Results 231 to 240 of about 68,375 (267)

Bifurcation Analysis of Planar Piecewise Linear System with Different Dynamics

International Journal of Bifurcation and Chaos, 2016
In this paper, we investigate the bifurcation phenomena of a planar piecewise linear system. This piecewise linear system comprises two linear subsystems. The two linear subsystems have different types of dynamics. One subsystem has node or saddle dynamic and the other has focus dynamic.
Xiaoshi Guo, Dingheng Pi, Zhensheng Gao
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The stability of planar dynamical systems linear-in-cones

IEEE Transactions on Automatic Control, 1981
An explicit characterization is given of stability and stabilizability for certain piecewise linear systems, i.e., systems linear-in-cones.
Pachter, M., Jacobson, D. H.
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Planar Curve Representation of Many-Body Systems and Dynamics

Physical Review Letters, 1997
Summary: A method is introduced to represent many-body systems of arbitrary dimensionality by planar curves. The positions and momenta of the particles are the parameters of a time-dependent nonlinear transformation, which maps the many-body dynamics of the real system to the motion of the curve.
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COLORFUL PATTERNS WITH DISCRETE PLANAR SYMMETRIES FROM DYNAMICAL SYSTEMS

Fractals, 2010
Automatic generation of colored patterns with discrete planar symmetries is considered from a dynamical system's point of view. Invariant mappings with such symmetries are constructed to serve as the density functions for the generation of colorful images.
Lu, Jian, Zou, Yuru, Li, Wenxia
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Hybrid dynamic model for haptic systems with planar mechanisms

2013 6th IEEE Conference on Robotics, Automation and Mechatronics (RAM), 2013
The aim of this paper is to present a new partitioning method for solving the equation of motion of a planar mechanism with more than one degree of freedom, using a hybrid dynamic model. The procedure is according to the Newton-Euler formalism with Lagrange equations and can be used in the case that some of the applied forces acting on the elements of ...
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Dynamical Systems and Planar Autonomous Equations

2014
Basic concepts for dynamical systems are introduced. The Poincare–Bendixson theorem is proved and used to study the existence and orbital stability of periodic solutions for planar equations. Invariant manifolds for n-dimensional nonlinear equations are investigated.
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INTEGRATION-FREE ANALYSIS OF NONSMOOTH LOCAL DYNAMICS IN PLANAR FILIPPOV SYSTEMS

International Journal of Bifurcation and Chaos, 2009
In this paper, we present a novel method to analyze the behavior of discontinuous piecewise-smooth autonomous systems (denominated Filippov systems) in the planar neighborhood of the discontinuity boundary (DB). The method uses the evaluation of the vector fields on DB to analyze the nonsmooth local dynamics of the Filippov system without the ...
Arango, Ivan, Taborda, John Alexander
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Fractal Control of Planar Complex Dynamical Systems

2018
Until now, there are lots of outcomes about fractal basic theory, especially for the studies of Julia sets in fractal. However, the focus of their discussions are on the drawing of graphics and qualitative characters of Julia sets for various types of functions.
Shu-Tang Liu, Pei Wang
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Planar dynamics and control of tethered satellite systems

2009
A mathematical model is developed for studying the inplane dynamics and control of tethered two-body systems in a Keplerian orbit. The formulation accounts for: • elastic deformation of the tether in both the longitudinal and inplane trans- verse directions; • inplane libration of the flexible tether as well as the rigid platform; • time dependent ...
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Dynamics of planar and spatial rigid-body systems

2002
In this chapter the equations of spatial and planar motion of unconstrained rigid bodies will be derived based on the laws of Newton and Euler (such as in standard textbooks like [44], [56], [57], [58], [59], [60], [61], [62], [63], [64], [65]). The equations of motion will be written with respect to a general body-fixed reference point P i (P i ≠ C i ,
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