In deforming solids, thermal and mechanical fields influence one another. When the coupling is implemented via separate or one-way workflows, important feedback can be missed and model setup becomes difficult to maintain.
Coupled thermo-mechanics
Couple temperature and deformation in a two-way workflow without building a custom coupling chain.

The challenge and the Phractals approach.
Phractals treats thermoelastic response as a unified, two-way problem. Temperature can drive deformation while mechanical loading can alter the thermal field, and the same setup can incorporate fractional material and transport models.
Two complementary animations showing the transient response of a sample conical shell under two-way coupling: a mechanical load producing a thermal response (left), and a thermal load producing a mechanical response (right).
Mechanical to thermal coupling
A concentrated mechanical load produces simultaneous deformation and temperature fluctuations in a two-way coupled (mechanical-to-thermal) model.
Thermal to mechanical coupling
A concentrated thermal load produces a thermal wave which in turns drives mechanical response.
Why this application matters.
See thermal and mechanical feedback within one simulation setup.
Reduce the need for custom field-transfer and coupling workflows.
Combine thermoelastic coupling with history-aware material and transport behavior.

Reduced-order thermal conduction
Retain thermal-memory effects and microscale behavior without resolving every feature in the production model.
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Solid rocket motor response
Capture broadband, history-dependent material response with a compact fractional-hybrid model.
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Biomaterial dynamics
Study transient deformation in compliant, heterogeneous materials where damping and history shape the response.
Explore the caseBring us your data and modeling challenges.
We will identify whether this Phractals workflow fits your engineering decision.