Image by Scott Webb


We are an Interdisciplinary Research Group, working at the Institute of Scientific Computing and the Dresden Center of Computational Materials Science of TU-Dresden. We develop mesoscale models to study material properties comprehensively, predict/explain experimental behaviors, and investigate the complexities of crystalline materials. This research is carried out with the aid of numerical simulations and state-of-the-art computational techniques.

The research activities illustrated here started a few years ago carried out by the PI and co-workers. They merged into the 3MS group in early 2021 with funding from the DFG Emmy Noether Programme.

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Oct. 30th, 2022

Preprint on controlling Magnetic properties in the APFC model

The manuscript reporting on a magnetic APFC model reproducing magnetic anisotropy an mangetostriction, while tuning their relative importance is now available in arXiv. It includes proof of concepts for real material applications, e.g. for Iron!

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Oct. 9th, 2022

Preprint (proceeding) on improved numerics for PFC model


Oct. 3rd-4th, 2022

Workshop on disordered correlated media

A workshop organized by the consortium of the EU-project NARCISO on Disordered correlated media and application takes place in Florence (IT), with a contribution on the modeling and application of controlled solid-state dewetting by M. Salvalaglio

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Sept. 27th-29th, 2022

Two talks @ MSE 2022

M. Salvalaglio contributes to the MSE Congress (Darmstadt, DE) with two talks entitled "Scale-bridging modeling of elastic and plastic deformation using the APFC model" and "Continuum modeling of disconnection-mediated migration of interfaces in microstructures"


Sept. 5th-16th, 2022

Attendance to the Phase-Field summer school 2022

Part of the group will attend the summer school "Phase-field models for the evolution of complex structures" in Peyresq (FR) to keep on with developments and strengthen the basis of phase-field and phase-field crystal modeling!



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A Mesoscale framework for the modeling of defects and interfaces in crystals

DFG Project (Emmy Noether Programme) - 2021-2026. Group Role: PI, Postdoc, PhD Students

This project addresses the mesoscale modeling of crystalline systems. It builds on the phase-field crystal (PFC) model and its amplitude expansion (APFC), which provide convenient coarse-grained descriptions of crystalline structures. It aims at i) delivering novel theoretical tools that bridge micro- and macroscopic features while studying crystals accounting for real material properties, ii) overcoming limitations of current state-of-the-art theoretical approaches in this field through new and hybrid approaches, iii) enabling applications to technology-relevant crystalline systems and related open problems in materials science.

NAtuRal instability of semiConductors thIn SOlid films for sensing and photonic applications - NARCISO

EU FET-Open Project - 2019-2022. Group Role: Research partner as IWR

NARCISO "NAtuRal instability of semiConductors thIn SOlid films for sensing and photonic applications"is an interdisciplinary project merging physics, chemistry, material science, fluid dynamics, and photonics with a high potential for applications and industrial scale-up of the relevant results. We propose to exploit the natural instability of thin solid films (solid state dewetting of silicon and germanium, SSD) to form complex patterns and nano-architectures (e.g. monocrystalline atomically-smooth structures, disordered hyperuniform metamaterials) that cannot be implemented with conventional methods.

Micro-crystals Single Photon InfraREd detectors – µSPIRE

EU FET-Open Project - 2017-2021. Group Role: Research partner as IWR

µSPIRE aims at establishing a technological platform for homo- and hetero- structure based photonic and electronic devices using the self-assembling of epitaxial crystals on patterned Si substrates. Emerging micro-electronic and photonic devices strongly require the integration on Si of a variety of semiconducting materials such as Ge, GaAs, GaN and SiC, in order to add novel functionalities to the Si platform. µSPIRE pursues this goal employing a novel deposition approach, which we termed vertical hetero-epitaxy (VHE), optimizied with the aid of simulations. VHE exploits the patterning of conventional Si substrates, in combination with epitaxial deposition, to attain the self-assembly of arrays of Ge and GaAs epitaxial micro-crystals elongated in the vertical direction, featuring structural and electronic properties unparalleled by “conventional” epitaxial growth.


Ken R. Elder - Oakland Univeristy, USA  ■  David J. Srolovitz  - The University of Hong Kong ■  Jian Han - City University of Hong Kong  ■  Marco Abbarchi, Isabelle Berbezier - IM2NP, Aix-Marseille Universite', France ■  Steven M. Wise - The University of Tennessee, USA  ■  Francesco Montalenti, Roberto Bergamaschini - University of Milano-Bicocca, Italy  ■  Giovanni Isella, Monica Bollani - LNESS, Politecnico di Milano, Italy ■  Luiza Angheluta - University of Oslo, Norway  ■  Jorge Vinals - University of Minnesota, USA  ■  Zhi-Feng Huang - Wayne State University, USA  ■  

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Library Shelves




Dr. Marco Salvalaglio,

Group Leader

Visitor Address, IWR

Barmerbau, B 237,

Zellescher Weg 25, 01217 Dresden, Germany

Visitor Address, DCMS

Hallwachsstraße 3,

01069 Dresden, Germany

Postal Address:

Technische Universität Dresden

Institut für Wissenschaftliches Rechnen

Helmholtzstr. 10

01069 Dresden

Tel.: +49 351 463-35657

Fax: +49 351 463-37096

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