Conferences  >  Informatics  >  Quantum Information Theory and Quantum Computing

Max Planck Institute for the Physics of Complex Systems

The conference will bring together the international ion-trapping community and will cover the whole breadth of topics of the community, including quantum computing, simulations and sensing, precision measurements and optical clocks, crystals and dynamics, molecules and more.

Metrology and Instrumentation,    Atomic and Molecular Physics

Institute for Pure and Applied Mathematics (IPAM), UCLA

The recent development of quantum algorithms has significantly pushed forward the frontier of using quantum computers for performing a wide range of scientific computing problems. This includes solving numerical linear algebra tasks for very large matrices, such as solving linear systems, eigenvalue decomposition, singular value decomposition, matrix function evaluation etc, as well as solving certain high dimensional linear and nonlinear differential equations, such as heat equations and wave equations. This workshop aims to bring together leading experts across different disciplines, including experts in solving related tasks using classical computers that can potentially inspire the development of new quantum algorithms; discuss recent progress made in the development of quantum algorithms for linear algebra and differential equations and the advances in classical algorithms; foster the discussion and pave the path towards identifying and overcoming challenging problems in science and engineering and for various industrial and technological applications.

Part of the Long Program Mathematical and Computational Challenges in Quantum Computing

Information Theory, Foundations of Computer Science,    Quantum Mechanics and Quantum Technology

KTH Royal Institute of Technology. The workshop is organised by KTH Digitalisation Platform and Digital Futures.

Welcome to a workshop targeting the Noisy intermediate-scale quantum (NISQ) technologies, methods and algorithms, with a great focus on the applications and practical aspects of this.

Besides presentations, the organisers will gather input from all the experts to develop a roadmap/agenda on the future of quantum computing. There is a list of around 10-15 confirmed external speakers, and the event will be open to other interested researchers at KTH.

Information Theory, Foundations of Computer Science,    Quantum materials, Low Temperature Physics

Quantum Alliance

Organized by PhDs for PhDs, this full day PhD conference will bring together young researchers from different domains of quantum technologies, both from a theoretical and an experimental background. From quantum computing to metrology and sensing, the PhD conference is an ideal hub to exchange ideas and openly explain our research.

Email: phd-conf@aei.mpg.de

quantum technologies, quantum computing, quantum sensing, AMO physics, PhD

Quantum Mechanics and Quantum Technology,    Atomic and Molecular Physics

Institute for Pure and Applied Mathematics (IPAM), UCLA

What will quantum computers be useful for once we have them? Machine learning and optimization would be important applications if quantum computers were useful for them, but the level of quantum benefit is unknown. One aim of the workshop is to bring together experts in classical and quantum machine learning to discuss the role of mathematical proof as well as experimentation in understanding these topics. A second aim is to explore how classical machine learning techniques can help us build better quantum computers.

Part of the Long Program Mathematical and Computational Challenges in Quantum Computing

Information Theory, Foundations of Computer Science,    Quantum Mechanics and Quantum Technology

National Institute for Research and Development of Isotopic and Molecular Technologies INCDTIM Cluj-Napoca

The ICASC 2023 conference continues the series of the former 14 annual events of the Romanian LCG Federation (RO-LCG) on “Grid, Cloud and High-Performance Computing in Science“ (2007-2022). Its title has been changed and the topics have been expanded to offer a more comprehensive coverage of the current evolution in scientific computing.

ICASC 2023 is devoted to recent developments on the application of advanced computing technologies and methods in physics research and related areas. The conference is addressed to specialists with various backgrounds of expertise, such as computer scientists and researchers in numerical methods, developers and users of software applications, quantum computing, providers and beneficiaries of data-intensive services, data center administrators.

Email: icasc@itim-cj.ro

Grid Cloud and HPC computing in research, economy and business, Grid and applications, including eScience and eBusiness, Quantum Computing, Embedded and Pervasive Computing E-infrastructures for collaborative research, National contributions to the computational support of large-scale collaborations, Software and services for distributed computing infrastructures, Numerical methods for physics, Development and optimization of software applications in Grid/Cloud/HPC and Quantum environments, Applications of machine learning methods in scientific research, Monitoring, management and data organization tools, Middleware, resource management, and runtime environments, Processing and analysis of data in computational physics/chemistry/biology, Distributed multimedia analysis and processing, Multi-core and cluster computing

Scientific Computing and Data Science,    Distributed, Edge and Cloud Computing

Institute for Pure and Applied Mathematics (IPAM), UCLA

The ability to create and manipulate complex quantum states offers the potential for dramatic increases in computational power, measurement sensitivity, and information security. Understanding the dynamics of such entangled many-body states raises a number of mathematical and physical questions, as such states often lie beyond standard approximate descriptions used in different areas of physics. This workshop is devoted to the related problems of how quantum and classical computers can be used to attack important problems in many-body quantum mechanics across application domains. While the faithful representation of full many-particle Hilbert spaces on a classical computer is exponentially costly, efficient approximate representations for specific purposes have been discovered, such as tensor networks. Studying the dynamics of quantum computers in the current NISQ area leads naturally to questions of robustness and control.

Part of the Long Program Mathematical and Computational Challenges in Quantum Computing

Information Theory, Foundations of Computer Science,    Quantum Mechanics and Quantum Technology

Institute for Pure and Applied Mathematics (IPAM), UCLA

The Institute for Pure and Applied Mathematics invites you to attend the 2023 Green Family Lectures featuring Peter Shor. This lecture is intended for a general public audience.

Institute for Pure and Applied Mathematics (IPAM), UCLA

The goal of finding better quantum error correcting codes gains motivation not just in fault tolerant quantum computing, but also for attacking major open questions in quantum complexity theory. This workshop will bring together leading researchers working on both the areas, with the aim of making progress on questions such as the quantum PCP conjecture, better quantum LDPC codes, quantum local testability and tests for quantumness.

Part of the Long Program Mathematical and Computational Challenges in Quantum Computing

Information Theory, Foundations of Computer Science,    Quantum Mechanics and Quantum Technology

Institute for Pure and Applied Mathematics (IPAM), UCLA

The Institute for Pure and Applied Mathematics invites you to attend the 2023 Green Family Lectures featuring Peter Shor. This lecture is intended for a general public audience.

Wilhelm-and-Else Heraeus Foundation

Strange metals are one of the most prominent frontiers of condensed matter physics. While conventional metals are well described by Landau’s Fermi liquid theory – i.e. a quantum liquid of long-lived, local, electron-like quasiparticles – strange metals defy this paradigm. Here, the local low-energy excitations are extremely short lived and the adiabatic connection to free electrons breaks down. As a consequence, strange metals display a multitude of unusual experimental phenomena, including anomalous charge transport (for example linear in temperature and magnetic field scaling of resistance), singular thermodynamics, and characteristic dynamical scaling. Experimentally, strange metallic behavior has been reported in a variety of experimental systems including high-temperature superconductors and heavy fermion materials. Recent progress in experimental control and device fabrication not only allowed for much more accurate studies of these classic materials, but, in the process, also revealed strikingly new properties such as the unexpectedly simple and yet puzzle scaling of the magnetoresistance. Present-day technology adds novel quantum emulators such as twisted van-der-Waals heterostructures and cold atomic gases to the list of experimental systems displaying strange metallic behavior. At the same time, most recent theories explaining strange metallic behavior resort – from a healthy variation of perspectives – to such diverse concepts as exotic (beyond-Landau) critical quantum fluctuations, effective dual gravity models, and quantum hydrodynamics. As such, this WE-Heraeus Seminar aims at bringing together key figures in the research on strange metals. A particularly important mission is the fruitful cross-talks between experimentalists working on a variety of platforms, as well as theorists with different perspectives of the problem.

Organizing committee;     Email: e.koenig@fkf.mpg.de

Condensed Matter Physics and Materials,    Quantum materials, Low Temperature Physics

Quantum Mechanics and Quantum Technology,    Information Theory, Foundations of Computer Science

Banff International Research Station (BIRS) for Mathematical Innovation and Discovery

Courses and Events for Math Students and Early Career Researchers,    Quantum Mechanics and Quantum Technology

BQIT is a three day annual workshop aimed at enabling leading UK and international academics and industrial partners to come together; to explore and discuss future ambitions and challenges in the field of Quantum Information Technologies.

Banff International Research Station for Mathematical Innovation and Discovery (BIRS)

This workshop will unite several communities of researchers focused on varying parts of the quantum software stack: the translation of quantum algorithms into instructions a quantum computer can understand (i.e., the process of quantum circuit compilation); the design, optimization, and verification of those circuits; circuit simulation; and the extension and scaling of methods to work with the fault-tolerant (error-corrected) devices of the future. The interaction of researchers at multiple layers of this stack will lead to cross-pollination of ideas that enables co-design of all these elements. Furthermore, the novel methods developed, and improvements in their scaling, will further drive quantum computing research and applications, bringing us closer to the solution of today’s most important problems.

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.

Stimulating and facilitating the development of quantum information science and technology

The Global Conference “Materials in an Explosively Growing Informatics World” will be held on June 20- 24, 2024 in Italy. The conference belongs to the highly recognized long-standing CIMTEC series of international meetings started at the end of 1960’s.

Centro de Ciencias de Benasque Pedro Pascual

The FTQT 2024 workshop will bring together researchers exploring different techniques for tackling noise in quantum computation, following up on the previous 2016 and 2020 editions of FTQT. The workshop's goal is to accelerate the development of new theoretical tools to improve the performance, efficiency and practicality of fault-tolerance protocols. The resulting theoretical work will help developers of quantum technology hardware to overcome challenges posed by decoherence.

LDPC codes - Dynamical codes - Fault-tolerant logical gates - Experimental implementations of fault-tolerant protocols

Fields Institute

The conference will include sessions that will be devoted to different themes, covering foundations and applications, theory and experiment, pure and applied research. Examples of sessions are: Quantum computing and algorithms, quantum dynamics and simulations, quantum thermodynamics, quantum communication and cryptography, quantum sensing and control, quantum hardware and materials.

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.