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Null Boundary Controllability of the Linear Kuramoto–Sivashinsky Equation with Variable Coefficients

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The purpose of this paper is to study the null boundary controllability of the following linear Kuramoto–Sivashinsky equation: \(\rho (x)y_{t}(t,x)+(\sigma (x)y_{xx}(t,x))_{xx}+(q(x)y_x(t,x))_x=0, t>0,~x\in (0,\ell ),\) with mixed boundary conditions, where \(\rho (x),~\sigma (x)>0\) and q(x) is free of sign restrictions. The control is applied to the Dirichlet boundary condition at the left endpoint \(x=0\). Under disconjugacy and disfocal conditions of the second-order equation \((\sigma (x)\phi ')'+q(x)\phi =0\) on the interval \([0,\ell ]\), we show that the system is null controllable at time \(T>0\). This result is an extension of the one obtained by Cazacu et al. (SIAM J Cont Optim 56:2921–2958, 2018, Sect. 4) in the case where the constant coefficients \(\rho \equiv \sigma \equiv 1\) and \(q>0\). Our approach is essentially based on a detailed spectral analysis together with the moments method.

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Correspondence to Jamel Ben Amara.

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Amara, J.B., Bouzidi, H. Null Boundary Controllability of the Linear Kuramoto–Sivashinsky Equation with Variable Coefficients. Appl Math Optim 86, 33 (2022). https://doi.org/10.1007/s00245-022-09901-z

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