Winkler Support Model and Nonlinear Boundary Conditions Applied to 3D Elastic Contact Problem Using the Boundary Element Method

This work presents a numerical methodology for modeling the Winkler supports and nonlinear conditions by proposing new boundary conditions. For the boundary conditions of Winkler support model, the surface tractions and the displacements normal to the surface of the solid are unknown, but their rela...

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Vydané v:Acta mechanica solida Sinica Ročník 32; číslo 2; s. 230 - 248
Hlavní autori: Vallepuga-Espinosa, J., Sánchez-González, Lidia, Ubero-Martínez, Iván
Médium: Journal Article
Jazyk:English
Vydavateľské údaje: Singapore Springer Singapore 11.04.2019
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ISSN:0894-9166, 1860-2134
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Abstract This work presents a numerical methodology for modeling the Winkler supports and nonlinear conditions by proposing new boundary conditions. For the boundary conditions of Winkler support model, the surface tractions and the displacements normal to the surface of the solid are unknown, but their relationship is known by means of the ballast coefficient, whereas for nonlinear boundary conditions, the displacements normal to the boundary of the solid are zero in the positive direction but are allowed in the negative direction. In those zones, detachments of nodes might appear, leading to a nonlinearity, because the number of nodes that remain fixed or of the detached ones (under tensile tractions) is unknown. The proposed methodology is applied to the 3D elastic receding contact problem using the boundary element method. The surface tractions and the displacements of the common interface between the two solids in contact under the influence of different supports are calculated as well as the boundary zone of the solid where the new boundary conditions are applied. The problem is solved by a double-iterative method, so in the final solution, there are no tractions or penetrations between the two solids or at the boundary of the solid where the nonlinear boundary conditions are simulated. The effectiveness of the proposed method is verified by examples.
AbstractList This work presents a numerical methodology for modeling the Winkler supports and nonlinear conditions by proposing new boundary conditions. For the boundary conditions of Winkler support model, the surface tractions and the displacements normal to the surface of the solid are unknown, but their relationship is known by means of the ballast coefficient, whereas for nonlinear boundary conditions, the displacements normal to the boundary of the solid are zero in the positive direction but are allowed in the negative direction. In those zones, detachments of nodes might appear, leading to a nonlinearity, because the number of nodes that remain fixed or of the detached ones (under tensile tractions) is unknown. The proposed methodology is applied to the 3D elastic receding contact problem using the boundary element method. The surface tractions and the displacements of the common interface between the two solids in contact under the influence of different supports are calculated as well as the boundary zone of the solid where the new boundary conditions are applied. The problem is solved by a double-iterative method, so in the final solution, there are no tractions or penetrations between the two solids or at the boundary of the solid where the nonlinear boundary conditions are simulated. The effectiveness of the proposed method is verified by examples.
Author Vallepuga-Espinosa, J.
Ubero-Martínez, Iván
Sánchez-González, Lidia
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  givenname: Lidia
  surname: Sánchez-González
  fullname: Sánchez-González, Lidia
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  givenname: Iván
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  surname: Ubero-Martínez
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  organization: Departamento de Tecnología Minera, Topografía y de Estructuras, Universidad de León
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Issue 2
Keywords Winkler support model
Nonlinear boundary conditions
Boundary element method
Elastic contact problem
Language English
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References_xml – reference: Rodríguez-TemblequeLAbascalRAliabadiMHA boundary element formulation for wear modeling on 3D and rolling-contact problemsInt J Solids Struct2010472600261210.1016/j.ijsolstr.2010.05.0211196.74274
– reference: LiYSBuckling analysis of magnetoelectroelastic plate resting on Pasternak elastic foundationMech Res Commun20145610411410.1016/j.mechrescom.2013.12.007
– reference: TE DB SE-C, Seguridad Estructural Cimientos. BOE 25/01/2008.
– reference: SfantosGKAliabadiMHWear simulation using an incremental sliding boundary element methodWear20062601119112810.1016/j.wear.2005.07.020
– reference: SelvaduraiAPSElastic analysis of soil-foundation interaction2013AmsterdamElsevier
– reference: XiaoJRBoundary element analysis of unilateral supported Reissner plates on elastic foundationsComput Mech200112711010.1007/s0046600002071042.74056
– reference: Wayne ChenWJane WangQA numerical model for the point contact of dissimilar materials considering tangential tractionsMech Mater20084093694810.1016/j.mechmat.2008.06.002
– reference: GarridoJALorenzanaAEnriched beam model for slender prismatic solids in contact with a rigid foundationEng Anal Bound Elem199842129530310.1016/S0955-7997(98)00018-6
– reference: BrebbiaCATellesJCFWrobelLCBoundary element techniques1984BerlinSpringer17723610.1007/978-3-642-48860-30556.73086
– reference: ZhangSLiXRanRSelf-adaptive projection and boundary element methods for contact problems with Tresca frictionCommun Nonlinear Sci Numer Simul20186872386005610.1016/j.cnsns.2018.05.001
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– reference: CostaJABrebbiaCAOn the reduction of domain integrals to the boundary for the BEM formulation of plates on elastic foundationEng Anal19862312312610.1016/0264-682X(86)90045-6
– reference: KalkerJJVan RandenYA minimum principle for frictionless elastic contact with application to non-Hertzian half-space contact problemsJ Eng Math19726219320635949810.1007/BF015351020243.73043
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Snippet This work presents a numerical methodology for modeling the Winkler supports and nonlinear conditions by proposing new boundary conditions. For the boundary...
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SubjectTerms Classical Mechanics
Engineering
Surfaces and Interfaces
Theoretical and Applied Mechanics
Thin Films
Title Winkler Support Model and Nonlinear Boundary Conditions Applied to 3D Elastic Contact Problem Using the Boundary Element Method
URI https://link.springer.com/article/10.1007/s10338-018-00073-4
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