• DocumentCode
    3706038
  • Title

    Performances compared to the sliding mode and gain scheduling control methods of a CSTR chemical reactor

  • Author

    Samia Charfeddine;Lassaad Sbita

  • Author_Institution
    Unit of photovoltaic, wind and Geothermal Systems, ENIG, Gab?s, Tunisia
  • fYear
    2015
  • fDate
    3/1/2015 12:00:00 AM
  • Firstpage
    1
  • Lastpage
    7
  • Abstract
    In this work, For many years, the sliding mode control has been deemed as one amongst the most studied control domains. Indeed, the power and simplicity that characterize such a control are the essential coerces which often push us to search for this technique thoroughly. When synthesizing the sliding mode control law, the sliding surface is usually defined as an autonomous and stable nonlinear system. Nevertheless, the dynamics imposed by such a system is slower than that imposed by a nonlinear system. Therefore, the use of this type of systems to synthesize the sliding surface in certain applications has becomes increasingly important. This type of system is also utilized for the gain scheduling control. The very control is combined with the feedback linearizing. Indeed, the synthesized control is mainly based on the reverse trajectory method which allows estimating the domains of attraction around the operating points. In this work, as a matter of fact, we are inclined to the synthesis of control laws of a chemical reactor. In this respective, an approach to the sliding mode control is applied. Another approach to the gain scheduling control is also proposed and is, successful, applied to the considered system. The performances of both control laws are, then, compared in terms of trajectory tracking.
  • Keywords
    "Trajectory","Sliding mode control","Nonlinear systems","Switches","Mathematical model","Job shop scheduling"
  • Publisher
    ieee
  • Conference_Titel
    Systems, Signals & Devices (SSD), 2015 12th International Multi-Conference on
  • Type

    conf

  • DOI
    10.1109/SSD.2015.7348204
  • Filename
    7348204