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A combined FD-HB approximation method for steady-state vibrations in large dynamical systems with localised nonlinearities
by
Bäuerle, Simon
, Hetzler, Hartmut
, Kappauf, Jonas
in
Approximation
/ Classical and Continuum Physics
/ Computational Science and Engineering
/ Degrees of freedom
/ Dynamical systems
/ Engineering
/ Finite difference method
/ Harmonic balance method
/ Nonlinear systems
/ Nonlinearity
/ Original Paper
/ Steady state
/ Theoretical and Applied Mechanics
2022
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A combined FD-HB approximation method for steady-state vibrations in large dynamical systems with localised nonlinearities
by
Bäuerle, Simon
, Hetzler, Hartmut
, Kappauf, Jonas
in
Approximation
/ Classical and Continuum Physics
/ Computational Science and Engineering
/ Degrees of freedom
/ Dynamical systems
/ Engineering
/ Finite difference method
/ Harmonic balance method
/ Nonlinear systems
/ Nonlinearity
/ Original Paper
/ Steady state
/ Theoretical and Applied Mechanics
2022
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While trying to remove the title from your shelf something went wrong :( Kindly try again later!
Do you wish to request the book?
A combined FD-HB approximation method for steady-state vibrations in large dynamical systems with localised nonlinearities
by
Bäuerle, Simon
, Hetzler, Hartmut
, Kappauf, Jonas
in
Approximation
/ Classical and Continuum Physics
/ Computational Science and Engineering
/ Degrees of freedom
/ Dynamical systems
/ Engineering
/ Finite difference method
/ Harmonic balance method
/ Nonlinear systems
/ Nonlinearity
/ Original Paper
/ Steady state
/ Theoretical and Applied Mechanics
2022
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A combined FD-HB approximation method for steady-state vibrations in large dynamical systems with localised nonlinearities
Journal Article
A combined FD-HB approximation method for steady-state vibrations in large dynamical systems with localised nonlinearities
2022
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Overview
The approximation of steady-state vibrations within non-linear dynamical systems is well-established in academics and is becoming increasingly important in industry. However, the complexity and the number of degrees of freedom of application-oriented industrial models demand efficient approximation methods for steady-state solutions. One possible approach to that problem are hybrid approximation schemes, which combine advantages of standard methods from the literature. The common ground of these methods is their description of the steady-state dynamics of a system solely based on the degrees of freedom affected directly by non-linearity—the so-called non-linear degrees of freedom. This contribution proposes a new hybrid method for approximating periodic solutions of systems with localised non-linearities. The motion of the non-linear degrees of freedom is approximated using the
Finite Difference
method, whilst the motion of the linear degrees of freedom is treated with the
Harmonic Balance
method. An application to a chain of oscillators showing stick-slip oscillations is used to demonstrate the performance of the proposed hybrid framework. A comparison with both pure
Finite Difference
and
Harmonic Balance
method reveals a noticeable increase in efficiency for larger systems, whilst keeping an excellent approximation quality for the strongly non-linear solution parts.
Publisher
Springer Berlin Heidelberg,Springer,Springer Nature B.V
Subject
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