Advances in Computational Mechanics of Structures and Fracture

The field of computational mechanics is witnessing significant developments in the analysis of structures and fracture. Researchers are exploring new techniques to improve the accuracy and efficiency of simulations, particularly in the context of dynamic analyses and complex fracture patterns. One notable trend is the use of advanced discretization methods, such as immersogeometric analysis and peridynamic modeling, to capture the behavior of slender structures and thermal fractures. Another area of focus is the development of more accurate and efficient algorithms for tracking crack propagation and modeling soil-structure interaction. Noteworthy papers include:

  • A new definition of peridynamic damage for thermo-mechanical fracture modeling, which enables more realistic simulations of thermal fractures.
  • A revisit of two-dimensional Crack Element Model on crack branching, which introduces a multiple crack-tips tracking algorithm for modeling advanced crack patterns.
  • A workflow for high-fidelity dynamic analysis of structures with pile foundations, which provides a step-by-step guideline for creating accurate simulations.

Sources

Stabilization techniques for immersogeometric analysis of plate and shell problems in explicit dynamics

Quasi-optimal error estimates for the approximation of stable stationary states of the elastic energy of inextensible curves

A new definition of peridynamic damage for thermo-mechanical fracture modeling

Revisit of Two-dimensional CEM on Crack Branching: from Single Crack-tip Tracking to Multiple Crack-tips Tracking

Phase-field and lip-field approaches for fracture with extreme mesh deformation (X-Mesh): a one-dimensional study

Workflow for High-Fidelity Dynamic Analysis of Structures with Pile Foundation

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