A solution method is presented for the analysis of contact between two (or more) threedimensional
bodies. The surfaces of the contacting bodies are discretized using quadrilateral surface
segments. A Lagrange multiplier technique is employed to impose that, in the contact area, the surface
displacements of the contacting bodies are compatible with each other. Distributed contact tractions over
the surface segments are calculated from the externally applied forces, inertia forces and internal element
stresses. Using the segment tractions, Coulomb's law of friction is enforced in a global sense over each
surface segment. The time integration of dynamic response is performed using the Newmark method with
parameters o = ! and o: = !- Using these parameters the energy and momentum balance criteria for the
contacting bodies are satisfied accurately when a reasonably small time step is used.
The applicability of the algorithm is illustrated by selected sample numerical solutions to static and
dynamic contact problems.
%0 Journal Article
%1 chaudhary1986solution
%A CHAUDHARY, Anil
%A BATHE, KLAUS-JURGEN
%D 1986
%K CONTACT PROBLEMS THREE-DIMENSIONAL
%T A SOLUTION METHOD FOR STATIC AND DYNAMIC
ANALYSIS OF THREE-DIMENSIONAL CONTACT
PROBLEMS WITH FRICTION
%X A solution method is presented for the analysis of contact between two (or more) threedimensional
bodies. The surfaces of the contacting bodies are discretized using quadrilateral surface
segments. A Lagrange multiplier technique is employed to impose that, in the contact area, the surface
displacements of the contacting bodies are compatible with each other. Distributed contact tractions over
the surface segments are calculated from the externally applied forces, inertia forces and internal element
stresses. Using the segment tractions, Coulomb's law of friction is enforced in a global sense over each
surface segment. The time integration of dynamic response is performed using the Newmark method with
parameters o = ! and o: = !- Using these parameters the energy and momentum balance criteria for the
contacting bodies are satisfied accurately when a reasonably small time step is used.
The applicability of the algorithm is illustrated by selected sample numerical solutions to static and
dynamic contact problems.
@article{chaudhary1986solution,
abstract = {A solution method is presented for the analysis of contact between two (or more) threedimensional
bodies. The surfaces of the contacting bodies are discretized using quadrilateral surface
segments. A Lagrange multiplier technique is employed to impose that, in the contact area, the surface
displacements of the contacting bodies are compatible with each other. Distributed contact tractions over
the surface segments are calculated from the externally applied forces, inertia forces and internal element
stresses. Using the segment tractions, Coulomb's law of friction is enforced in a global sense over each
surface segment. The time integration of dynamic response is performed using the Newmark method with
parameters o = ! and o: = !- Using these parameters the energy and momentum balance criteria for the
contacting bodies are satisfied accurately when a reasonably small time step is used.
The applicability of the algorithm is illustrated by selected sample numerical solutions to static and
dynamic contact problems.},
added-at = {2021-02-02T09:43:40.000+0100},
author = {CHAUDHARY, Anil and BATHE, KLAUS-JURGEN},
biburl = {https://www.bibsonomy.org/bibtex/21d1aec6c79afcac32e8faf1e3eed6113/chkokalis},
interhash = {f963267347114c71908e533dd5a39191},
intrahash = {1d1aec6c79afcac32e8faf1e3eed6113},
keywords = {CONTACT PROBLEMS THREE-DIMENSIONAL},
timestamp = {2021-02-03T20:17:28.000+0100},
title = {A SOLUTION METHOD FOR STATIC AND DYNAMIC
ANALYSIS OF THREE-DIMENSIONAL CONTACT
PROBLEMS WITH FRICTION},
year = 1986
}