Nonconservative Systems with a Finite Number of Degrees of Freedom
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BANICHUK, Nikolay, BARSUK, Alexander A., JERONEN, J., TUOVINEN, Tero, NEITTAANMAKI, Pekka. Nonconservative Systems with a Finite Number of Degrees of Freedom. Dusseldorf: 2020, pp. 69-144. ISSN 09250042DOI: 10.1007/978-3-030-23803-2_3
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Solid Mechanics and its Applications
2020

Nonconservative Systems with a Finite Number of Degrees of Freedom

DOI:https://doi.org/10.1007/978-3-030-23803-2_3

Pag. 69-144

Banichuk Nikolay1, Barsuk Alexander A.2, Jeronen J.3, Tuovinen Tero3, Neittaanmaki Pekka3
 
1 Institut pe Probleme Mecanice, Academia de Stiinte a Rusiei,
2 Moldova State University,
3 University of Jyvaskyla
 
 
Disponibil în IBN: 15 februarie 2024


Rezumat

In this chapter we present some results on the stability and bifurcations of the systems with a finite number of degrees of freedom. We consider damping-induced destabilization in nonconservative systems. We start with a general theoretical treatment of the topic. As the model problem, we consider the double pendulum subject to both a follower force and gravitational loading. A special case of interest is treated with the theoretical framework. The chapter finishes with a thorough presentation and analysis of the model problem including the nonlinear dynamics, quasistatic equilibrium paths and their stability, and special cases of interest. In numerical examples, we show equilibrium paths and trajectory density visualizations of the time evolution of the nonlinear system. Sample-based uncertainty quantification is employed to capture both branches of a bifurcation in the same visualization.

DOI: 10.1007/978-3-030-23803-2_3
Alte contribuții (capitole, secțiuni ale cărții / culegerii) disponibile în IBN
PrefaceV-VIII
Prototype Problems: Bifurcations of Different Kinds1-32
Bifurcation Analysis for Polynomial Equations33-68
Some General Methods145-177
Modeling and Stability Analysis of Axially Moving Materials179-344
Stability of Axially Moving Plates345-395
Stability of Axially Moving Strings, Beams and Panels397-483
Stability in Fluid—Structure Interaction of Axially Moving Materials485-561
Optimization of Elastic Bodies Subjected to Thermal Loads563-587