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Computational Modeling of Multiphysics Degrading Systems (CMMDS)

 

Organized by

 

John Michopoulos

 

Description:

THEME:
This session intents to operate within the area of degrading systems as a multiphysics generalization of fracture and damage. The associated  coupled multi-field, multi-domain, multi-scale  and multi-functional  models of degrading systems represent complex encapsulations of  mathematical, algorithmic and numerical representations that today more  than ever, require heavy exploitation of computational technologies not
only for their automated exercise for simulation purposes but also for  their automated generation. Every aspect of technology development in  this context is considered as an area of interest for this symposium. The  rampant evolution of computational technologies along with the  increasing demand for realistic data-driven whole system behavioral  prediction as is motivated by design, certification and qualification  needs, further expand the scope of this symposium. Therefore, matching  complex modeling representations with the appropriate technology for  their end-user utilization is an overarching frame of this symposium.


MAIN TOPICS:

-- Data-Driven inverse characterization of continuum degrading systems
-- Modeling of degrading continua under multiphysics  conditions via computationally produced and exercised methods.
-- Real-time computational methodologies for physics aware and physics  unaware models of degrading systems via various methods including Finite  Element/Volume, Boundary Element, Finite Differences, as well as Neural  Networks, Support Vector Machines etc.
-- Qualification, Validation and Verification of computational  technologies for modeling and simulation of degrading continua behavior.
-- Symbolic algebra-based modeling of degrading systems behavior.
-- Modeling and simulation driven Problem Solving Environments (PSEs)  for degrading systems over computational grids, agents and Internet  technologies.
-- Multi-scale characterization, modelling and simulation of natural and  artificial composites.

 

 

Session Organizer: John Michopoulos

Naval Research Laboratory, Center of Computational Material Science

Special Projects Group, Code 6390.2, Computational Multiphysics Systems Lab.

4555 Overlook Ave. SW, Washington DC 20375

Phone: +1-202.767.2189   FAX: +1-202.767.9181   

E-mail: john.michopoulos@nrl.navy.mil

 

Session Chair: Tomonari Furukawa

School of Mechanical and Manufacturing Engineering

The University of New South Wales

UNSW SYDNEY, NSW  2052, AUSTRALIA

Phone: (+61 2) 9385 6091, FAX: (+61 2) 9663 1222

E-mail: t.furukawa@unsw.edu.au

 

Session Co-chair: Valeria Krzhizhanovskaya

Section Computational Science, University of Amsterdam,

The Netherlands                      

E-mail: valeria at science.uva.nl

 

Papers

 

1. Flaw Geometry, Load Sequence and Type, and Material Axis Orientation on Fracture of Piezoelectric Materials

Corresponding Author: V. G. DeGiorgi                 

E-mail: degiorgi@anvil.nrl.navy.mil

Co-authors: S. A. Wimmer

 

2. Inverse characterization of damage in wood-plastic composites.

John Hermanson

Corresponding author address: Forest Products Laboratory                       

E-mail: jhermans@wisc.edu

 

3. Title: TBA

Valeria Krzhizhanovskaya                       

E-mail: valeria at science.uva.nl

 

4. Title: TBA

Tomonari Furukawa

School of Mechanical and Manufacturing Engineering

The University of New South Wales

UNSW SYDNEY, NSW  2052, AUSTRALIA

Phone: (+61 2) 9385 6091, FAX: (+61 2) 9663 1222

E-mail: t.furukawa@unsw.edu.au

 

5. Ontology of Degrading Multiphysics Systems

John Michopoulos

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