A Multiscale Model of Partial Melts 1: Effective Equations
arXiv:0903.0162 · doi:10.1029/2009JB006375
Abstract
In this paper a model for partial melts is constructed using two-scale homogenization theory. While this technique is well known to the mathematics and materials communities, it is relatively novel to problems in the solid Earth. This approach begins with a grain scale model of the medium, coarsening it into a macroscopic one. The emergent model is in good agreement with previous work, including D. McKenzie's, and serves as verification. This methodology also yields a series of Stokes problems whose solutions provide constitutive relations for permeability and viscosity. A numerical investigation of these relations appears in a companion paper.
55 pages. Submitted to JGR Solid Earth
References in corpus (1)
Cited by in corpus (13)
- Dispersive shock waves and modulation theory
- The role of volatiles in reactive melt transport in the asthenosphere
- A continuum model of multi-phase reactive transport in igneous systems
- Dispersive Shock Waves in Viscously Deformable Media
- Magmatic focusing to mid-ocean ridges: the role of grain size variability and non-Newtonian viscosity
- Dispersive Hydrodynamics in Viscous Fluid Conduits
- A new formulation for coupled magma/mantle dynamics
- A Multiscale Model of Partial Melts 2: Numerical Results
- Modulations of viscous fluid conduit periodic waves
- Melt-preferred orientation, anisotropic permeability, and melt-band formation in a deforming, partially molten aggregate
- Analysis of block-preconditioners for models of coupled magma/mantle dynamics
- Consequences of viscous anisotropy in a deforming, two-phase aggregate. Why is porosity-band angle lowered by viscous anisotropy?
- Existence theory for magma equations in dimension two and higher