Transient thermoelastic contact problem of a transversely isotropic cylinder

1988 ◽  
Vol 58 (4) ◽  
pp. 241-251
Author(s):  
N. Noda ◽  
F. Ashida
Keyword(s):  
Contact Problem ◽  
Transversely Isotropic ◽  
Isotropic Cylinder ◽  
Thermoelastic Contact ◽  
Transversely Isotropic Cylinder ◽  
Thermoelastic Contact Problem

Effect of anisotropy on thermoelastic contact problem

2008 ◽  
Vol 29 (4) ◽  
pp. 501-510 ◽  
Author(s):  
Sakti Pada Barik ◽  
M. Kanoria ◽  
P. K. Chaudhuri
Keyword(s):  
Contact Problem ◽  
Thermoelastic Contact ◽  
Thermoelastic Contact Problem

An incremental-iterative BEM methodology to solve 3D thermoelastic contact problem including variable thermal resistance in the contact zone

2019 ◽  
Vol 31 (5) ◽  
pp. 1543-1558 ◽  
Author(s):  
J. Vallepuga-Espinosa ◽  
Iván Ubero-Martínez ◽  
Lidia Sánchez-González ◽  
J. Cifuentes-Rodríguez
Keyword(s):  
Contact Problem ◽  
Thermal Resistance ◽  
Contact Zone ◽  
Thermoelastic Contact ◽  
Thermoelastic Contact Problem

Ductile penny-shaped crack in a transversely isotropic cylinder

1991 ◽  
Vol 51 (4) ◽  
pp. 331-342 ◽  
Author(s):  
H. T. Danyluk ◽  
B. M. singh ◽  
J. Vrbik
Keyword(s):  
Transversely Isotropic ◽  
Isotropic Cylinder ◽  
Penny Shaped Crack ◽  
Shaped Crack ◽  
Transversely Isotropic Cylinder

Transient Solution of the Inhomogeneous Thermoelastic Contact Problem Using Fast Speed Expansion

2004 ◽  
Author(s):  
Jiayin Li ◽  
James R. Barber
Keyword(s):  
Contact Problem ◽  
Large Scale ◽  
Computation Time ◽  
Transient Solution ◽  
New Approach ◽  
Thermoelastic Contact ◽  
Fast Speed ◽  
Transient Problems ◽  
Transient Problem ◽  
Thermoelastic Contact Problem

Numerical integration has been widely used in commercial FEA software to solve transient problems. However, for the large-scale inhomogeneous thermoelastic contact problem (ITEC), this method is found to be extremely computation-intensive. This paper introduces a new approach to solve the ITEC transient problem with much lower computational complexity. The method is based on the transient modal analysis (TMA) method in conjunction with the fast speed expansion (FSE) method. The TMA method is used to obtain the inhomogeneous transient solution by expressing the solution in modal coordinates, corresponding to eigenfunctions of the homogeneous (unloaded) problem. If the sliding speed is constant, the eigenfunctions can be found by one run of the commercial software program ‘HotSpotter’. However, if the speed varies, the eigenfunctions change and numerous runs of HotSpotter are needed, making the method computationally inefficient. However, the FSE method employs an efficient algorithm to interpolate and expand the eigenfunctions and eigenvalues over a range of speeds. This reduces the number of eigenvalue solutions required and results in a significant reduction in computation time. The method is illustrated with application to an axisymmetric transmission clutch problem.

Plane thermoelastic contact problem taking heat liberation into consideration

1986 ◽  
Vol 22 (3) ◽  
pp. 291-296
Author(s):  
V. N. Maksimovich ◽  
Yu. I. Babei ◽  
P. B. Kratyuk ◽  
M. D. Maksimishin
Keyword(s):  
Contact Problem ◽  
Heat Liberation ◽  
Thermoelastic Contact ◽  
Thermoelastic Contact Problem
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