Innovative Mechanism-Based Textile Composite Damage Modeling Basing on a Nonlinear Fiber Model and Enhanced Homogenization Method

Abstract

The ultimate goal of proposed research is to develop a new advanced simulation and designing tool of textiles and textile-based composites for developing lighter, more durable and affordable composite structures in military and commercial applications. In the current program, we have developed and integrated the following two new capabilities to our simulation and design system: 1. Extended nonlinear fiber model for simulating general textile fabrics and textile composite materials. 2. A high fidelity meso-structural model for textile composites. We have extended our nonlinear fiber model to general three-dimensional fabric system with arbitrary configuration and with interactions with other fibers and materials in the composite for simulating a practical textile composite. The new model accounts for geometry nonlinearity and arbitrary large deformation of fibers, fiber-to-fiber contacts, and fiber-to-other material contacts in a textile composite. This results in a unique capability for simulating textile composites, especially for more accurate damage assessment. The new capability will be further extended and integrated with the other advanced capabilities being developed for designing truly optimum textile composites for military and commercial applications.

Open PDF

Document Details

Document Type
Technical Report
Publication Date
Aug 31, 2006
Accession Number
ADA459497

Entities

People

  • Zheng-dong Ma

Organizations

  • University of Michigan

Tags

Communities of Interest

  • Air Platforms
  • Ground and Sea Platforms

DTIC Thesaurus Topics

  • Blast
  • Composite Materials
  • Fiber Reinforced Composites
  • Laminates
  • Materials
  • Materials Laboratories
  • Materials Processing
  • Materials Science
  • Materials Testing
  • Mechanical Working
  • Mechanics
  • Protective Clothing
  • Simulations
  • Tensile Modulus
  • Tensile Strength
  • Three Dimensional
  • Two Dimensional

Readers

  • Computational Fluid Dynamics (CFD)
  • Reinforced Composite Materials