Konferenzen  >  Physik  >  Festkörperphysik

Institute for Pure and Applied Mathematics (IPAM), UCLA

The vast majority of the computing power available to the materials science community is consumed by a relatively small number of workhorse methods, such as molecular dynamics and density functional theory. These methods have been adapted to run on parallel platforms for decades, but the focus has firmly been on weak-scaling, i.e., on scaling the problem size with the number of processors. While high-performance weak-scaling implementations of these methods are extremely valuable, the focus on increasing length-scales limits opportunities for scientific discovery. Transformative impact requires the capability to leverage computing resources to simultaneously and flexibly increase length scales, time scales, and accuracy. Increasing simulation timescales requires a deep understanding of the mathematics of rare in order to inform novel methods that are specially tailored from the start, as well as strong-scaling computational engines that can leverage large computational resources on problems of relatively small sizes. This requires a dramatic rethinking of how basic algorithms in materials science are derived and implemented. Similarly, the exponential increase in computer resources now enables very high accuracy simulations with methods such as coupled clusters or quantum Monte Carlo. These methods are extremely powerful, but they tend to scale poorly with the number of electrons. The development of new flexible methods where accuracy can be systematically adjusted in order to modify the tradeoff between size and time scales would therefore be extremely beneficial. This workshop will focus on recent development of new mathematical approaches to intensive calculations at massive scale with a focus on new ways to improve scalability (both weak and strong) and extend simulations along the size, time, and accuracy axes simultaneously.

Part of the Long Program New Mathematics for the Exascale: Applications to Materials Science, Integration of direct simulations, online data analysis, and experimental data. Mathematical methods for data assimilation. Large-scale inverse problems. Computation-aided online experimental design at massive scales. Active exploration of chemical space using massive quantum calculations. Workflow infrastructure. Integration of numerically-intensive calculations with ML/data-science at scale.

Wissenschaftliches Rechnen und Datenwissenschaft,    Computerphysik und Numerische Simulation

Welcome to the 2023 Topological Matter Conference, which focuses on recent developments in fundamental and applied aspects of broad classes of topological quantum systems and the synergy between them. Topics include topological insulators and Weyl semimetals, topological phononics and photonics, skyrmions, quantum metrology and more.

University of Veracruz, Physics Faculty

Dispersions of Charged Particles (DCP), including electrolytes, charge-stabilized colloids, and macromolecular solutions, are paramount for many areas of science and technology. On May 1, 2023, it will be 100 years since the publication of the first theoretical work about non-ideality effects in the thermodynamic properties of electrolyte solutions [Zur theorie der Elektrolyte, P. Debye and E. Hueckel, 1923.]

The Faculty of Physics at the University of Veracruz (UV) is organizing the international meeting

“Dispersions of particles: A centrury of theoretical development”

to gather a group of renowned researchers that will share and discuss their works and perspectives on the study of DCP.

We will dedicate the event to honoring the scientific careers of Professors Gerhard Naegele and Jan K.G. Dhont, considering their support to advancing The Mexican Soft Matter Science Community. This event is also part of a series occurring this winter-spring season that celebrates 40 Years of German – Mexican Partnership in Soft Condensed Matter.

Date: March 30-31.

On-site venue:

USBI-Xalapa video conference room,

Culturas Veracruzanas 1, Campus for Culture, Arts, and Sports (CAD-UV),

91060 Xalapa-Enriquez, Veracruz, Mexico.

For directions: https://goo.gl/maps/3MEYNVwTK9841bT18

Virtual venue:

The Videoconference Department of UV will stream the event online

https://www.uv.mx/video/canalxalapa/

Registration :

Whether you are attending online or in person, please fill out this form:

https://forms.office.com/r/BYKr5vue3C

The event will be free of charge, and attendees visiting us from other parts of the country must book their hotel rooms independently.

Following this link, you can find a list of suggested hotels:

https://www.uv.mx/programadescuentos/%20hoteles-region-xalapa%20/

At the moment of your booking, please mention that you will participate in a conference organized by Facultad de Física de la UV.

Email: clcontreras at uv.mx

Debye Hueckel and its generalizations, electrolyte and charge-stabilized colloid transport, thermodynamics and structure of charged dispersions, non-equillibrium ststistical physics, mode-coupling theory, active charged matter.

Thermodynamik, Hydrodynamik und Statistische Mechanik,    Physikalische (theoretische) Chemie, Chemoinformatik

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

The workshop "Compensated Compactness and Applications to Materials" will bring together experts from the theory of compensated compactness with researchers in material science. Classical compensated compactness is a theory that allows to study the limit of solutions of some partial differential equations with strongly oscillating coefficients. A particular focus is on the very recent developments in the compensated compactness theory involving concentration effects and formation of singularities. These developments have enabled many new results, for instance in the theories of microstructure, shape optimization, dislocation theory, fracture, and plasticity, and they also hold much promise for future applications. To facilitate further breakthroughs, this workshop aims to balance theoretical and more applied talks to give the participants the opportunity to exchange the latest ideas, learn new methods, and start new collaborations.

Infinitesimalrechnung, Differentialgleichungen, Integralrechnung,    Angewandte Mathematik (allgem.)

UC Santa Barbara, Kavli Institute for Theoretical Physics (KITP)

Recent developments in several disparate areas make it a pressing and opportune time to confront the interplay between topology, symmetry and interactions. This conference will catalyze the discussion on this broad topic by highlighting a burst of recent advancements, both theoretical and experimental, along this direction. An important goal is to enhance cross-talk between the weakly and strongly correlated communities interested in topology that have not yet had adequate interactions with each other. The conference will bring participants up to speed in this rapidly growing field and sharpen the central questions that will be discussed in the remainder of the associated program.

Geometrie und Topologie,    Mathematische Physik

Materials Research Society (MRS)

Neutron scattering provides insight into the structure and dynamics driving material properties through a wide range of different techniques. It is a non-destructive and highly penetrating probe, which can be combined with complex sample environment enabling in situ and in operando measurements. This symposium will explore how different neutron scattering techniques can be used to explore energy materials, with the aim of understanding the structures and processes to accelerate materials development. Neutron scattering is used to understand the structure and properties of all forms of condensed matter, and is exceptionally-well suited to studying how the transport and binding of energy and charge-carrying species relate to their dynamics and the material's crystal structure. H2, H+, and Li+ are key to a range of leading energy technologies, and are excellent neutron scatterers, making neutron-based analysis ideal for in situ and in operando studies of hydrogen storage, fuel-cell, catalytic, and battery materials. Similar research into the functionality of solar-cell, thermoelectric, caloric, nuclear, and CO2 capture/storage materials rely on other unique aspects of neutron scattering and can be used to showcase how their structure and dynamics provide an understanding of the material stability and the binding and mobility of species of interest. This symposium, focussing on advances and developments in neutron scattering for the characterization of energy materials, will be of interest to new and expert users alike. Attendees with little or no experience of neutron scattering who are working on energy materials will discover how powerful neutron scattering is as a characterization method, while those with more experience will find this an invaluable networking opportunity, fostering interactions and advancing knowledge in the field.

Angewandte Physik: Neutronenstreuung,    Ökosysteme, Umwelt und nachhaltige Entwicklung

Institute of Physics (IOP), Thin Films and Surfaces Group

ISSC-24 is the latest meeting in the series of interdisciplinary surface science conferences covering all experimental and theoretical aspects of surfaces, interfaces and nanoscale physics and chemistry.

Mechanik, Rheologie und Tribologie,    Festkörperchemie

Institute for Pure and Applied Mathematics, UCLA.

Quantitatively predicting the properties of “real” structural materials is an extremely challenging endeavor, as macroscale properties depend on characteristics of the material at every scale, from nanometers (short range order, point defects, etc.), to micrometers (grain size, extended defects, etc.), to centimeters (texture, etc.). Similarly, relevant timescales range from atomic vibrations (picoseconds) to microstructural evolution times (hours to years). This extreme breadth of size and time scales makes the accurate simulations with fully-resolved atomic-scale tools (e.g., molecular dynamics) hopeless. Practical solutions must therefore rely on scale-bridging approaches that systematically upscale the lower scale physics into computationally tractable higher-scale constructs. The premise of this workshop is that extreme-scale computing can breathe new life into the field of multiscale modeling by addressing the problems identified above with brute force computing. This workshop will focus on new mathematical approaches to multiscale/multiphysics modeling, with a particular emphasis on the many theoretical and numerical challenges faced at the exascale. The goal is to bring together specialists in a range of massively parallel algorithms and researchers interested in improving the scalability of current techniques.

Part of the Long Program New Mathematics for the Exascale: Applications to Materials Science, Integration of direct simulations, online data analysis, and experimental data. Mathematical methods for data assimilation. Large-scale inverse problems. Computation-aided online experimental design at massive scales. Active exploration of chemical space using massive quantum calculations. Workflow infrastructure. Integration of numerically-intensive calculations with ML/data-science at scale.

Wissenschaftliches Rechnen und Datenwissenschaft,    Computerphysik und Numerische Simulation

KTH, Royal Institute of Technology in Stockholm

Energy Materials is the topic of the next KTH Materials Platform Day organised on 4 May 2023. This annual event is for materials-related research at KTH, including scientific presentations and policy information. The workshop is intended for a general audience.

Ökosysteme, Umwelt und nachhaltige Entwicklung,    Chemikalien und Materialwissenschaft

The conference is organized by GSI/FAIR, and in close connection to the Justus-Liebig-University in Giessen and the HIM in Mainz.

The spirit of the conference is to provide a form of presentations and discussions on the stopping and thermalization of ions in gases, method to provide clean and cooled low energy beams and their subsequent analysis.

Kernphysik,    Teilchenbeschleuniger

The theme of the 2023 Self-Assembly and Supramolecular Chemistry GRC will be Structure and Motion Across Length Scales. Encoding sophisticated functions in supramolecular and/or self-assembled systems relies on multiple nanoscopic objects working together in space and time and can give rise to collective effects at the macroscopic level. Recent breakthrough research has provided the underpinnings for increasingly complex functionalities in dynamic and ultimately life-like materials. Nevertheless, continued efforts are required, e.g., in understanding how the formation of hierarchical structures can be controlled across increasing length scales, how supramolecular systems and higher-order entities can be encoded to form when and where needed, and how they can exhibit continuous motion. Life is the ultimate example of self-assembly and supramolecular chemistry; synthetic chemists can thus draw inspiration from the complex chemical phenomena found in biological systems. For example, biomolecular machines ultimately promote the emergence of function at higher levels of organization. Furthermore, self-assembly at higher levels of organization can be used for the dynamic control of chirality. The field of self-assembly and supramolecular chemistry is timely and highly interdisciplinary, and this conference will reflect the diversity of approaches developed so far.

Structure and Motion Across Length Scales

The performance of fusion devices and of future fusion power plants strongly depends on the capability and durability of plasma-facing materials and components under the expected operational conditions. This comprises the resistance to heat and particle loads, material and in particular thermo-mechanical properties, as well as the variation of those as a result of fusion neutron irradiation. These are all critical parameters, which need to be understood and tailored from atomistic to component levels. The 19th International Conference on Plasma-Facing Materials and Components for Fusion Applications addresses these issues.

Tungsten, tungsten alloys, and advanced steels; Low-Z and liquid materials; Erosion, re-deposition, mixing, and dust formation; Fuel retention and removal; Materials under extreme thermal and particle loads; Technology and qualification of plasma-facing components; Neutron effects in plasma-facing materials; Fusion devices and edge plasma physics

Plasmaphysik, Kernfusion,    Metallurgie und Werkstoffkunde

The 3rd edition of the Quantum Matter International Conference – QUANTUMatter 2023 (Madrid, Spain)– aims at gathering the various communities engaged in the science and technologies of quantum information and quantum matter, to foster the incubation of new ideas & collaborations at the forefront of quantum technologies, emerging quantum materials and novel generations of quantum communication protocols, quantum sensing and quantum simulation.

Quantenmechanik und Quanteninformation,    Quanteninformationstheorie und Quanteninformatik

European Materials Research Society (E-MRS)

The 2023 Spring Meeting of the European Materials Research Society (E-MRS) will take place from May 29 to June 2, 2023 at the Convention Centre in Strasbourg, France. The society will celebrate on this occasion its 40th Anniversary. The scientific programme will highlight the latest advances in materials research at an international level, with a strong emphasis on interdisciplinary research in both fundamental and applied areas.

Festkörperchemie,    Metallurgie und Werkstoffkunde

Isaac Newton Institute for Mathematical Sciences (INI)

The biennal International Symposium on Hysteresis Modeling and Micromagnetics (HMM) is an interdisciplinary forum for discussion of the most recent advancements in the fields of hysteresis modeling and micromagnetics. It aims to bring together scientists with various backgrounds (e.g., mathematicians, physicists, engineers, and materials scientists) to exchange ideas and to present new approaches and results.

Mathematical modeling of hysteresis, Preisach, Jiles-Atherton and vector hysteresis modeling, Classical and quantum spin models, random-field models and frustrated magnetism, Novel developments in micromagnetics, link to other physical models, Magnetic excitations and solitons, Ab-initio, atomistic and multiscale modeling, Modeling of thermal effects in magnetism, Modeling of magnetization dynamics and spintronics, Modeling of individual magnetic nanostructures and their interactions, Modeling of magnetic systems for technological and biomedical applications, Mathematical and numerical analysis of partial differential equations with hysteresis, Mathematical and numerical analysis of partial differential equations in micromagnetics, Experimental studies and model validation

Organised by IOP Thin Films and Surfaces Group

Surface Science Day 5 is the fifth in a series of one-day workshops focussed on surface science. The workshop aims to cover most aspects of research in surface science. Its main audience is PhD students and Postdocs, as well as early professionals. The day includes a full programme of invited speakers with opportunities for cross-fertilisation between sub-disciplines. In addition, there is a poster session for contributed posters from delegates. Student posters are eligible for entry for a poster prize, which will be awarded on the day.

Festkörperchemie,    Kurse und Veranstaltungen für Physikstudenten

The study of phonons–a core discipline in the conventional condensed matter physics literature–is currently being viewed in a new light. With a focus on both elucidation and manipulation of phonons across multiple scales, the emerging field of phononics has been vigorously gathering pace in recent years. In 2011, Phononics 2011 was launched as a prime international conference for the field to take place on a biannual basis. Phononics 2023, the sixth in the series, welcomes scientists and engineers from across disciplines and from across the world.

Royal Society of Chemistry (RSC)

The UK PorMat meetings are organised by the Porous Materials Interest Group of the RSC, and act as a focal point for researchers working on all aspects related to porous materials, including synthesis/design, characterisation, applications, and modelling. They cover research on a wide variety of materials, including zeolites and zeotypes, Metal-Organic Frameworks (MOFs), Covalent Organic Frameworks (COFs), porous silicas, porous carbons, porous polymers, porous organic cages, among others.

Kurse und Veranstaltungen für Physikstudenten,    Optoelektronik und Anzeigetechnik

LightMAT 2023 provides a platform for academic and industrial researchers, scientists, and engineers to present and discuss the recent development and progress made in Magnesium, Aluminium, Titanium and their alloys and materials combinations.

Max Planck Institute for the Physics of Complex Systems

Lodz University of Technology

QIF3’s main themes are the density and density matrix-driven electronic structure methods, but sessions on strong electron correlation and beyond-QTAIM topological approaches are also planned. QIF3 is a satellite meeting of the 17th International Congress of Quantum Chemistry in Bratislava (https://icqc2023.org/). We have a great lineup of confirmed speakers but also several slots for contributed talks are available. A poster session is planned as well.

Email: qif2023@info.p.lodz.pl

Electronic structure methods, density functional theory, intermolecular interactions, atoms in molecules, electronic correlation

Physikalische (theoretische) Chemie, Chemoinformatik,    Atomphysik

This GRS will be devoted to recent advances in plasmon-driven processes, which enable and strengthen applications in photonics, chemistry, materials, engineering, and biomedical sciences. Valuable future perspectives will be provided to participants through in-depth discussions and interactive panels.

Fundamentals and Applications of Plasmon-Driven Processes

This GRC is dedicated to the use of plasmons to drive diverse physical and chemical processes, and to the improvement of the understanding of plasmon-controlled generation, manipulation, and conversion of photons, charges, and phonons that are involved in the plasmon-driven processes. New plasmonic applications will be identified. Challenging problems related to plasmonically powered processes will be discussed.

Plasmonic Control of Photons, Charges and Phonons

From displays, to materials actuation, biosensing, and even the nucleic acid bundles inside a viral capsid, liquid crystal ordering has enabled marvels in nature as well as numerous transformations in scientific, medical, and technological domains. The 2023 Gordon Research Conference on Liquid Crystals (LCs) will gather a diverse community of scientists who are pushing the boundaries of theory, experiments, and applications of liquid crystals. This meeting will feature research at the intersection of materials science, engineering, biology, chemistry, and physics, that is redefining and reinvigorating the field of liquid crystals. Topics include, but are not limited to, computational and theoretical advances in active matter, biosensors exploiting the exquisite responsiveness of liquid crystals, liquid crystal elastomers and soft robotics, synthetic and natural structural color, pharmaceuticals, and energy materials. Conference speakers and discussion leaders sample the full spectrum of creative liquid crystal researchers, from well-established authorities to junior innovators, with contributions from engineering, the life sciences, and industry.

Learning from Nature to Transform Technology through Liquid Crystal Science

Max Planck Institute for the Physics of Complex Systems

Attosecond and strong field physics are evolving in new directions, unified by the concept of lightwave electronics: from the generation of structured pulses with tailored angular momentum properties, the control of the enantiosensitive electronic response in chiral molecules, the study of non-linear properties of solid-state materials, to the generation and application of electron matter-wave vortices.

Optik und Laser,    Quantenmechanik und Quanteninformation

IOP

The Condensed Matter and Quantum Materials (CMQM) series is home to the UK condensed matter physics community and offers a focused meeting for topical and emerging fields in solid state and materials physics. The conference is supported by a number of Institute of Physics groups and aims at bringing together scientists and PhD students with diverse interests including exotic electronic and magnetic phenomena in solids, new materials, characterisation techniques and devices. The 2023 conference will be hosted by the University of Birmingham. During the event all active researchers within the relevant subject areas will have the chance to present, and which will form a marketplace for students, postdocs, advisors, and collaborators to find each other.

The European High Pressure Research Group (EHPRG)

Technische Universität Wien

The Conference will cover all aspects of processing, fabrication, structure/property evaluation and applications of both ferrous and non-ferrous materials, composites including biomaterials, high temperature materials, fuel cells/hydrogen storage technologies, batteries, super capacitors, thermoelectric materials, nanomaterials for energy and structural applications, aerospace structural metallic materials, bulk metallic glasses, UFGM, TMP of fission materials (fuel cladding, structural), high entropy alloys, materials & technologies in fusion reactors, additive manufacturing, smart/intelligent materials, modeling & simulation, welding/Joining- FSW-P, interfaces/Grain boundaries & neutron scattering /X rays studies and materials performance of advanced materials.

Institute of Low Temperatures and Structure Research PAS

Conference on Cryocrystals and Quantum Crystals (CC) has been an important international forum for presenting new results on physics and chemistry of atomic and molecular solids such as rare gas solids, hydrogens, nitrogen, oxygen, methanes, helium isotopes, water ice, etc.The scope of CC is wide, including, but not limited to: films, nanoscale systems, low temperature physics, charged species in cryocrystals, spectroscopy of cryocrystals, ultra-low temperature and high-pressure studies, matrix isolation in cryocrystals, ultrafast dynamics in crystals, order-disorder phenomena, technological applications and instrumentation.

Event Secretariat;     Tel.: [+48 71 343 4 276];     Email: cc2022@intibs.pl

molecular crystals; quantum crystals; low-temperature physisc; nanoscale systems; thermal transport; order-disorder phenomena; high-pressure studies

Quantenmaterialien, Tieftemperaturphysik,    Atomphysik

The 17th International Conference on Phonon Scattering in Condensed Matter, Phonons 2023, is the latest in the pre-eminent conference series on the physics of phonons and phonon interactions. It is held nominally every three years, the recent previous conferences were held in Nottingham, UK (2015) and Nanjing, China (2018). After the pandemics, Phonons 2023 retakes its momentum. Phonons 2023 will consist of: plenary sessions covering some of the latest developments in phonon physics; parallel oral sessions, including invited talks on key topics; poster sessions; and social events to facilitate discussions in the phonon physics community. The conference will take place in the Paris area. The city has excellent transport links to the major international airports in Europe and is easily reached by visitors from all over the world.

A major goal of this seminar is to highlight and celebrate the latest progress and insights in the novel topological and correlated matter, such as artificially designed moire systems built with twisted graphene or transition metal dichalcogenide layers, non-Hermitian and Floquet systems, topological magnetic materials, and axion insulators

Mapping a Landscape of Novel Unexpected States

During the past four years, new phenomena and material systems kept emerging. The artificially designed 2D materials have quickly become an important playground of this field, where correlation and topology are deeply intertwined. In addition to the twisted graphene systems, new topological and strongly correlated states are discovered also in twisted TMD layers recently bringing interesting new problems to the field. Another new territory for the topological and correlated systems is the non-equilibrium systems, where new topological states have been proposed and discovered in non-hermitian and Floquet systems. Impressive progress has also been made in more traditional bulk crystal materials, where new systems with quantum anomalous Hall states and axion insulators have been discovered and topological classification for magnetic crystals has been accomplished. Now, it is time to gather again and share the latest progresses and ideas.

Mapping a Landscape of Novel Unexpected States

Come and experience a rich palate of cryogenic-related topics including industry and research and development that are the foundation of the conference. The technical program features the latest research and state-of-the-art developments in all areas of cryogenics, including superconductivity, cryocoolers, transportation, medical, cryogenic materials, and other applications. Honolulu beckons with a relaxed and thought-provoking environment ripe for lively discussions, shared experiences, and collaboration development.

ASME - The American Society of Mechanical Engineers

The conference will bring together international researchers and engineers focusing on heat and mass transfer in a variety of applications. The program of SHTC 2023 will include technical paper sessions, plenary lectures, committee meetings and social events. The objectives of the meeting are to provide a forum for presentation of state-of-the-art research and opportunities for technical interactions among participants.

Maschinenbau,    Thermodynamik, Hydrodynamik und Statistische Mechanik

Emerging Physical Platforms and Applications of Quantum Sensors

Messtechnik,    Quantenmechanik und Quanteninformation

Frontiers of Sensing in the Quantum Regime with Atomic, Solid-State and Photonic Systems

Messtechnik,    Quantenmechanik und Quanteninformation

Institute of Physics (IOP)

The Joint 28th AIRAPT and 60th EHPRG International Conference on High Pressure Science and Technology will be held at the Edinburgh International Conference Centre (EICC) located in Edinburgh, UK.

The Korean Magnetics Society

UK Metamaterials Network, UK Acoustics Network

The one-week summer school, aimed at PhD students, Postdocs & Early Career Academics, will be hosted between the Henry Royce Institute and Manchester Metropolitan University. There will be five focussed days: i) Numerical Modelling (e.g., finite element), ii) Analytical Modelling, iii) Manufacturing, iv) Experimental Methods, and v) Career Progression/Funding. These will include invited summary lectures and specific state of the art talks from internationally recognised academic and industry experts. As exciting topics with local expertise, we will run metamaterials sports engineering linked projects as part of this event.

Akustik und Vibration,    Kurse und Veranstaltungen für Physikstudenten

Coherent control aims to steer quantum systems towards desired final states through its interaction with light. Recent years have witnessed rapid acceleration of research activity in the field. Along with new theoretical control strategies, latest advances in nonlinear optics and ultrafast laser technology have enabled spatial and temporal coherence of light to be extended through to the UV and X-ray regions. The possibility of engineering and tailoring coherent waveforms is paving the way to novel discoveries in a number of scientific disciplines at the interface between physics, chemistry and biology. Promising applications include the development and control of quantum materials and metamaterials, control of chiral matter, and high-precision spectroscopy on ultrafast time scales.

Theoretical and Experimental Techniques for Coherent Quantum Control With Strong Fields

Optik und Laser,    Quantenmechanik und Quanteninformation

Nanoporous materials and their applications is a dynamic field with an ever-changing landscape. This forum enables young researchers active in the synthesis, characterization, engineering, computational modeling, and application of nanoporous materials to build community and share knowledge. The informal setting helps to facilitate fruitful discussions and cultivate new collaborations that accelerate the development and fundamental understanding of porous materials that can be used to overcome many modern-day challenges.

Leveraging Order and Disorder in Nanoporous Materials

Expanding the Horizons of Porous Materials Design and Applications

Expanding the Horizons of Porous Materials Design and Applications

The conference will focus on the two paradigms, quantum control and quantum technology, which are highly interconnected and merging together very rapidly. The development of the general principles of quantum control is essential for future quantum technology. Quantum control deals primarily with the interaction of laser light with matter. The objective of the control is to modify the state of matter or the course of a chemical or physical process. These control tasks require “intelligent” light fields, which have to be highly controllable in frequency, phase, and intensity.

Diversity and Synergetic in Quantum Control and Quantum Technology

Optik und Laser,    Quantenmechanik und Quanteninformation

Max Planck Institute for the Physics of Complex Systems

Quantenmechanik und Quanteninformation,    Optik und Laser

University of Szczecin, Institute of Physics, Szczecin, Poland

We are pleased to inform you that the 25th International Conference on Condensed Matter Nuclear Science, ICCF-25, will be held in Szczecin, Poland, August 27 – 31, 2023. The progress in material science, nanotechnology, nuclear science and engineering, advances in thermoelectric materials, condensed matter science, lattice confinement and many other developments give us the opportunity to discuss the details on low-energy nuclear reactions. The conference is organized by the University of Szczecin.

ICCF-25 Secretariat;     Tel.: [+48 22 243 40 40];     Email: info@iccf25.com

The scientific programme
 include: - Heat Production
 - Transmutations
 - Electrochemical Experiments
 - Hot gas experiments
 - Plasma Experiments
 - Beam Experiments
 - Instrumentation
 - Material Studies
 - Theoretical and Computational Studies
 - Engineering Applications
 - Other

Kernphysik,    Fachübergreifende Veranstaltungen für Physiker

Institute for Advanced Study in Mathematics (IASM) in Hangzhou, China

Compressible flows are ubiquitous in nature with a broad spectrum of applications and they are important objects of the study in mathematical and physical sciences and engineering. Despite the old history and physical importance, mathematical understanding of the system of partial differential equations describing dynamics of inviscid compressible fluids such as the Euler equations remain challenging. In recent years, several deep and unexpected results were obtained by using a variety of elaborate techniques from distinct communities, which generated significant interests in the field and led to major advances in the mathematical study of inviscid compressible flows including non-uniqueness of weak solutions, the stability of very rough solutions, the formation of singularities, and the study of free boundary problems. The workshop brings together experts in compressible fluid dynamics from diverse communities, creates an inclusive atmosphere where the latest developments, ideas and techniques are vigorously discussed, and provides a unique opportunity to foster a new community with a large set of skills. Another important goal of the workshop is to introduce early career researchers to this active area of research and to provide a training and networking opportunity.

Sorbonne University and Chimie ParisTech-PSL

ICL is an international conference series held every three years with a program focused on all types of luminescent materials, the processes governing light emission and the applications of these systems.

Atomphysik,    Photochemie und Spektroskopie

UC Santa Barbara, Kavli Institute for Theoretical Physics (KITP)

Recent progress in magnetism has been made by steadily increasing our understanding of its quantum aspects, as well as by embracing the complexity of magnetic materials with entangled spin, orbital and lattice degrees of freedom. These efforts are revealing new horizons that remained hidden behind this complexity, such as the emergence of low-energy quantum gauge theories that control the collective phenomena of different classes of quantum magnets. Harnessing substantial progress over the last several years, this conference will bring participants together to address outstanding modern challenges of quantum magnetism. These will include the search for real materials with novel topologically-ordered states of matter, the computation and measurement of dynamical and transport properties that can reveal fingerprints of fractionalization and multipolar ordering and the roles of disorder and spin-phonon interaction. We will also include the emergent-electrodynamics induced by topological spin textures, the unusual dynamics of integrable systems, and the revolutionary twist on the quantum 2D magnetism provided by experiments on Moiré systems such as twisted bilayer graphene and transition metal dichalcogenide (TMD) bilayers.

Quantenmaterialien, Tieftemperaturphysik,    Magnetismus, Spintronik

Following the success of the previous editions, we are pleased to announce the 11h International Conference on Molecular Electronics (ElecMol) which will be held at Faculté de Chimie of the Université de Strasbourg from the 27th of August to the 1st of September 2023. The main purpose of the conference is an up-to-date scientific exchange on recent advances in the field of molecular electronics, gathering researchers from all over the world around top-level invited speakers. This reunion is also an opportunity for the development of national and international collaborations between academic and private partners at the highest level. 

T1 – Single Molecule Junctions, Memories & Switches T2 – Large Area Junctions, Memories & Switches T3 – Organic Electronics, Optoelectronics & Photonics: Materials & Devices T4 – 2D materials, Nanotubes & Nanowires T5 – Self-Assembly & Supramolecular Architectures T6 – Scanning Probe Microscopies & Near Field Approaches T7 – Molecular Theoretical Modelling T8 – Bioinspired Approaches & Biomimetic Devices

Angewandte Physik (allgemein),    Elektronik

We are pleased to invite you to participate in the 36th European Conference on Surface Science (ECOSS 36) which will be held 28 Aug - 1 Sep 2023 in Lodz, Poland, organized by the University of Lodz.

ECOSS is a well-established annual meeting directed jointly by the Surface Science Division of the International Union for Vacuum Science, Technique and Applications (IUVSTA) and the Surface and Interface Section of the European Physical Society (EPS). The conference provides an excellent opportunity for scientists from Europe and from all over the world to meet and discuss the latest advances in the physics and chemistry of surfaces. Furthermore, it is a forum to discuss the progress of surface science in related innovation fields such as heterogeneous catalysis, organic molecular nano-architectures, two-dimensional materials and graphene, nanoelectronics, bio-nanoscience and functional and energy materials studied both using theoretical and experimental methods.

FEMS EUROMAT is the premier international congress in the field of materials science and technology in Europe. This congress will continue a successful series and foster the knowledge transfer and exchange of experiences amongst delegates with academic and industrial backgrounds.

Metallurgie und Werkstoffkunde,    Chemikalien und Materialwissenschaft

European Physical Society (EPS) - The conference will be a joint event with FisMat, the biennial conference of the Italian community of condensed matter physics, optics, liquids and soft matter.

Juelich Centre for Neutron Science (JCNS)

Juelich Centre for Neutron Science (JCNS) is happy to announce that application is open for the 25th Laboratory Course Neutron Scattering taking place September 4 - 15, 2023 in Juelich and Garching/Munich, Germany. The course will consist of one week of lectures and exercises and one week of practical training at the neutron scattering facilities of Heinz Maier-Leibnitz Zentrum MLZ. It is the aim of the course to give a realistic insight into the experimental technique and its scientific power.

Students of physics, chemistry, materials science and biosciences are invited to apply for participation. There is no tuition fee. Accommodation and meals during the course will be provided by JCNS. Travel expenses will be reimbursed within reasonable limits.

Deadline for application is May 21, 2023.

Email: neutronlab@fz-juelich.de

neutron scattering, soft matter, material science, crystallography, neutron diffraction, small angle neutron scattering (SANS), magnetic scattering, structural analysis, neutron reflectometry, GISANS, magnetic nanostructures, inelastic neutron scattering, strongly correlated electrons

Angewandte Physik: Neutronenstreuung,    Kurse und Veranstaltungen für Physikstudenten

Isaac Newton Institute for Mathematical Sciences (INI)

Angewandte Mathematik (allgem.),    Thermodynamik, Hydrodynamik und Statistische Mechanik

SPIE - The International Society for Optics and Photonics

SPIE Laser Damage is the specialized meeting for laser damage materials and thin films used with high-power, high-energy lasers. Join the community to hear the latest advances in durability, properties modeling, testing, and component fabrication.

European Materials Research Society (E-MRS)

Festkörperchemie,    Metallurgie und Werkstoffkunde

In a classic paper 50 years ago, Kugel and Khomskii demonstrated that in strongly-correlated systems orbital ordering can arise from a purely electronic super-exchange mechanism and not just the conventional co-operative Jahn-Teller effect. This work opened the field of orbital physics — a field which, since then, is undergoing continuous growth. It was understood that, beside orbital ordering, super-exchange can give rise to the orbital analogue of spin-liquid states. It was shown that the directional character of the orbitals can introduce anisotropic super-exchange interactions, which, in a simplified setting, are described by compass models, a prototype for the Kitaev model. This opened new avenues of its own. More surprising phenomena arise from the entanglement of spin and orbital degrees of freedom. New developments aim at dynamically tuning orbital occupations by pushing the system out of equilibrium, and at orbital-controlled electronics.

The goal of this year’s school is to provide students with an overview of the state-of-the art in the field of orbital physics in strongly correlated systems and the techniques used to investigate them. After introducing fundamental models and effects, lectures will focus on these effects in real materials, with introductions to crystallography and symmetries, methods for building minimal tight-binding Hamiltonians, the Jahn-Teller effect, and Coulomb-enhancements of the Jahn-Teller effect. Advanced lectures will address orbital ordering, orbital liquids and Kitaev materials, as well as theoretical approaches, from self-interaction corrected density functionals to dynamical mean-field theory and beyond. Experimental lectures will present probes of spin, orbital, and charge degrees of freedom, techniques to image orbitals and orbital ordering, as well as orbitally-controlled transport phenomena.

Email: correl23@fz-juelich.de

Orbital physics, orbital ordering, multi-orbital Hubbard model, strong-correlations, DMFT, Jahn-Teller, group theory, Kitaev materials, Mott transition, quantum Montecarlo, spin and orbital liquid, theory and experiments

Quantenmaterialien, Tieftemperaturphysik,    Computerphysik und Numerische Simulation

Royal Society of Chemistry

There are major water-related challenges that require enhanced molecular-level understanding and description of water at interfaces, to relate that understanding to macroscopic phenomena in aqueous systems, and then ultimately utilize or control those phenomena. Interfacial water is crucial for disciplines as diverse as atmospheric science, geochemistry, energy science, water purification/desalination, and biology. This Faraday Discussion aims to combine different approaches, both experimental and theoretical, to further our understanding of the fundamental properties of water at interfaces. Such insights are expected to have important implications for chemistry, biology and potentially medicine; key sustainable technologies such as filtration, desalination, and photocatalytic water splitting; as well as modelling of processes in atmospheric chemistry and physics.

Dynamics and Nano-Rheology of Interfacial Water; Electrified / Charged Aqueous Interfaces; Ice Interfaces; Soft Matter-Water Interface

Festkörperchemie,    Mechanik, Rheologie und Tribologie

The Materials Science & Technology (MS&T) technical meeting and exhibition series is a long-standing, recognized forum for fostering technical innovation at the intersection of materials science, engineering, and application. Organized by three leading materials-related societies, MS&T is where materials innovation happens.

Metallurgie und Werkstoffkunde,    Chemikalien und Materialwissenschaft

Technische Universität Braunschweig

The goal of the Symposium “Particle-Based Materials 2023” is to bring together scientists and engineers from different communities that all share the goal of creating functionality in materials using particles. The synthesis, processing and materials integration of particles into thin films, bulk matrices, fibers or other geometries are covered by this symposium.

A strong focus will be on the development of scalable processes, novel modelling or characterization techniques as well as material properties that can be achieved using particles and that would be hard to obtain using other approaches. Anisotropic, complex particles and supra-particles that bring new or multiple functionalities to materials are of particular interest.

Synthesis (bottom up or top down), characterization (including new multidimensional techniques) and processing (purification, formulation etc.) of particles to be used in advanced materials ; Special types of particles (highly defined particles, anisotropic particles, supra-particles, multifunctional particles etc.) ; Assembly, arrangement, alignment and patterning of particles in films and bulk materials, multiscale simulations of particle growth, assembly and properties; Applications of particle-based materials with targeted functionality (magnetic, optical, electronic, structural, chemical, biological, pharmaceutical properties etc.)

Chemikalien und Materialwissenschaft,    Metallurgie und Werkstoffkunde

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

The Banff International Research Station will host a diverse, international group of mathematicians in 2023 to study geometric approaches to fluids and optimal transport. The ideas of geodesic settings for fluids have been circulating since the late 1960s, but received a strong surge lately, in the last 5-10 years, with the development of new techniques in infinite-dimensional geometry and group theory. The original idea is that the particles in an ideal liquid or gas move in a curved infinite-dimensional space, in the same way as an airplane flying around the earth: along the shortest path. Properties of the fluid, such as how well it can be predicted in the future, how well it mixes together, and how extreme the speed can be, can all be related to how curved this infinite-dimensional space is, which helps us understand features of the weather and climate geometrically. More recently similar ideas have been used to understand solids as well, for example when a pile of rocks are transported from one place to another at the optimal cost.

Geometrie und Topologie,    Thermodynamik, Hydrodynamik und Statistische Mechanik

The TAN 23 is organized by Institute of Modern Physics (IMP), Chinese Academy Sciences and Advanced Energy Science and Technology Guangdong Laboratory

The TAN 23 is the seventh in the series of international conferences dedicated to recent achievements and developments in experiments and theory of the chemistry and physics of transactinide elements.

The conference will take place in Huizhou, a beautiful city of Guangdong province of southeast China. At the present, Institute of Modern Physics is constructing two large-scale scientific facilities in Huizhou, High Intensity Heavy-ion Accelerator Facility (HIAF) and China initiative Accelerator Driven System (CiADS). The new facilities will enable scientists to continue to push the frontiers of science and technology, for the benefit of all. The scientific program of this conference will cover experimental and theoretical aspects of synthesis of the superheavy elements, nuclear reactions, nuclear structure, chemistry, atomic properties, and related topics.

Kernphysik,    Radiochemie und Nuklearchemie

Mathematisches Forschungsinstitut Oberwolfach (MFO, Oberwolfach Research Institute for Mathematics)

The European High Pressure Research Group (EHPRG)

The Minerals, Metals & Materials Society (TMS)

The 15th International Symposium on Superalloys (Superalloys 2024) aims to highlight technologies for lifecycle improvement of superalloys. In addition to the traditional focus areas of alloy development, processing, mechanical behavior, coatings, and environmental effects, the Superalloys symposium invites papers from academia, supply chain, and product-user members of the superalloy community that highlight technologies that contribute to improving manufacturability, affordability, life prediction, and performance of superalloys.

Metallurgie und Werkstoffkunde,    Chemikalien und Materialwissenschaft

The European High Pressure Research Group (EHPRG)