Material Inhomogeneities in Elasticity
By G. Maugin. 2020
783 citations recorded by the source corpus.
Subfields: Biomedical Engineering, Civil and Structural Engineering, Mechanics of Materials
View Paper: https://www.semanticscholar.org/paper/94794a2e1111820ec20dd78305157878e64e5672
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Biomedical Engineering
- Andreas Menzel
- Francesco dell'Isola
- Paul Steinmann
- Ralf Denzer
- Ralf Müller
- Jüri Engelbrecht
- M. Braun
- F. Pastrone
In Civil and Structural Engineering
- Paul Steinmann
- Ralf Müller
- Andreas Menzel
- Ralf Denzer
- Jüri Engelbrecht
- M. Braun
- F. Pastrone
- Arkadi Berezovski
In Mechanics of Materials
- Francesco dell'Isola
- Paul Steinmann
- Pierre Seppecher
- Ellen Kuhl
- Andreas Menzel
- J. Alibert
- Ralf Müller
- David L. McDowell
Citations in the corpus
- On configurational forces in the context of the finite element method (2002, background): “results in a con%gurational force balance in the well-known local form (see also References [4; 5; 8]) Ckj; j + g k =0 (9) The con%gurational body forces g in this relation are given by g k =−Ckj; j =−fiui; k + ijui; jk − ; k (10) Note, that the con%gurational force system satis%es an equilibrium co”
- Modeling Dislocations and Disclinations With Finite Micropolar Elastoplasticity (2006, background): “The texts of Nabarro (1967), Lardner (1974), Mura (1982), Maugin (1993), and Zubov (1997) also include precise mathematical descriptions and/or elastic solutions.”
- On deformational and configurational mechanics of micromorphic hyperelasticity – Theory and computation (2007, background): “configurational mechanics in general and the material force method in particular, see for instance the contributions of Maugin and coworkers [5,19,20,23,21], Gurtin [10] or the group of Steinmann [27,28,30,17,18] as well as the references cite therein.”
- Waves in microstructured materials and dispersion (2005, methodology): “or the microstructural quantities are separately taken into account in one set of conservation laws [5].”
- A robust algorithm for configurational‐force‐driven brittle crack propagation with R‐adaptive mesh alignment (2007, neutral): “Local variational formulations for the evolution problem of brittle fracture as suggested by Stumpf and Le [5] and Maugin and Trimarco [6] base on material configurational forces acting on crack tip singularities in the sense of Eshelby [7, 8] and Rice [9], see also Maugin [10], Gurtin [11, 12], Kie”
- On material forces and finite element discretizations (2002, methodology): “For brevity of the derivation we consider only elastic materials, but an extension to inelastic settings is possible and discussed in Maugin (1993).”
- Nonsingular stress and strain fields of dislocations and disclinations in first strain gradient elasticity (2005, neutral): “ar X iv :c on d- m at /0 50 20 23 v1 [ co nd Keywords: gradient theory, dislocations, disclinations, nonlocal elasticity, hyperstress”
- On the comparison of two approaches to compute material forces for inelastic materials. Application to single-slip crystal-plasticity (2004, methodology): “For a survey on the general underlying continuum theory we refer the reader to the monographs by Maugin [26] and”
- Truss Modular Beams with Deformation Energy Depending on Higher Displacement Gradients (2003, background): “However, another equivalent formalization of continuum mechanics, based on the principle of virtual power and stemming from the dòAlembert concept of mechanics, is possible (for a modern description of such a point of view see, for instance, [8] and [9]).”