Study transient deformation in compliant, heterogeneous materials where damping and history shape the response.
Biological and tissue-like materials are soft, heterogeneous, and strongly time dependent. Impact and wave-driven response can spread, attenuate, and localize in ways that a simple memoryless material law does not describe. In many cases, the typical exponential relaxation of Prony series is also inaccurate.
Phractals provides a path to encode material memory directly in a finite-element formulation, supporting experimentally grounded studies of damping, dispersive propagation, and transient deformation. It also offers a new generation of hybrid (integer-fractional) models that are particularly accurate for biomaterials.
The showcased brain-impact simulation tracks displacement magnitude across multiple views and its decay over time.
The time history and direction of the applied loading used to obtain the brain response shown above.
Two synchronized views show the displacement field propagating through the model. The time-history of the displacement at a prescribed point and the error plot are also provided.
Study how deformation propagates and attenuates through soft, heterogeneous media.
Connect measured time-dependent behavior to a compact simulation model.
Support biomedical research and material-design comparisons without overstating the demonstration.
Retain thermal-memory effects and microscale behavior without resolving every feature in the production model.
Explore the case
Capture broadband, history-dependent material response with a compact fractional-hybrid model.
Explore the case
Couple temperature and deformation in a two-way workflow without building a custom coupling chain.
Explore the caseWe will identify whether this Phractals workflow fits your engineering decision.
