A free-energy lattice Boltzmann scheme for N immiscible components that enforces reduction consistency via mobility-independent flux correction and achieves machine-precision global momentum conservation through a new surface-tension discretization.
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An exponential scaling law based on Power, Froude, and Richardson numbers unifies mixing time data from simulations varying Reynolds and Richardson numbers in stirred tanks.
Presents a lattice Boltzmann solver for volume-averaged non-Newtonian Navier-Stokes equations in coiled aneurysm geometries represented as porous media, with comparison to fully-resolved simulations indicating model validity.
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N-Component Free Energy Lattice Boltzmann Method with Reduction Consistency and Global Momentum Conservation
A free-energy lattice Boltzmann scheme for N immiscible components that enforces reduction consistency via mobility-independent flux correction and achieves machine-precision global momentum conservation through a new surface-tension discretization.
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Mixing of miscible liquids: Dimensionless scaling for intermediate-to-large density differences in a stirred tank
An exponential scaling law based on Power, Froude, and Richardson numbers unifies mixing time data from simulations varying Reynolds and Richardson numbers in stirred tanks.
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A Lattice Boltzmann Method for Non-Newtonian Blood Flow in Coiled Intracranial Aneurysms
Presents a lattice Boltzmann solver for volume-averaged non-Newtonian Navier-Stokes equations in coiled aneurysm geometries represented as porous media, with comparison to fully-resolved simulations indicating model validity.