Multiscale analysis

This webinar will showcase simulation techniques to predict the quality of your RTM molded product without excessive reliance on actual tests.

Save the date: 28 November 2023 at 3 PM JST ⇒ Register from here

Webinar Abstract

Sharing for the benefit of those who are interested: A new technical paper co-authored by researchers at the JAXA: Japan Aerospace Exploration Agency, The University of Tokyo and CYBERNET SYSTEMS CO.,LTD., was published in the Aerospace - a free-access journal by MDPI. The authors reckon that the study will provide a guideline for effective designs of high-performance lattice structures with architected materials.

Multiscale.Sim 2022R2 version is now available globally.

Multiscale.Sim is an add-in tool for the Ansys Workbench environment (it's also compatible with Ansys Mechanical APDL). It can help to predict materials behavior using virtual material testing without having to rely on costly and time-consuming physical testing all the time. The software includes a templates library to easily create microstructure of materials. It's available in English and Japanese UI.

In this webinar, we will introduce the latest analysis technologies with specific analysis examples to predict materials behavior using analytical prediction of microstructure combined with virtual material testing.

Save the date: 22 February 2023 at 10 AM CET ⇒ Register from here

Webinar Abstract

Many types of composites are used in Printed Circuit Boards (PCB). Virtual Material Testing can help to find optimal materials properties to match various design requirements resulting in a faster design process and increased product life.

Save the date: 30 November 2022 at 11 AM CET ⇒ Register from here

Webinar Abstract

Spider silk is a protein material that exhibits extraordinary and nontrivial properties such as the ability to soften and decrease its length by up to ∼60% upon exposure to high humidity. This counter-intuitive process is commonly called supercontraction and is the result of a transition from a highly oriented glassy phase to a disoriented rubbery phase. In our new paper (published in biomacromolecules) we derive a model that explains the origins of the supercontraction phenomena.

This work introduces a new microscopically-motivated model for the electromechanical response of elastomers:

http://ac.els-cdn.com/S0022509615303525/1-s2.0-S0022509615303525-main.pdf?_tid=1db1e302-202a-11e6-8a60-00000aacb361&acdnat=1463927774_d9ad1fa74b5b42fafcb28a8b6b2c9b60

The merit of this novel model is demonstrated in the following paper

As part of the 13th US National Congress on Computational Mechanics to be held in San Diego, CA, on July 26-30 2015, it is our pleasure to invite you to submit an abstract to the Symposium “Advances in Computational Methods for Heterogeneous Materials”.

The above minisymposium is organised
at the 11th World Congress on Computational Mechanics in Barcelona
(Spain), July 20 - 25, 2014 (http://www.wccm-eccm-ecfd2014.org/frontal/default.asp). 

We cordially invite you to participate in the minisymposium "Materials for Extreme Environments: Multi-Scale Experiments and Simulations" at the 50th Society of Engineering Science Annual Technical Meeting (http://www.brown.edu/Conference/ses2013/). The Meeting will be held at Brown niversity, RI, USA during July 28-31, 2013.

We are seeking applicants for a Postdoctoral Fellowship in “stochastic multiscale analysis and design” in the Department of Mechanical Engineering, Northwestern University, Evanston, IL, USA. Applicants are expected to have expertise in the following areas: solid mechanics, uncertainty quantification, finite element modeling, and engineering optimization. The candidate is expected to have a strong background in statistical analysis. Prior experience with material microstructure characterization via image processing, and model uncertainty quantification is preferred.