Physical Review ResearchDevelopmental BiologyPeer-reviewed journal article
Rheology of growing axons
Hadrien OliveriiD, Rijk de RooijiD, Ellen Kuhl AiD, Alain GorielyiD
Abstract
The growth of axons is a key process in neural system development, which relies upon a subtle balance between external mechanical forces and remodeling of cellular constituents. A key problem in the biophysics of axons is therefore to understand the overall response of the axon under stretch, which is often modeled phenomenologically using morphoelastic or viscoelastic models. Here, we develop a microscopic mixture model of growth and remodeling based on protein turnover and damage to obtain the macroscopic rheology of axonal shafts. First, we provide an estimate for the instantaneous elastic response of axons. Second, we demonstrate that under moderate traction velocities, axons behave like a viscoelastic Maxwell material. Third, for larger velocities, we show that failure takes place due to extensive damage.
- Citations
- 5
- FWCI
- 0.54
- Field percentile
- top 44%
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