This is an interim version of our Electronic Legal Deposit Catalogue-eJournals and eBooks while we continue to recover from a cyber-attack.
DNN projectional observer for advanced ozonation systems of complex contaminants mixtures⁎This work is partially supported by CPeR DATA "ControlHub", ANR DIGITSLID 18-Ce40-0008, the Government of Russian Federation (Grant 08-08), the Ministry of education and Science of Russian Federation (Project 14.Z50.31.0031), and Russian Foundation for Basic Research (Project No. 19-08-00535). Issue 2 (2020)
Record Type:
Journal Article
Title:
DNN projectional observer for advanced ozonation systems of complex contaminants mixtures⁎This work is partially supported by CPeR DATA "ControlHub", ANR DIGITSLID 18-Ce40-0008, the Government of Russian Federation (Grant 08-08), the Ministry of education and Science of Russian Federation (Project 14.Z50.31.0031), and Russian Foundation for Basic Research (Project No. 19-08-00535). Issue 2 (2020)
Main Title:
DNN projectional observer for advanced ozonation systems of complex contaminants mixtures⁎This work is partially supported by CPeR DATA "ControlHub", ANR DIGITSLID 18-Ce40-0008, the Government of Russian Federation (Grant 08-08), the Ministry of education and Science of Russian Federation (Project 14.Z50.31.0031), and Russian Foundation for Basic Research (Project No. 19-08-00535).
Abstract: The aim of this study is to provide a class of state observers, based on differential neural networks, to approximate a class of advanced oxidation systems, based on the application of ozone high oxidant power and catalyst (the named catalytic ozonation). The study considers the design of a state observer for uncertain systems with the restrictions of the ozonation system, including the positivity of the states, as well as the control action. The observer includes a projection operator which is motivated by the state constraints. The learning laws of the proposed differential neural networks are obtained using a class of controlled state restricted Lyapunov functions. The detailed stability analysis proves the input to state stability with respect to the modeling error, as well as the bounded uncertainties of the ozonation system. The experimental confirmation of the state estimation is also presented. The experimental case considers the ozonation of a toxic organic contaminant (therephtalic acid) which is a regular pollutant of the plastic industry wastewater.