Conferences  >  Informatics  >  Quantum Information Theory and Quantum Computing

Quantum Techniques in Machine Learning (QTML) is an annual international conference focusing on the interdisciplinary field of quantum technology and machine learning. The goal of the conference is to gather leading academic researchers and industry players to interact through a series of scientific talks focussed on the interplay between machine learning and quantum physics.

Neural Networks and Artificial Intelligence, Machine Learning,    Implementation and Applications of Artificial Intelligence

Siam Quantum Science and Technology (SQST-2024) will be Thailand’s first international conference focused on quantum science and technology research. This event reflects the country’s growing quantum-research community and the government’s commitment to advancing this frontier science. The conference aims to bring together researchers from Thailand and around the world, fostering collaboration, knowledge-sharing, and inspiring young scientists in the field. The 4-day event, held in the first week of December, will feature invited talks, contributed talks, and poster sessions selected from submitted abstracts.

Isaac Newton Institute for Mathematical Sciences

Over the past few years, several remarkable links between quantum information, quantum groups, and operator algebras have been discovered. This includes in particular the study of non-local games, quantum automorphism groups, and the resolution of Connes’ Embedding problem announced by Ji, Natarajan, Vidick, Wright and Yuen in 2020. The focus of this workshop is the state of the art in this highly active area, covering the latest developments and potential future directions.

Okinawa Institute of Science and Technology

The generation of macroscopic quantum superpositions of massive objects have fascinated scientists since Schrodinger but scientific developments now promise that such superpositions may become possible in the very near future. This meeting will focus on the science of macroscopic quantum superpositions - or more commonly known as Schrodinger Cats. In the 1930s Erwin Schrodinger made a thought experiment to test the boundaries of quantum mechanics. He asked if it could be possible, not only in principle, but also in practice, to make a quantum superposition of a large-massive object (in his case a cat), in two very different positions. As far as we know - this should be possible - but extremely challenging experimentally. If one can even achieve this for nanometer (or larger), sized particles one opens the possibility of tackling many fundamental questions e.g. how does quantum interact with gravity, is there some other addition to quantum mechanics which prevents the formation of such large-massive quantum superpositions? Can such massive superpositions be used for ultrasensitive sensors. This meeting will bring experimentalists and theorists together to discuss recent science (experiment and theory), towards generating such quantum superpositions.

Event Secretariat;     Phone: [810989823588];     Email: qcatz@oist.jp, jason.twamley@oist.jp

quantum superpositions, schrodinger cats, quantum sensors, quantum gravity

Quantum Mechanics and Quantum Technology,    Quantum materials, Low Temperature Physics

EQUS, the Australian Research Council Centre of Excellence for Engineered Quantum Systems

Schloss Dagstuhl - Leibniz-Zentrum für Informatik GmbH

Under the umbrella of quantum information theory, quantum-relevant algorithms have been proposed. In some cases, their relevance is due to the reduction of the order of complexity with respect to solutions in the classical world. In other cases, the relevance is due to the emergence of innovative solutions, such as obtaining more accurate predictions with less trained neural networks. The entry into the NISQ era with the development of the first quantum computers and simulators now makes it possible to test such algorithms on real computers. This raises new expectations and fosters a growing interest in quantum computing from both research and development.

Joint Research Center for Advanced and Fundamental Mathematics for Industry

Optica

Quantum communication (QComm) provides a secure quantum information transfer across distant locations. Utilizing quantum key distribution (QKD), it surpasses classical encryption vulnerabilities to future quantum computing. Aimed at establishing a quantum internet, QComm enhances quantum-computing power through parallel and blind quantum computing. While short-distance quantum transmission is feasible, challenges remain for longer distances. The QComm value chain, comprising components, hardware, and software, also includes quantum-network operations and services. Limited for now, network operators maintain large-scale quantum networks, while various companies provide advice on QComm's technological and business aspects. The industry continues to evolve with the maturation of QComm hardware. In this online industry meeting, key players across the QComm value chain present their insight into the status of the industry, and discuss the business opportunities and challenges, in an interactive and collaborative session.

Photonics, Optoelectronics and Display Devices,    Cryptography, Blockchain and Information Security

Optica

Join us for the OPTICA Online Industry Meeting on Quantum Internet, where experts will discuss the current state and future prospects of this transformative technology. The meeting will address the challenges in developing a quantum internet, such as maintaining quantum coherence over long distances, error correction, and the integration of quantum and classical networks. Overcoming these hurdles is essential for realizing a functional and scalable quantum internet, which is necessary for the scalability of quantum computers.

Centro de Ciencias de Benasque Pedro Pascual

Courses and Events for Physics Students,    Quantum materials, Low Temperature Physics

Optica

On the edge of a technology revolution, Quantum 2.0 refers to the development and use of quantum superposition and entanglement in large engineered systems. Examples of such large quantum systems include quantum computers and simulators, quantum communication networks and arrays of quantum sensors. New technologies will go far beyond the (quantum 1.0) capabilities offered by single systems.

Information Theory, Foundations of Computer Science,    Trade Shows and Exhibitions

Centro de Ciencias de Benasque Pedro Pascual

This meeting is the main activity of the C5 commission of the International Union of Pure and Applied Physics (IUPAP). LT30 is a major event in Physics, where peers discuss about remarkable results and achievements over past three years in one of the most vibrant fields of Physics.

Technical University of Munich

The conference series "Mathematical Results in Quantum Theory" brings together people interested in the mathematical theory of quantum mechanics. QMATH16 takes place on the Garching Research Campus of the Technical University of Munich.

Mathematical Physics,    Quantum Mechanics and Quantum Technology

Optica

Join us for the OPTICA Online Industry Meeting on Quantum Key Distribution (QKD), where experts will discuss the latest developments and future prospects of secure communication technologies. This event will address the current challenges in QKD implementation, such as achieving long-distance quantum entanglement distribution, overcoming noise and loss in quantum channels, and integrating QKD with existing network infrastructures. These challenges are crucial to ensure the reliability and scalability of quantum-secure communication systems. The meeting will also highlight the opportunities presented by QKD, including unparalleled security through quantum principles, resistance against cryptographic attacks by quantum computers, and the potential to establish global secure communication networks.

Key topics will include advancements in quantum repeaters, quantum cryptography protocols, and practical applications of QKD in sectors such as finance, healthcare, and government. Engage with industry leaders to explore strategies for advancing QKD technology and its role in shaping the future of secure communications.

Optica

Join us for the OPTICA Online Industry Meeting on Quantum Computing, where experts will discuss the current challenges and opportunities in this rapidly advancing field. This event will cover topics such as achieving quantum advantage, developing error correction methods, and scaling quantum systems. Challenges include improving qubit coherence and reducing error rates, while opportunities lie in solving complex problems in optimization, drug discovery, and cryptography. Engage with industry leaders to explore the transformative potential of quantum computing and its impact on future technological innovations.