Conferences  >  Physics  >  Computational Physics and Numerical Simulation

Calculus, Differential Equations and Integration,    Modeling and Simulation

The International Congress on Mathematical Physics, on its three year cycle, is the most important conference of the International Association of Mathematical Physics, whose current president is Bruno Nachtergaele. It will be a major event, where new results and future challenges will be discussed, illustrating the richness and vitality of Mathematical Physics. We hope that you will all be able to attend and contribute to the success of the meeting.

The Conference on Computational Physics CCP2024 is the annual Conference in a series of meetings, that are held each year in a different city, treating all aspects of Physics that involve computer calculations, in an effort to explain the behavior of different systems in Physics. The meeting is sponsored by The International Union of Pure and Applied Physics (IUPAP), under the direction of the C20 Committee. The 2024 meeting will bring together scientists from all traditional areas in Physics, but will also extend to the new hot topics, such as Quantum Machine Learning, Neuromorphic Computing, use of AI in large-scale Physics experiments, big data and non-conventional data mining methods with a large variety of applications extending to complex systems, such as financial, and social networks, etc. The meeting is expected to provide a very fruitful environment to stimulate collaboration between scientists in different disciplines. A European Commission official from Brussels is invited to give the latest development in funding opportunities for collaborative projects.

Machine Learning methods have recently found widespread use in areas of atomistic modelling, mainly focusing on developing surrogate models for the potential energy surface with superior computational efficiency while retaining first principles accuracy. However, approaches to learning observable properties directly are just emerging and are challenged by several issues, which we intend to address in the workshop. The event is meant to support the development of a new collaborative, international network connecting different fields of research and integrating the young researchers community with the help of a scientifically diverse, interactive workshop.

ML of electron density and Hamiltonians, ML of electronic observables, ML of mechanical & magnetic observables, ML of spectroscopic observables, ML of reaction networks, Theoretical and experimental databases

Physical (Theoretical) Chemistry, Computational Chemistry,    Condensed Matter Physics and Materials

Institute for Computational and Experimental Research in Mathematics (ICERM)

The spectacular observation of gravitational waves from a binary neutron star merger by the LIGO-Virgo Collaboration (GW170817), and a successful follow-up campaign by nearly every electromagnetic telescope ushered in this new era of multi-messenger astrophysics. Much of the understanding of such events arises from numerical modeling. An important part of this modeling is the inclusion in simulations of neutrino transport, as described by Boltzmann's equation. Because of inherent computational resource limits and given the high cost of the transport equations and the complexity of neutrino-matter interactions, there is a trade-off between computational cost and physical realism in all simulations. This workshop covers various approaches to solving the neutrino transport problem in compact object mergers and core-collapse supernovae, including Monte Carlo methods, moment truncation schemes, and other techniques.

Email: info@icerm.brown.edu

Institute for Computational and Experimental Research in Mathematics (ICERM)

Gravitational wave science requires high-fidelity numerical simulations of the expected merger events. The Simulating eXtreme Spacetimes (SXS) collaboration has managed the development of two distinct codes for this purpose: (i) the Spectral Einstein Code (SpEC) based on pseudospectral methods, and (ii) an open-source code SpECTRE, an hp-adaptive discontinuous Galerkin scheme that also includes a sub-cell finite volume scheme in regions of strong shock formation that is ideally suited for multi-scale, multi-physics problems. SpECTRE targets problems in multi-messenger astrophysics, including neutron star mergers, core-collapse supernovae, and gamma-ray bursts. It runs at petascale and is designed for future exascale computers. Our weeklong program includes two contemporaneous activities: (i) a focused SpEC and SpECTRE code developers meeting and (ii) a SpECTRE workshop. The code developers' meeting will bring together researchers who are actively developing these codebases. The SpECTRE workshop aims to provide graduate students, postdocs, and faculty with the tools needed to install, run, and contribute to the open-source code SpECTRE. Our SpECTRE workshop will cover topics such as the generalized harmonic formulation of the Einstein field equation, general relativistic hydrodynamics, the discontinuous Galerkin method with finite volume sub-cells, the Cauchy characteristic extraction method, installing, running, and visualizing numerical simulations, and how to get involved with code development.

Email: info@icerm.brown.edu

Institute for Advanced Study in Mathematics (IASM)

This symposium brings together mathematicians, computer scientists, chemists and physicist to address a truly multidisciplinary issue of enabling large-scale atomistically-resolved, ab initio materials modeling. Such modeling capabilities are required for understanding and rational design of materials ranging from alloys to solid electrolytes for fuel cells. There is a substantial gap in theory and computing techniques which on one hand would be able to model phenomena intrinsically requiring models with millions of atoms and on the other hand provide accuracy and insight which is today routinely achievable only for unrealistically small model systems . This is a gap between a model and a reality. To bridge it, this symposium makes brains from different research fields pull in one direction. Progress that this symposium will help accelerate will mean better computational support for the development of functional materials, with more of the development moved from time-, manpower-, and $-costly lab experimentation to in-silico design.

Mathematical Physics,    Condensed Matter Physics and Materials

Forschungszentrum Jülich

Emergent phenomena are the essence of condensed-matter physics and at the same time what makes the behavior of correlated materials appealing for applications. They are, however, hard to understand at a fundamental level. It is the interplay of several competing interactions — none of which can be treated as a mere perturbation, leading to the emergence of effective interactions — that makes their description a grand challenge. Addressing this problem requires mastery of a wide spectrum of theoretical concepts, ranging from materials modeling using first-principles approaches to advanced many-body methods based on dynamical mean-fields, stochastic simulations and renormalization techniques. The concepts of symmetry, topological invariance and the classification of transitions between phases are of crucial importance to bring order to the plethora of observed phenomena.

The goal of this year’s school is to provide students with an overview of the state-of-the-art in the field of emergent phases in strongly correlated systems and the many techniques used to investigate them. The program will start with fundamental models and concepts, introducing the Hubbard and Anderson Hamiltonians and their physics, and providing an overview of field-theoretical aspects of condensed-matter physics. More advanced lectures will introduce symmetries, Berry phases and topological quantum matter. The focus will then turn to emergent phenomena: superconductivity, conventional and non-conventional, Kondo and heavy-fermion behavior, Kosterlitz-Thouless transitions, Mott phases, orbital-ordering, and quantum phase transitions. The topics will be treated both from the view point of simple models and that of real materials, with an outlook on materials design from the theoretical and experimental viewpoint. The theoretical approaches covered will go from density-functional-theory-based methods to dynamical mean-field theory and quantum Monte Carlo. Experimental lectures will cover phenomena under normal and extreme conditions.

Email: correl24@fz-juelich.de

strong correlations, Mott transition, Kondo physics, quantum magnetism, superconductivity, quantum Monte Carlo, emergent phenomena, dynamical mean-field theory, materials simulations

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

Institute of Physics of Materials of the Czech Academy of Sciences

Metallurgy and Materials Science,    Condensed Matter Physics and Materials

MODE (for Machine-learning Optimized Design of Experiments) is a collaboration of physicists and computer scientists who target the use of differentiable programming in design optimization of detectors for particle physics applications, extending from fundamental research at accelerators, in space, and in nuclear physics and neutrino facilities, to industrial applications employing the technology of radiation detection. Our aim to develop modular, customizable, and scalable, fully differentiable pipelines for the end-to-end optimization of articulated objective functions that model in full the true goals of experimental particle physics endeavours, to ensure optimal detector performance, analysis potential, and cost-effectiveness.

Scientific Computing and Data Science,    Neural Networks and Artificial Intelligence, Machine Learning

Joint Research Center for Advanced and Fundamental Mathematics for Industry

Thermodynamics, Fluid Dynamics and Statistical Physics,    Automotive Engineering, Roads and Railways

Department of Physics, Sardar Vallabhbhai National Institute of Technology (SVNIT), Surat, India

The conference aims to improve and continue communication among researchers in functional materials and applied physics-related fields. It is anticipated that this conference will provide an outstanding opportunity for exchanging ideas and promote discussion on recent advances in the field of materials & other areas of physical sciences.The scientific deliberations at the conference will cover a wide range of topics on materials & other areas of physical sciences in the form of invited talks, contributory papers, and panel discussions. In addition, there will be presentations by Emerging Young Scientist (EYS) Award nominees.

Phone: [+919879456531];     Email: yas@phy.svnit.ac.in

Nano Materials Optoelectronics Phase Transition, Quantum Fluids, and Solids Photonic Materials & Plasmonics Nano-biophysics Glasses, Ceramics, Polymers & Composites Surface, Interface & Thin Films Superconductivity, Magnetism & Spintronics Thermoelectric Materials Energy Materials 2D Materials Theoretical Sciences Plasma Physics Applied Physics & related field

Condensed Matter Physics and Materials,    Clusters, Nanomaterials, Graphene and Fullerenes

The CHEP conference series addresses the computing, networking and software issues for the world’s leading data‐intensive science experiments that currently analyse hundreds of petabytes of data using worldwide computing resources.

The National Centre for Atmospheric Science is a world leading research centre, supported by the Natural Environment Research Council.

The Model for Prediction Across Scales – Atmosphere (MPAS-A) is next-generation numerical atmospheric model that employs state-of-the-art numerics and software engineering, while incorporating physical parameterization schemes from the WRF-ARW model. MPAS-A solves the compressible non-hydrostatic equations, supporting applications from global scales to the explicit simulation of clouds, and it uses horizontally unstructured meshes that permit continuous mesh refinement in both global and regional configurations. Leading scientists from the US National Center for Atmospheric Research (NSF-NCAR) will introduce you to MPAS-A and MPAS-JEDI.

Meteorology and Climate Change,    Courses and Events for Physics Students

Joint Research Center for Advanced and Fundamental Mathematics for Industry

Abdus Salam International Centre for Theoretical Physics (ICTP), Trieste, Italy / IAEA

Applied Mathematics (in general),    Atomic and Molecular Physics

The school will introduce general concepts in frustrated magnetism, and offer coherent and comprehensive series of lectures and tutorials involving experimentalists, theoreticians and numerical experts in the field.

Magnetism and Magnetic Materials, Spintronics,    Courses and Events for Physics Students

Die Optikentwicklungssoftware ZEMAX® OpticStudio® ist eines der in der Industrie am häufigsten eingesetzten Programme seiner Art. Mit ZEMAX® OpticStudio® können die Eigenschaften unterschiedlichster optischer Systeme berechnet und optimiert werden. Die Anwendungsfelder reichen von abbildenden Optiken über Beleuchtungssysteme, Faser- und Spiegeloptiken bis hin zu diffraktiven Systemen. Die Software ist ausgesprochen leistungsfähig, jedoch ist ihre Bedienung komplex und oft wenig intuitiv, so dass gerade Anfänger Gefahr laufen, irreführende oder fehlerhafte Ergebnisse zu erhalten. In der Seminarreihe „Optikentwicklung mit ZEMAX® OpticStudio® “ lernen Sie unter Anleitung eines erfahrenen Dozenten, wie Sie ZEMAX® OpticStudio ® für Ihre Arbeit einsetzen können.

Optics and Lasers,    Application Software

Die Optikentwicklungssoftware ZEMAX® OpticStudio® ist eines der in der Industrie am häufigsten eingesetzten Programme seiner Art. Mit ZEMAX® OpticStudio® können die Eigenschaften unterschiedlichster optischer Systeme berechnet und optimiert werden. Die Anwendungsfelder reichen von abbildenden Optiken über Beleuchtungssysteme, Faser- und Spiegeloptiken bis hin zu diffraktiven Systemen. Die Software ist ausgesprochen leistungsfähig, jedoch ist ihre Bedienung komplex und oft wenig intuitiv, so dass gerade Anfänger Gefahr laufen, irreführende oder fehlerhafte Ergebnisse zu erhalten. In der Seminarreihe „Optikentwicklung mit ZEMAX® OpticStudio® “ lernen Sie unter Anleitung eines erfahrenen Dozenten, wie Sie ZEMAX® OpticStudio ® für Ihre Arbeit einsetzen können.

Optics and Lasers,    Application Software

Die Optikentwicklungssoftware ZEMAX® OpticStudio® ist eines der in der Industrie am häufigsten eingesetzten Programme seiner Art. Mit ZEMAX® OpticStudio® können die Eigenschaften unterschiedlichster optischer Systeme berechnet und optimiert werden. Die Anwendungsfelder reichen von abbildenden Optiken über Beleuchtungssysteme, Faser- und Spiegeloptiken bis hin zu diffraktiven Systemen. Die Software ist ausgesprochen leistungsfähig, jedoch ist ihre Bedienung komplex und oft wenig intuitiv, so dass gerade Anfänger Gefahr laufen, irreführende oder fehlerhafte Ergebnisse zu erhalten. In der Seminarreihe „Optikentwicklung mit ZEMAX® OpticStudio® “ lernen Sie unter Anleitung eines erfahrenen Dozenten, wie Sie ZEMAX® OpticStudio ® für Ihre Arbeit einsetzen können.

Optics and Lasers,    Application Software

American Nuclear Society (ANS)

COMPUMAG 2025, the 24th International Conference on the Computation of Electromagnetic Fields, will be held in Naples, Italy, from June 22 to 25, 2025. It is co-organized by 9 teams from the Italian community of Computational Electromagnetism. The conference venue is the Hotel Royal Continental, located in the heart of Naples. Since its creation in 1976, COMPUMAG has been one of the most important events in the field of computational electromagnetics for researchers all over the world to present their latest research advances, to share professional experiences, to exchange new ideas and to expand their professional networks.

Magnetism and Magnetic Materials, Spintronics,    Electrostatics, Electromagnetic Waves