2001
DOI: 10.1016/s0378-4371(00)00580-x
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The stress transmission universality classes of periodic granular arrays

Abstract: The transmission of stress is analysed for static periodic arrays of rigid grains, with perfect and zero friction. For minimal coordination number (which is sensitive to friction, sphericity and dimensionality), the stress distribution is soluble without reference to the corresponding displacement fields. In non-degenerate cases, the constitutive equations are found to be simple linear in the stress components. The corresponding coefficients depend crucially upon geometrical disorder of the grain contacts.

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Cited by 16 publications
(4 citation statements)
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“…We consider here only the elastic part of the pressure since it dominates over the kinetic and dissipative parts at the low strain rates we consider. The elastic part of the stress tensor is given by [36],…”
Section: Modelmentioning
confidence: 99%
“…We consider here only the elastic part of the pressure since it dominates over the kinetic and dissipative parts at the low strain rates we consider. The elastic part of the stress tensor is given by [36],…”
Section: Modelmentioning
confidence: 99%
“…Particles are considered to be perfectly hard, perfectly rough and each particle α has a coordination number z α = d+1 [7]. Theory which confirms this observation has been proposed for periodic arrays of particles with perfect and zero friction [8]. What is the statistical distribution of contact forces in a packing of particles?…”
Section: The Statically Determinate Problemmentioning
confidence: 91%
“… 20 Generically, z c = d ( d + 1) and d + 1 for d -dimensional systems of frictionless and frictional non-spherical elements, respectively. 21 Analysis of stress transmission in these materials explains the ubiquity of non-uniform stress states exhibited by particulate media. 22 25 A first-principles continuum stress theory for two-dimensional isostatic granular media has been developed, based on a parameterisation of the inter-element forces into ‘loop forces’, where loops are the elementary voids, or cells, enclosed by individual elements.…”
Section: Introductionmentioning
confidence: 99%