Tagungen und Workshops zum Thema Computerphysik und Numerische Simulation

ITMO University, Department of Physics and Engineering

The 19th Electromagnetic and Light Scattering Conference (ELS-XIX) will be held at the ITMO University, St. Petersburg, Russia, on 13-17 July 2020. It will build on the remarkable success of the previous ELS conferences held in Amsterdam, Helsinki (twice), New York, Vigo, Halifax, Gainesville, Bremen, Salobreña, St. Petersburg, Bodrum, Hatfield, Taormina, Lille, Leipzig, College Park, College Station, and Hangzhou. The main objective of the conference is to bring together scientists and engineers studying various aspects of light scattering and to provide a relaxed academic atmosphere for in-depth discussions of theoretical advances, measurements, and applications.

Secretariat;     Email: els-spb@metalab.ifmo.ru

This Meeting is devoted to the Theory of Magnetic Confinement Systems

Union of Slovak Mathematicians and Physicists in cooperation with Slovak University of Technology in Bratislava, Comenius University in Bratislava, Slovak Academy of Sciences and Algoritmy:SK s.r.o

Wissenschaftliches Rechnen,    Simulation

The NUSOD conference connects theory and practice in optoelectronics. Papers are solicited on the modeling, simulation, and analysis of optoelectronic devices including materials, fabrication, and application. Academic researchers, device engineers, and software developers are invited to discuss the advancement and the practical use of numerical methods in photonics and electronics.

Simulation,    Optoelektronik und Anzeigetechnik

Numerical simulations have become even more important as detailed comparisons between theories and observations are now possible at a deeper level in most fields of astrophysics. The aim of this series of meetings is to bring (but not limited to) East-Asian numerical astrophysicists together and provide chances to learn each other's work and explore possible collaborations among them. The scope of the meeting will encompass all major astronomical research fields that involve numerical simulations, including (but not limited to) cosmology, astronomical hydrodynamics, magnetohydrodynamics, radiative transfer, particle acceleration, and planetary / stellar / galactic dynamics. In addition, there will also be a focus on computer science applications directed toward astrophysics including numerical methods, simulation data analysis, high performance computing, and optimization for use on large scale computer clusters. Participants from outside of the East Asia are warmly welcome as well.

Astronomie, Astrophysik und Kosmologie,    Wissenschaftliches Rechnen

Forschungszentrum Jülcih

Online-Edition of the Autumn School on Correlated Electrons. Topology and entanglement are key concepts in many-body physics. Understanding the associated emergent phenomena beyond toy models — in the world of real strongly-correlated materials — requires the mastery of a wealth of different methods. These encompass analytical tools such as group theory, first principles techniques based on density-functional theory, materials-specific model-building schemes, as well as advanced modern numerical approaches for solving realistic many-body models. This year’s school will provide students with an overview of the state-of-the art of these methods, their successes and their limitations. After introducing the basics, lectures will present the core concepts of topology and entanglement in many-body systems. To make contact to real materials, strategies for building materials specific models and techniques for their solution will be introduced. Among the latter, the school will cover quantum Monte Carlo methods, construction and optimization of correlated wave-functions, recursion and renormalization group techniques, as well as dynamical mean-field theory. More advanced lectures will give a pedagogical overview on topological materials and their physics: topological metals, semimetals, and superconductors. Towards the end of the school entanglement in quantum dynamics and perspectives in quantum computation will be discussed. The goal of the school is to introduce advanced graduate students and up to these modern approaches for the realistic modeling of strongly correlated materials. The school this year will be online.

Email: correl20@fz-juelich.de

strongly-correlated systems, strong correlations, effective Hamiltonian theory, Hubbard model and Mott physics, superconductivity density-functional theory, dynamical mean-field theory, LDA+DMFT and beyond, linear response, variational wave functions, exact diagonalization and quantum Monte Carlo, topological invariants, geometry and topology, spin-orbit and many-body interactions, topological metals and semimetals, topological superconductors, entangled states, measures of correlation, bond-particle approaches, entangled dynamics

Quantenmaterialien, Tieftemperaturphysik,    Festkörperphysik

One of the key technologies emerging in the 21st century is that of advanced materials, which offer the opportunity to change our lives in many ways, from improving energy efficiency through enabling new biomedical treatments and devices. In order to harness these materials, though, significant progress is needed in developing our understanding of how they work and interact, across scales ranging from those of atoms and molecules through the full size of devices constructed from them. Across the fields of experimentalists, materials scientists, and computational scientists focusing on active biological tissue, significant research is now underway in understanding the properties of both natural and engineered materials across these scales. This workshop brings together experts with distinct views on these materials and devices, aiming to seed the cross-disciplinary research needed to realize their potential to gain new knowledge on active biological materials and to best exploit it. We will bring together a diverse group of world-leading researchers focusing on discussions on the advances currently being made and the collaborations needed to fully unlock the transformative power of advanced materials by using biological active materials as role models.

Angewandte Mathematik (allgem.),    Festkörperphysik

The Banff International Research Station will host the "Statistical Modeling for Large Complex Time Dependent Systems" workshop in the year 2020. This workshop will focus on recent developments and open problems involving the techniques of dimension reduction, dynamic networks, multi-scale modeling for nonlinear processes and count processes, and machine learning, with applications to fields such as climatology, disease mapping, social media behavior, ecology, measurement of small populations, and neuroscience.

CADFEM GmbH

Die Fachkonferenz zur Numerischen Simulation in Industrie und Forschung. Die 800 oder mehr Teilnehmer erwartet ein immenses Informationsangebot aus Fachvorträgen, Best-Practice-Sessions und Technologie-Updates in bis zu 10 parallelen Strängen. Abgedeckt wird ein breites Themenspektrum von der Strukturmechanik über Strömungsmechanik und Elektromagnetik bis hin zur Multiphysik und Systemsimulation. Eine große Fachausstellung und viele Gelegenheiten zum Dialog mit Gleichgesinnten runden die Veranstaltung ab.

Conference Team;     Tel.: [0049 8092 70050];     Email: conference@cadfem.de

Ansys, FEM, CFD, digitaler Zwilling, Simulation, Berechnung, CAE, Vernetzung, Strömung, Feldberechnung, Nachweise, Discovery, Echtzeitsimulation, Simulationstools, Digitalisierung, Virtual Prototyping, virtueller Prototyp, Auslegung, Fluent, CFX, Partikelanalyse, mathematische Verfahren, Systemsimulation, prädiktive Wartung, Konstruktion, Entwicklung, Engineering, Entwicklungsprozesse, Automatisierung

The current workshop is designed to bring together experts in mathematical and numerical analysis as well as mathematical modeling and to create a well-focused environment in which they can discuss recent problems, models and methods developed in their respective fields.

Cloud Mind Technologies , Rikkyo University

The aims of this conference is to provide a platform for the scientists, scholars, engineers and students from the universities all around the world and the industry to present ongoing research activities

Program Chair;     Tel.: [+81 (0)3-3985-4249];     Email: registration@iccmap.iisrc.org

Computational Mathematics, applied Physics

Numerische Analysis,    Angewandte Mathematik (allgem.)

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

The physical sciences have entered the era of big data, and particle physics is no exception. Extremely powerful particle colliders, telescopes observing light across the energy spectrum, and precise underground experiments have been running for years and have produced remarkably detailed and complex data sets. While no definitive signal of new physics has yet emerged from these experiments, it is quite possible that hints of new phenomena are hidden in these results, only missed due to the limitations of our analysis methods. In this workshop, we will bring together statisticians and physicists to discuss novel methods of data analysis, with a focus on machine learning, in which computers are programmed to think in ways akin to humans. We will launch the development of new computer tools that will allow us to overcome current computational limitations and fully test particle physics theories against all available data, potentially leading to discoveries that will shed light on some of the most profound questions in physics.

Kurse und Veranstaltungen für Studenten der Mathematik,    Angewandte Mathematik (allgem.)

The conference technical program spans not only the traditional transport and reactor physics analysis methods, but also uncertainty quantification methods, non-proliferation and safeguards methods, computational thermal-hydraulics, materials science, and fusion science in order to reflect the remarkable advances in various fields of nuclear science and engineering.

Kernenergie,    Angewandte Physik (allgemein)

Casa Matemática Oaxaca (CMO) in Mexico, and the Banff International Research Station for Mathematical Innovation and Discovery (BIRS) in Banff, Canada

Fluids that exhibit physical behaviours which are not Newtonian are extremely common in nature and in industrial contexts. These occur in many processes underlying natural resource industries (mining, oil and gas). These are key in manufacturing industries such as polymer processing and in new environmentally-driven manufacturing products such as printing/layering in battery manufacture, coating flows, drug and droplet encapsulation and many bio-fluid applications (e.g. blood, mucus, semen, synovial fluids). This workshop brings together mathematically oriented scientists and engineers to work on these societally important issues.

Kurse und Veranstaltungen für Studenten der Mathematik,    Thermodynamik, Hydrodynamik und Statistische Mechanik

Casa Matemática Oaxaca (CMO) in Mexico, and the Banff International Research Station for Mathematical Innovation and Discovery (BIRS) in Banff, Canada

Locomotion of cells, both individually and collectively, plays an important role in development, the immune response, wound healing, and cancer metastasis. Movement requires force transmission to the environment, and motile cells are robustly-designed nanomachines that often can cope with a variety of environmental conditions by altering the mode of force transmission – which ranges from crawling to swimming. The shape and integrity of a cell is determined by its cytoskeleton, and thus the shape changes that may be required to move involve controlled remodeling of the cytoskeleton. Motion in vivo is often in response to extracellular signals, which requires the ability to detect such signals and transduce them into the shape changes and force generation needed for movement. Thus the nanomachine is complex, and while much is known about individual components involved in movement, an integrated understanding of single cell motility, even in simple cells such as bacteria, is not at hand. At the next level, collective movement requires coordination of these nanomachines, which introduces another level of complexity. This complexity has stimulated mathematical modelling and computational simulations of cell and tissue movement at various levels, which has advanced our understanding of movement on multiple time and space scales.

Kurse und Veranstaltungen für Studenten der Mathematik,    Simulation