Magnetic particles are separated due to magnetic wire forces to a wire matrix within the centrifuge.
An overhead light fixture by Ango Design clusters some 12,000 silkworm cocoons on a wire matrix; the silk filaments diffuse the light beautifully.
However, designing an RDWM is challenging because DAMs require a large wire matrix to relate the resultant forces and wire tensions, which is used in the vector closure condition.
Following what was already measured by Moreau-Gaudry and colleagues with a simplified pressure mapping system and a wire TDU matrix [11], the postural change provided by the subject after TDU activation was first assessed.
It is known from the literature that magnetic particles with a diameter ≥ 0.5-1 μm can be easily separated by simple magnetic separators (e.g. a glass bottle without wire matrix and a permanent magnet as used in this work), while separation of smaller particles is much more efficient when high gradient magnetic separators are used (with internal wire matrix) [ 6, 43].
A test bench is designed and manufactured for testing different regenerators under oscillating flow conditions, while three-dimensional (3-D) numerical simulations are performed to numerically characterize the pressure drop phenomena through a wound woven wire matrix regenerator under different porosity and flow boundary conditions.
Second, a method for deriving the wire matrix of an RDWM based on DAMs in normal expression is presented.
Third, a new method for judging candidate RDWMs is introduced, including a new form of wire matrix.
Therefore, we introduce an easier and simpler approach for judging RDWM candidates, which includes two procedures: conversion of the wire matrix to a new form, and judgment of candidates using the essential component of the new form of wire matrix related to the global motion.
It is about a quarter of the size of the wire matrix ({varvec{{W}}}_2).
This component has the size equal to only a quarter of the size of the wire matrix; hence, it makes finding and checking candidate RDWMs to be easier and simpler.
