Conférences  >  Informatique  >  Théorie de l'information quantique et informatique quantique  >  Allemagne

Schloss Dagstuhl – Leibniz-Zentrum für Informatik GmbH

Recent years have seen the emergence of a number of research groups that aim to advance quantum computing and to develop a skilled quantum software workforce. A particular challenge that must be overcome for safe quantum computing at scale is the creation of robust, expressive, efficient, and tractable formal verification tools. Since there is currently no event dedicated to this pursuit, the first goal of this Dagstuhl Seminar is to bring together a dedicated community of researchers in a single venue. This will give participants an opportunity to identify and discuss the most pressing challenges and promising directions for quantum programming and verification.

Wilhelm and Else Heraeus-Foundation

Physics-based computing explores alternatives to traditional transistor-based electronics, leveraging nonlinear phenomena in various physical domains to solve real-world problems. This approach extends the concept of analog computing, offering potential for sustainable, energy-efficient solutions in information and communication technologies. The demand for machine learning has surged, driven by advancements like ChatGPT, but the energy cost of digital, transistor-based computing remains high, particularly in large-scale data centers. In contrast, physics-based computing, such as physical reservoir computing, harnesses nonlinear dynamics in systems like magnetic skyrmions, photons, and spin waves to enable more efficient data classification, pattern recognition, and time series predictions. By operating in the nonlinear regime, these physical systems convert input signals into measurable outputs, offering a promising route to edge computing applications in fields like medical diagnostics, autonomous mobility, and smart energy grids. The strength of physical computing lies in its ability to process complex data with minimal energy consumption, without relying on traditional deep learning algorithms. Magnonics, spintronics, and photonics are key fields in this emerging area, offering systems that can serve as powerful, interconnected computational reservoirs. Spintronics, harnessing the electrons’ spin, enables the design of energy-efficient neural networks, while magnonics and photonics provide high-frequency platforms for wave-based computing. The integration of these fields, alongside other platforms such as superconductors, presents new opportunities for developing complex, scalable computing systems that can meet the growing demands of machine learning while advancing sustainable technologies.

Mécanique quantique et technologie quantique,    Matériel informatique

Max Planck Institute for the Physics of Complex Systems, Dresden

Cours et événements pour étudiants en physique,    Mécanique quantique et technologie quantique

Wilhelm and Else Heraeus-Foundation

System-agnostic black box methods in quantum information include contextuality, communication matrices, device-independent cryptography, and any other approach to quantum information where quantum devices are described as uncharacterized black boxes with inputs and outputs. Some of these approaches, such as contextuality, were developed to address problems in foundations of quantum theory and they are currently finding their way towards applications in quantum information. Others were already developed with applications in mind.

Wilhelm and Else Heraeus-Foundation

The goal of this seminar is an inspiring exchange of new ideas based on latest results on quantum entanglement in experiment and theory, followed by discussions of potential future research directions and the promotion of new collaborations. To this end, the seminar will bring together leading experimentalists and theoreticians in the field, as well as young researchers and students.

This seminar covers several aspects of recent developments of quantum entanglement, ranging from theoretical concepts for high-dimensional systems as well as multi-partite effects like superactivation, over computational aspects of entanglement, to the implementation of entangled states in different experimental platforms like ion traps, superconducting qubits or photonic systems.

Wilhelm and Else Heraeus-Foundation

The goal of the meeting is to

- Facilitate knowledge exchange: Provide a platform for experts and young scientists to share recent findings and theoretical advancements in macroscopic quantum superpositions.

- Highlight the best of the state-of-the-art: We will showcase recent breakthroughs in creating and observing cat states in various physical systems.

Wilhelm and Else Heraeus-Foundation

In quantum computing, the use of multiple ion species holds promise for instance by mitigating crosstalk, enabling efficient sympathetic cooling, thereby providing a path toward large-scale trapped-ion quantum computers. Recently other applications such as quantum logic detection of chemical reactions or reduction of uncertainty in multi-species clocks have been demonstrated. This seminar aims to bring together experts from these diverse research areas to explore synergies and foster collaboration in the control of multi-species trapped-ion quantum systems. By addressing shared challenges, such as mixed-species crystal dynamics and the development of efficient quantum logic protocols, we seek to identify synergy and foster collaboration in this rapidly evolving field.