• DocumentCode
    2821820
  • Title

    Upwind approximations and mesh independence for LQR control of convection diffusion equations

  • Author

    Burns, John A. ; Zietsman, Lizette

  • Author_Institution
    Virginia Tech., Blacksburg
  • fYear
    2007
  • fDate
    12-14 Dec. 2007
  • Firstpage
    219
  • Lastpage
    224
  • Abstract
    The development of practical computational schemes for optimization and control of non-normal distributed parameter systems requires that one builds certain computational efficiencies (such as mesh independence) into the approximation scheme. We consider some numerical issues concerning the application of Kleinman-Newton algorithms to discretizations of infinite dimensional Riccati equations that arise in control of PDE systems. We show that dual convergence and compactness play central roles in both convergence and mesh independence and we present numerical results to illustrate the theory.
  • Keywords
    Newton method; Poisson equation; Riccati equations; approximation theory; convergence of numerical methods; distributed parameter systems; linear quadratic control; multidimensional systems; partial differential equations; Kleinman-Newton algorithms; LQR control; PDE systems; convection diffusion equations; infinite dimensional Riccati equations; mesh independence; nonnormal distributed parameter systems; upwind approximations; Computational efficiency; Control systems; Convergence of numerical methods; Distributed computing; Distributed control; Distributed parameter systems; Finite element methods; Piecewise linear approximation; Riccati equations; USA Councils;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Decision and Control, 2007 46th IEEE Conference on
  • Conference_Location
    New Orleans, LA
  • ISSN
    0191-2216
  • Print_ISBN
    978-1-4244-1497-0
  • Electronic_ISBN
    0191-2216
  • Type

    conf

  • DOI
    10.1109/CDC.2007.4434454
  • Filename
    4434454