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Abstract
In the present we test the stability of the high order exponential variational
integrators when applied to mechanical systems with holonomic constraints. Those geometric integrator schemes are determined by a discretization of a variational principle for a discrete Lagrangian. That expression, which is defined using exponential expressions of interpolation functions, is then applied on the discrete Euler-Lagrangian equations with constraints. The resulting schemes are then tested on a typical dynamical multibody system with constraints, i.e the double pendulum, and show good long-time behavior when compared to other traditional methods.
integrators when applied to mechanical systems with holonomic constraints. Those geometric integrator schemes are determined by a discretization of a variational principle for a discrete Lagrangian. That expression, which is defined using exponential expressions of interpolation functions, is then applied on the discrete Euler-Lagrangian equations with constraints. The resulting schemes are then tested on a typical dynamical multibody system with constraints, i.e the double pendulum, and show good long-time behavior when compared to other traditional methods.
| Original language | English |
|---|---|
| Title of host publication | Journal of Physics: Conference Series |
| DOIs | |
| Publication status | Published - 4 Feb 2021 |
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Dive into the research topics of 'On the stability of exponential variational integrators for multibody systems with holonomic constraints'. Together they form a unique fingerprint.Projects
- 1 Finished
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Geometric Mechanics of Solids: new analysis of modern engineering materials - GEMS
Jivkov, A. (PI) & Margetts, L. (CoI)
1/11/16 → 31/10/21
Project: Research