Theoretische Physik Mesoscopics (Loss)Head of Research Unit Prof. Dr.Daniel LossOverviewMembersPublicationsProjects & CollaborationsProjects & Collaborations OverviewMembersPublicationsProjects & Collaborations Projects & Collaborations 17 foundShow per page10 10 20 50 QLSI : Quantum Computing - Large-Scale Integration Research Project | 1 Project MembersWe propose a 4-year project QLSI, Quantum Large Scale Integration in Silicon, which objective is to demonstrate that silicon spin qubits are a compelling platform for scaling to very large numbers of qubits. Our demonstration relies on four ingredients: - Fabrication and operation of 16-qubit quantum processors based on industry-compatible semiconductor technology; - Demonstration of high-fidelity (>99%) single- and two-qubit gates, read-out and initialization; - Demonstration of a quantum computer prototype, with online open-access for the community (up to 8 qubits available online); - Documentation of the detailed requirements to address scalability towards large systems >1000 qubits. To achieve these results, our consortium brings together an unrivalled multidisciplinary team of European groups in academia, RTOs and industry working on silicon-based quantum devices. These groups are committed to playing an active part in developing the industrial ecosystem in silicon-based quantum technologies. QLSI is structured in three enabling toolboxes and one demonstration and scalability activity: - the semiconductor toolbox brings together skills from the semiconductor industry such as fabrication, high throughput test and CAD (computer aided design) with the expertise of the physics community; - the quantum toolbox gathers skills from the physics community on spin and quantum properties of Si based nanostructures and on quantum engineering from theory and experience perspectives; - the control toolbox gathers teams with instrumentation skills ranging from RF signal generation, automation and set up of high throughput characterization at low temperature. The toolboxes will generate stand-alone beyond the state-of-the-art results and will generate inputs to feed the demonstrator and scalability activity, which will integrate devices, hardware and software solutions to create an online open access demonstrator, to perform hybrid computation and to analyze scalability. Quantum theory of condensed matter: spin effects in nanostructures and quantum information Research Project | 4 Project MembersThe proposed research covers and interconnects multiple topics from the fields of quantum computing and quantum condensed-matter theory. It contributes to the long term goal of finding realistic architectures that allow the coherent manipulation of solid state systems at the quantum level. Since this goal necessarily involves the study of complex many-body systems, our research goes across many subfields of modern condensed matter and solid state theory and uses a very broad range of sophisticated technical tools.The strategy we pursue encompasses the refinement of the well-established scheme of spin-based quantum computing, as well as efforts to discover novel and realistic platforms that allow the storage and manipulation of quantum information. In view of the desired industrial feasibility and scalability of the results, we focus on the solid state as the basis of our research. Exciting and promising new materials will be examined and their suitability for quantum information processing will be evaluated. Moreover, we will study intriguing issues that are also of interest in fundamental research, ranging from exotic types of topological quantum phases to non- equilibrium dynamics, with focus on spin effects in semiconducting, superconducting, and insulating magnetic nanostructures. Also these fundamental aspects of our proposal are targeted on the ability to gain access to the quantum world. In particular, we plan to work on the following topics:2.A Quantum information and surface code2.B Spin qubits in Si and Ge nanowires2.C Majorana fermion qubits and hybrid spin qubits2.D Stability of topological excitations and qubits2.E Proximity effect in semiconducting nanostructures2.F Topological magnonics2.G Quantum effects of magnetic Skyrmions G. H. Endress Postdoc-Cluster Research Project | 5 Project MembersDas Departement für Physik der Philosophisch-Naturwissenschaftlichen Fakultät der Universität Basel und das Physikalische Institut der Fakultät für Mathematik und Physik der Albert Ludwigs-Universität Freiburg im Breisgau errichten partnerschaftlich ein neues Exzellenzzentrum mit den Forschungsschwerpunkten "Quantum Science and Quantum Computing" unter dem Dach von Eucor - The European Campus . Als tragende Säule dieses Exzellenzzentrums wird ein grenzüberschreitender Postdoc-Cluster zwischen den Universitäten Basel und Freiburg aufgebaut. Primäre Ziele des zukünftigen Postdoc-Clusters sind die hochwertige Ausbildung der Postdocs für den akademischen als auch wirtschaftlichen Arbeitsmarkt und die Positionierung als führende Forschungseinrichtung auf dem Gebiet "Quantum Science and Quantum Computing", im Speziellen durch die verstärkte grenzüberschreitende Zusammenarbeit im Dreiländereck Deutschland-Frankreich-Schweiz. Das Exzellenzzentrum "Quantum Science and Quantum Computing" wird von der Georg H. Endress Stiftung finanziell unterstützt. NCCR QSIT: Outreach and Research Project based on Quantum Error Correction Research Project | 1 Project MembersThis project presents quantum error correction and other topics in quantum computation research in a way that is accessible to the public. They will be able to learn about the science through blog posts and videos, as well as contribute to the research themselves. The latter is done through games and puzzles, primarily for iOS and Android devices. All services will be provided in German and and English. The project will also do world leading research in the field of quantum error correction. This will be adjacent to the research in the outreach project. The work will be explained to the public through the blog and videos, provided another way that they can engage with the research. Coupling and decoherence of multi spin qubit quantum systems in solid state semiconductor nanostructures Research Project | 1 Project MembersTheoretical studies of coupling and decoherence of multi spin qubit quantum systems in solid state semiconductor nanostructures. Electric manipulation of spins in magnetic nanoclusters and quantum dots for quantum information processing Research Project | 1 Project MembersTheoretical studies of Electric manipulation of spins in magnetic nanoclusters and quantum dots for quantum information processing. Quantum theory of condensed matter: spin effects in nanostructures and quantum information Research Project | 1 Project MembersWe investigate theoretically spin effects in nanostructures and quantum information in solid state systems. Silicon Platform for Quantum Spintronics SiSPIN Research Project | 1 Project MembersTheoretical studies of Silicon Platform for Quantum Spintronics. Helical states in strained ultrathin Ge nanowires Research Project | 1 Project MembersTheoretical studies of Helical states in strained ultrathin Ge nanowires. Visitor program for Basel Center for Quantum Computing and Quantum Coherence ('QC2 Basel') Research Project | 1 Project MembersTheoretical studies with visitors on quantum theory of condensed matter physics and quantum computing. 12 12 OverviewMembersPublicationsProjects & Collaborations
Projects & Collaborations 17 foundShow per page10 10 20 50 QLSI : Quantum Computing - Large-Scale Integration Research Project | 1 Project MembersWe propose a 4-year project QLSI, Quantum Large Scale Integration in Silicon, which objective is to demonstrate that silicon spin qubits are a compelling platform for scaling to very large numbers of qubits. Our demonstration relies on four ingredients: - Fabrication and operation of 16-qubit quantum processors based on industry-compatible semiconductor technology; - Demonstration of high-fidelity (>99%) single- and two-qubit gates, read-out and initialization; - Demonstration of a quantum computer prototype, with online open-access for the community (up to 8 qubits available online); - Documentation of the detailed requirements to address scalability towards large systems >1000 qubits. To achieve these results, our consortium brings together an unrivalled multidisciplinary team of European groups in academia, RTOs and industry working on silicon-based quantum devices. These groups are committed to playing an active part in developing the industrial ecosystem in silicon-based quantum technologies. QLSI is structured in three enabling toolboxes and one demonstration and scalability activity: - the semiconductor toolbox brings together skills from the semiconductor industry such as fabrication, high throughput test and CAD (computer aided design) with the expertise of the physics community; - the quantum toolbox gathers skills from the physics community on spin and quantum properties of Si based nanostructures and on quantum engineering from theory and experience perspectives; - the control toolbox gathers teams with instrumentation skills ranging from RF signal generation, automation and set up of high throughput characterization at low temperature. The toolboxes will generate stand-alone beyond the state-of-the-art results and will generate inputs to feed the demonstrator and scalability activity, which will integrate devices, hardware and software solutions to create an online open access demonstrator, to perform hybrid computation and to analyze scalability. Quantum theory of condensed matter: spin effects in nanostructures and quantum information Research Project | 4 Project MembersThe proposed research covers and interconnects multiple topics from the fields of quantum computing and quantum condensed-matter theory. It contributes to the long term goal of finding realistic architectures that allow the coherent manipulation of solid state systems at the quantum level. Since this goal necessarily involves the study of complex many-body systems, our research goes across many subfields of modern condensed matter and solid state theory and uses a very broad range of sophisticated technical tools.The strategy we pursue encompasses the refinement of the well-established scheme of spin-based quantum computing, as well as efforts to discover novel and realistic platforms that allow the storage and manipulation of quantum information. In view of the desired industrial feasibility and scalability of the results, we focus on the solid state as the basis of our research. Exciting and promising new materials will be examined and their suitability for quantum information processing will be evaluated. Moreover, we will study intriguing issues that are also of interest in fundamental research, ranging from exotic types of topological quantum phases to non- equilibrium dynamics, with focus on spin effects in semiconducting, superconducting, and insulating magnetic nanostructures. Also these fundamental aspects of our proposal are targeted on the ability to gain access to the quantum world. In particular, we plan to work on the following topics:2.A Quantum information and surface code2.B Spin qubits in Si and Ge nanowires2.C Majorana fermion qubits and hybrid spin qubits2.D Stability of topological excitations and qubits2.E Proximity effect in semiconducting nanostructures2.F Topological magnonics2.G Quantum effects of magnetic Skyrmions G. H. Endress Postdoc-Cluster Research Project | 5 Project MembersDas Departement für Physik der Philosophisch-Naturwissenschaftlichen Fakultät der Universität Basel und das Physikalische Institut der Fakultät für Mathematik und Physik der Albert Ludwigs-Universität Freiburg im Breisgau errichten partnerschaftlich ein neues Exzellenzzentrum mit den Forschungsschwerpunkten "Quantum Science and Quantum Computing" unter dem Dach von Eucor - The European Campus . Als tragende Säule dieses Exzellenzzentrums wird ein grenzüberschreitender Postdoc-Cluster zwischen den Universitäten Basel und Freiburg aufgebaut. Primäre Ziele des zukünftigen Postdoc-Clusters sind die hochwertige Ausbildung der Postdocs für den akademischen als auch wirtschaftlichen Arbeitsmarkt und die Positionierung als führende Forschungseinrichtung auf dem Gebiet "Quantum Science and Quantum Computing", im Speziellen durch die verstärkte grenzüberschreitende Zusammenarbeit im Dreiländereck Deutschland-Frankreich-Schweiz. Das Exzellenzzentrum "Quantum Science and Quantum Computing" wird von der Georg H. Endress Stiftung finanziell unterstützt. NCCR QSIT: Outreach and Research Project based on Quantum Error Correction Research Project | 1 Project MembersThis project presents quantum error correction and other topics in quantum computation research in a way that is accessible to the public. They will be able to learn about the science through blog posts and videos, as well as contribute to the research themselves. The latter is done through games and puzzles, primarily for iOS and Android devices. All services will be provided in German and and English. The project will also do world leading research in the field of quantum error correction. This will be adjacent to the research in the outreach project. The work will be explained to the public through the blog and videos, provided another way that they can engage with the research. Coupling and decoherence of multi spin qubit quantum systems in solid state semiconductor nanostructures Research Project | 1 Project MembersTheoretical studies of coupling and decoherence of multi spin qubit quantum systems in solid state semiconductor nanostructures. Electric manipulation of spins in magnetic nanoclusters and quantum dots for quantum information processing Research Project | 1 Project MembersTheoretical studies of Electric manipulation of spins in magnetic nanoclusters and quantum dots for quantum information processing. Quantum theory of condensed matter: spin effects in nanostructures and quantum information Research Project | 1 Project MembersWe investigate theoretically spin effects in nanostructures and quantum information in solid state systems. Silicon Platform for Quantum Spintronics SiSPIN Research Project | 1 Project MembersTheoretical studies of Silicon Platform for Quantum Spintronics. Helical states in strained ultrathin Ge nanowires Research Project | 1 Project MembersTheoretical studies of Helical states in strained ultrathin Ge nanowires. Visitor program for Basel Center for Quantum Computing and Quantum Coherence ('QC2 Basel') Research Project | 1 Project MembersTheoretical studies with visitors on quantum theory of condensed matter physics and quantum computing. 12 12
QLSI : Quantum Computing - Large-Scale Integration Research Project | 1 Project MembersWe propose a 4-year project QLSI, Quantum Large Scale Integration in Silicon, which objective is to demonstrate that silicon spin qubits are a compelling platform for scaling to very large numbers of qubits. Our demonstration relies on four ingredients: - Fabrication and operation of 16-qubit quantum processors based on industry-compatible semiconductor technology; - Demonstration of high-fidelity (>99%) single- and two-qubit gates, read-out and initialization; - Demonstration of a quantum computer prototype, with online open-access for the community (up to 8 qubits available online); - Documentation of the detailed requirements to address scalability towards large systems >1000 qubits. To achieve these results, our consortium brings together an unrivalled multidisciplinary team of European groups in academia, RTOs and industry working on silicon-based quantum devices. These groups are committed to playing an active part in developing the industrial ecosystem in silicon-based quantum technologies. QLSI is structured in three enabling toolboxes and one demonstration and scalability activity: - the semiconductor toolbox brings together skills from the semiconductor industry such as fabrication, high throughput test and CAD (computer aided design) with the expertise of the physics community; - the quantum toolbox gathers skills from the physics community on spin and quantum properties of Si based nanostructures and on quantum engineering from theory and experience perspectives; - the control toolbox gathers teams with instrumentation skills ranging from RF signal generation, automation and set up of high throughput characterization at low temperature. The toolboxes will generate stand-alone beyond the state-of-the-art results and will generate inputs to feed the demonstrator and scalability activity, which will integrate devices, hardware and software solutions to create an online open access demonstrator, to perform hybrid computation and to analyze scalability.
Quantum theory of condensed matter: spin effects in nanostructures and quantum information Research Project | 4 Project MembersThe proposed research covers and interconnects multiple topics from the fields of quantum computing and quantum condensed-matter theory. It contributes to the long term goal of finding realistic architectures that allow the coherent manipulation of solid state systems at the quantum level. Since this goal necessarily involves the study of complex many-body systems, our research goes across many subfields of modern condensed matter and solid state theory and uses a very broad range of sophisticated technical tools.The strategy we pursue encompasses the refinement of the well-established scheme of spin-based quantum computing, as well as efforts to discover novel and realistic platforms that allow the storage and manipulation of quantum information. In view of the desired industrial feasibility and scalability of the results, we focus on the solid state as the basis of our research. Exciting and promising new materials will be examined and their suitability for quantum information processing will be evaluated. Moreover, we will study intriguing issues that are also of interest in fundamental research, ranging from exotic types of topological quantum phases to non- equilibrium dynamics, with focus on spin effects in semiconducting, superconducting, and insulating magnetic nanostructures. Also these fundamental aspects of our proposal are targeted on the ability to gain access to the quantum world. In particular, we plan to work on the following topics:2.A Quantum information and surface code2.B Spin qubits in Si and Ge nanowires2.C Majorana fermion qubits and hybrid spin qubits2.D Stability of topological excitations and qubits2.E Proximity effect in semiconducting nanostructures2.F Topological magnonics2.G Quantum effects of magnetic Skyrmions
G. H. Endress Postdoc-Cluster Research Project | 5 Project MembersDas Departement für Physik der Philosophisch-Naturwissenschaftlichen Fakultät der Universität Basel und das Physikalische Institut der Fakultät für Mathematik und Physik der Albert Ludwigs-Universität Freiburg im Breisgau errichten partnerschaftlich ein neues Exzellenzzentrum mit den Forschungsschwerpunkten "Quantum Science and Quantum Computing" unter dem Dach von Eucor - The European Campus . Als tragende Säule dieses Exzellenzzentrums wird ein grenzüberschreitender Postdoc-Cluster zwischen den Universitäten Basel und Freiburg aufgebaut. Primäre Ziele des zukünftigen Postdoc-Clusters sind die hochwertige Ausbildung der Postdocs für den akademischen als auch wirtschaftlichen Arbeitsmarkt und die Positionierung als führende Forschungseinrichtung auf dem Gebiet "Quantum Science and Quantum Computing", im Speziellen durch die verstärkte grenzüberschreitende Zusammenarbeit im Dreiländereck Deutschland-Frankreich-Schweiz. Das Exzellenzzentrum "Quantum Science and Quantum Computing" wird von der Georg H. Endress Stiftung finanziell unterstützt.
NCCR QSIT: Outreach and Research Project based on Quantum Error Correction Research Project | 1 Project MembersThis project presents quantum error correction and other topics in quantum computation research in a way that is accessible to the public. They will be able to learn about the science through blog posts and videos, as well as contribute to the research themselves. The latter is done through games and puzzles, primarily for iOS and Android devices. All services will be provided in German and and English. The project will also do world leading research in the field of quantum error correction. This will be adjacent to the research in the outreach project. The work will be explained to the public through the blog and videos, provided another way that they can engage with the research.
Coupling and decoherence of multi spin qubit quantum systems in solid state semiconductor nanostructures Research Project | 1 Project MembersTheoretical studies of coupling and decoherence of multi spin qubit quantum systems in solid state semiconductor nanostructures.
Electric manipulation of spins in magnetic nanoclusters and quantum dots for quantum information processing Research Project | 1 Project MembersTheoretical studies of Electric manipulation of spins in magnetic nanoclusters and quantum dots for quantum information processing.
Quantum theory of condensed matter: spin effects in nanostructures and quantum information Research Project | 1 Project MembersWe investigate theoretically spin effects in nanostructures and quantum information in solid state systems.
Silicon Platform for Quantum Spintronics SiSPIN Research Project | 1 Project MembersTheoretical studies of Silicon Platform for Quantum Spintronics.
Helical states in strained ultrathin Ge nanowires Research Project | 1 Project MembersTheoretical studies of Helical states in strained ultrathin Ge nanowires.
Visitor program for Basel Center for Quantum Computing and Quantum Coherence ('QC2 Basel') Research Project | 1 Project MembersTheoretical studies with visitors on quantum theory of condensed matter physics and quantum computing.
