2021 - 30. September 2026
Acronym: MQV
Funding source: Bayerisches Staatsministerium für Wissenschaft und Kunst (StMWK) (seit 2018)
Quantum information processing (QIP), and generally the useof quantum technologies (QT) for communication, sensing, metrology andcomputational purposes, has become a key technology during the last decade forthe advancement of science and technology. The capability to prepare andmanipulate quantum states and to generate superpositions and entanglement ondemand has led to the development of measurement and computational procedures,which promise to perform well beyond classical tools. During the last twodecades, the physics of quantum information (QI) has been developed inlaboratories and routes to quantum devices with unsurpassed features have beendemonstrated [ARU19]. In particular, it has been shown that quantum computing(QC) promises unprecedented computational power for the solution of some hardproblems, especially when quantum features are involved, as for example, inchemical calculations and for quantum simulations of many-body problems as arefrequently encountered in material sciences. Moreover, quantum proceduresenhance optimization routines and can be used for the efficient solution ofsome hard mathematical problems, such as factoring.
During the last decade,laboratory realizations of quantum computers have demonstrated their unique computationalcapabilities and spawned the efforts to make such devices available for a wideruse in industrial applications. IBM has made quantum computers available viacloud access and attracted a huge number of users and customers who want to getthemselves acquainted with the new technology. Google has demonstrated whatthey coined “quantum supremacy”, i.e., it shows a large speedup compared withclassical computational power. While the hitherto demonstrated algorithm(random circuits) is useless for practical purposes, it clearly demonstratedthe quantum advantage that can be achieved. Such a computational potential ledto the establishment of hundreds of startups, both hardware and softwareoriented, in search of realizing scalable quantum devices and algorithms. Whilemuch of the foundations and many demonstrated quantum features were obtained inEurope, most of these newly founded companies were established in the US,Canada, in Australia, some in the UK, the Netherlands and elsewhere in Europe,but very few in Germany. Realizing the potential advantages of QC and thegeneral-purpose use of QT and pertaining devices, several initiatives arecurrently forming to establish QC and QT in Germany and, especially, inBavaria. Expertise in QC and QT will enable advanced technologies and ensurethe leading role of the German and the Bavarian industry for decades to come.
MQV – the Munich Quantum Valley initiative intends to combine the profoundquantum knowledge of the research institutes and universities in Bavaria withexpert technologies of companies and industry to develop and provide QCtechnology, and more generally, expertise in QT. New startup companies areexpected to be established in the course of the proposed work, enhancing thetechnology environment and making Bavaria increasingly attractive for researchand development. Moreover, the initiative aims at educating a new generation ofengineers with a quantum technology background and quantum physicists withsolid engineering expertise to establish the basis for new quantum applicationsand quantum devices as a resource for shaping the future.
2026
2025
2024
2023
2022
2021
2020
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