Stabilization of the Schrödinger equation.
Machtyngier, E., Zuazua, E. (1994)
Portugaliae Mathematica
Similarity:
Machtyngier, E., Zuazua, E. (1994)
Portugaliae Mathematica
Similarity:
Ma, To Fu, Portillo Oquendo, Higidio (2006)
Boundary Value Problems [electronic only]
Similarity:
Nicaise, S. (2003)
Portugaliae Mathematica. Nova Série
Similarity:
Weijiu Liu (1998)
ESAIM: Control, Optimisation and Calculus of Variations
Similarity:
Rabah Bey, Amar Heminna, Jean-Pierre Lohéac (2003)
Revista Matemática Complutense
Similarity:
We propose a direct approach to obtain the boundary stabilization of the isotropic linear elastodynamic system by a natural feedback; this method uses local coordinates in the expression of boundary integrals as a main tool. It leads to an explicit decay rate of the energy function and requires weak geometrical conditions: for example, the spacial domain can be the difference of two star-shaped sets.
Nicaise, Serge, Pignotti, Cristina (2005)
Abstract and Applied Analysis
Similarity:
Patrick Martinez, Judith Vancostenoble (2002)
ESAIM: Control, Optimisation and Calculus of Variations
Similarity:
Motivated by several works on the stabilization of the oscillator by on-off feedbacks, we study the related problem for the one-dimensional wave equation, damped by an on-off feedback . We obtain results that are radically different from those known in the case of the oscillator. We consider periodic functions : typically is equal to on , equal to on and is -periodic. We study the boundary case and next the locally distributed case, and we give optimal results of stability....
Cavalcanti, M.M. (1998)
The New York Journal of Mathematics [electronic only]
Similarity:
Ha, Tae Gab, Park, Jong Yeoul (2010)
Boundary Value Problems [electronic only]
Similarity:
De Lima Santos, Mauro (2002)
Abstract and Applied Analysis
Similarity:
Ademir Fernando Pazoto (2005)
ESAIM: Control, Optimisation and Calculus of Variations
Similarity:
This work is devoted to prove the exponential decay for the energy of solutions of the Korteweg-de Vries equation in a bounded interval with a localized damping term. Following the method in Menzala (2002) which combines energy estimates, multipliers and compactness arguments the problem is reduced to prove the unique continuation of weak solutions. In Menzala (2002) the case where solutions vanish on a neighborhood of both extremes of the bounded interval where equation holds was solved...