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Published on: September 11, 2018
Multiscale Materials Modeling in an Industrial Environment
Horst Weiß1, Peter Deglmann1, Pieter J In 't Veld1
1BASF SE - Materials and Systems Research, Materials Modeling Group, 67056 Ludwigshafen, Germany; email: horst.weiss@basf.com , peter.deglmann@basf.com , pieter.intveld@basf.com , murat.cetinkaya@basf.com , eduard.schreiner@basf.com.
Predictive and fast materials modeling is crucial for the chemical industry. Stable, automated workflows for complex systems, especially soft matter, significantly improve new material development efficiency.
Area of Science:
- Materials Science
- Computational Chemistry
- Chemical Engineering
Background:
- The chemical industry relies on efficient research and development (R&D) for new materials.
- Predictive and rapid modeling are essential for competitive R&D.
- Handling complex systems requires robust and automated computational workflows.
Purpose of the Study:
- To review the industrial materials modeling process.
- To highlight the importance of predictive and fast modeling.
- To discuss approaches for building and parameterizing soft matter systems.
Main Methods:
- Review of existing materials modeling techniques in industry.
- Focus on approaches for soft matter system construction and parameterization.
- Integration of computational modeling with experimental validation.
Main Results:
- Predictive and fast modeling is a prerequisite for R&D success in the chemical industry.
- Stable, highly automated workflows are necessary for complex systems.
- Improved efficiency in new material development, particularly in polymer formulation, is achievable.
Conclusions:
- Intelligent combination of existing modeling techniques enhances product development.
- Materials modeling, when integrated with experimental work, offers significant value.
- Alignment with initiatives like the Materials Genome Initiative is beneficial.
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