2015
DOI: 10.1016/j.amc.2015.01.114
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Exponential stability of a second order delay differential equation without damping term

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Cited by 8 publications
(11 citation statements)
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“…In References 20,21, the problem of asymptotic stability for the scalar equation truex¨false(tfalse)+axfalse(tprefix−hfalse)prefix−bxfalse(tprefix−gfalse)=0$$ \ddot{x}(t)+ ax\left(t-h\right)- bx\left(t-g\right)=0 $$ was studied, where xfalse(tfalse)$$ x(t)\in \mathbb{R} $$, a$$ a $$ and b$$ b $$ are constant positive coefficients, h$$ h $$ and g$$ g $$ are constant positive delays (all these parameters can also be time‐varying). The system (3) has no damping proportional to the velocity truex˙$$ \dot{x}\in \mathbb{R} $$, and in the delay‐free case (when h=g=0$$ h=g=0 $$) under the restriction a>b$$ a>b $$ it has purely oscillating trajectories.…”
Section: Statement Of the Problemmentioning
confidence: 99%
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“…In References 20,21, the problem of asymptotic stability for the scalar equation truex¨false(tfalse)+axfalse(tprefix−hfalse)prefix−bxfalse(tprefix−gfalse)=0$$ \ddot{x}(t)+ ax\left(t-h\right)- bx\left(t-g\right)=0 $$ was studied, where xfalse(tfalse)$$ x(t)\in \mathbb{R} $$, a$$ a $$ and b$$ b $$ are constant positive coefficients, h$$ h $$ and g$$ g $$ are constant positive delays (all these parameters can also be time‐varying). The system (3) has no damping proportional to the velocity truex˙$$ \dot{x}\in \mathbb{R} $$, and in the delay‐free case (when h=g=0$$ h=g=0 $$) under the restriction a>b$$ a>b $$ it has purely oscillating trajectories.…”
Section: Statement Of the Problemmentioning
confidence: 99%
“…In addition, we will extend our result obtained for constant delays to time‐varying ones, and next apply it to the rotation stabilization of rigid body using delayed feedback. Note that since μ>1$$ \mu >1 $$, the local asymptotic stability of (4) cannot be derived from References 20,21 using the linearization techniques.…”
Section: Statement Of the Problemmentioning
confidence: 99%
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“…Thus, the steady-state peak to peak amplitude in this region is zero. The time-delay acts as a damping term in the sense that it damps out the oscillations caused by the second derivative [Berezansky et al, 2015]. The system falls into the positive well, that is x ≈ 3.6 (see Figs.…”
Section: Bifurcation Analysismentioning
confidence: 99%
“…where p, q, τ are positive constants, results on exponential stability were obtained in [11,12,21,29]. First results on stability of the second order delay equation without a damping term were obtained in the paper [15] and then developed in [8,17]. Stability of second order equations with dampling terms was studied in [1, 2, 5, 7, 9-13, 21, 29].…”
Section: Introductionmentioning
confidence: 99%