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The cyber infrastructure initiative for rheology

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Abstract

A new cyber infrastructure for rheology (CIR) has the potential of integrating the diverse rheological knowledge of experts around the world. In a multi-disciplinary effort, experts in specialized topics of rheology began to write CIR-modules that seamlessly merge into a general code so that it can be used by a wide range of engineers and scientists. At the center of CIR is a platform operating system that connects a wide range of dedicated software modules. These CIR-modules perform calculations and return the corresponding results to a central graphics screen. The computer platform allows the detailed analysis of experimental data, the communication of data, and the prediction of rheological material functions from a wide range of theories in rheology. Rheologists can access each other’s experimental results, make predictions with each other’s theories and simulate with each other’s computer codes. Through such collaboration, seemingly disparate theories and experimental observations can be linked and taken to their limits, thereby leading to unexpected insights and new questions. Beyond the pool of experts, CIR will draw industrial users into the rheology discussion. Easy-to-use CIR-tools will allow industrial rheologists to adjust rapidly to the changing needs and the pressure to obtain short-term solutions in a competitive environment. CIR has the potential of generating ideas for novel materials and novel manufacturing methods. At the same time, it will supply the tools to examine ideas quantitatively and to push these ideas even further. User-friendly methods are essential not only for research and application, but also for the teaching of rheology. We envision tools that allow a student to move seamlessly and rapidly between experimental data and the most advanced rheological theories, simulations, and modeling of applications. In-depth data analysis and evaluation of theory should become easy enough to be performed after reasonable training and without relying on over-simplifications. This will enable the student to reach a deeper understanding of rheology and to appreciate the significance that rheology has in technical applications. Even untrained talent may get introduced quickly into advanced concepts of rheology.

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Acknowledgements

The rheology platform was developed with the help of licensing fees from its users. The development greatly benefited from suggestions of many rheologists (worldwide). Theory modules were written by Richard J. Blackwell (Tube Dilation Theory), Manfred H. Wagner (Molecular Stress Function Theory), and Rosella Nobile and Franco Cocchini (molecular weight determination). HHW is especially grateful for the 2004 Conti Faculty Fellowship that UMass Amherst awarded to him for establishing an interactive rheology course that utilizes the CIR tools in the classroom. The anonymous review was conducted by M.H. Wagner as member of the Rheologica Acta Editorial Board.

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Correspondence to H. Henning Winter.

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Winter, H.H., Mours, M. The cyber infrastructure initiative for rheology. Rheol Acta 45, 331–338 (2006). https://doi.org/10.1007/s00397-005-0041-7

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  • DOI: https://doi.org/10.1007/s00397-005-0041-7

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