#### Filter Results:

- Full text PDF available (11)

#### Publication Year

2011

2017

- This year (1)
- Last 5 years (11)
- Last 10 years (12)

#### Publication Type

#### Co-author

#### Publication Venue

#### Key Phrases

Learn More

- Humberto Stein Shiromoto, Vincent Andrieu, Christophe Prieur
- Automatica
- 2015

A sufficient condition for the stability of a system resulting from the interconnection of dynamical systems is given by the small gain theorem. Roughly speaking, to apply this theorem, it is required that the gains composition is continuous, increasing and upper bounded by the identity function. In this work, an alternative sufficient condition is… (More)

—This work provides an example that motivates and illustrates theoretical results related to a combination of small-gain and density propagation conditions. Namely, in case the small-gain fails to hold at certain points or intervals the density propagation condition can be applied to assure global stability properties. We repeat the theoretical results here… (More)

In this paper, the problem of stability analysis of a large-scale in-terconnection of nonlinear systems for which the small-gain condition does not hold globally is considered. A combination of the small-gain and density propagation inequalities is employed to prove almost input-to-state stability of the network.

— The problem under consideration is the synthesis of a distributed controller for a nonlinear network composed of input affine systems. The objective is to achieve exponential convergence of the solutions. To design such a feedback law, methods based on contraction theory are employed to render the controller-synthesis problem scalable and suitable to use… (More)

We consider nonlinear control systems for which there exist some structural obstacles to the design of classical continuous stabilizing feedback laws. More precisely, it is studied systems for which the backstepping tool for the design of stabilizers can not be applied. On the contrary, it leads to feedback laws such that the origin of the closed-loop… (More)

For an ISS system, by analyzing local and non-local properties, it is obtained different input-to-state gains. The interconnection of a system having two input-to-state gains with a system having a single ISS gain is analyzed. By employing the Small Gain Theorem for the local (resp. non-local) gains composition, it is concluded about the local (resp.… (More)

On considère une classe de systèmes non-linéaires pour lesquels la technique de synthèse par backstepping n'est pas applicable. On présente un critère pour la synthèse d'une commande hybride faisant l'union d'une commande par backstepping et d'une commande locale. Cette commande hybride rend le système bouclé globalement asymptotiquement stable. Le critère… (More)

- M. Sofiane Benachour, Humberto Stein Shiromoto, Vincent Andrieu
- Automatica
- 2014

In this paper we consider the problem of global asymptotic stabilization with prescribed local behavior. We show that this problem can be formulated in terms of control Lyapunov functions. Moreover, we show that if the local control law has been synthesized employing a LQ approach, then the associated Lyapunov function can be seen as the value function of… (More)

- Petro Feketa, Humberto Stein Shiromoto, Sergey Dashkovskiy
- Automatica
- 2017

Small-gain conditions used in analysis of feedback interconnections are contraction conditions which imply certain stability properties. Such conditions are applied to a finite or infinite interval. In this paper we consider the case, when a small-gain condition is applied to several disjunct intervals and use the density propagation condition in the gaps… (More)

This paper reports the initial steps in the development of WaterLab, an ambitious experimental facility for the testing of new cyber-physical technologies in drinking water distribution networks (DWDN). WaterLab's initial focus is on wireless control networks and on data-based, distributed anomaly detection over wireless sensor networks. The former can be… (More)