journals1999.bib

@article{Gaw99a,
  author = {P. J. Gawthrop},
  cscauthor = {pjg},
  title = {Thermal Modelling using Mixed Energy and Pseudo Bond Graphs},
  journal = {Proceedings of the Institution of Mechanical Engineers Part I:
                  Journal of Systems and Control Engineering},
  year = 1999,
  volume = 213,
  number = 3,
  month = {June},
  pages = {201--216},
  abstract = {Pseudo and true Bond Graphs have been seen as competing
  approaches to modelling thermodynamic systems. This paper provides a
  simple mechanism for mixing the two approaches to obtain the best
  features of each.  In so doing, an alternative and more accessible
  approach to thermodynamic modelling than that provided by classical
  texts is given.},
  pdf = {../../Publications/csc1999/Gaw99a.pdf},
  doi = {10.1243/0959651991540089}
}
@article{RonArsGaw99,
  class = {Intermittent},
  author = {E. Ronco and  T. Arsan and P. J. Gawthrop},
  cscauthor = {pjg},
  title = {Open-Loop Intermittent Feedback Control: Practical
		 Continuous-time  {GPC}},
  journal = {IEE Proceedings Part~D: Control Theory and Applications},
  month = {September},
  volume = 146,
  number = 5,
  pages = {426--434},
  year = 1999,
  abstract = {A conceptual, and practical difficulty with the
          continuous-time generalised predictive controller is solved
          by replacing the continuously moving horizon by an
          intermittently moving horizon. This allows slow optimisation
          to occur concurrently with a fast control action. Some
          nonlinear simulations illustrate the potential of this
          approach.},
  doi = {10.1049/ip-cta:19990504}
}
@article{CheBalGaw99e,
  author = {W.-H. Chen and D. J. Ballance and P. J. Gawthrop and J. J.
		 Gribble and J. O'Reilly},
  cscauthor = {wc,djb,pjg,jjg,jor},
  title = {Nonlinear {PID} Predictive Controller},
  year = 1999,
  journal = {IEE Proceedings Part~D: Control Theory and Applications},
  volume = 146,
  number = 6,
  month = {November},
  pages = {603--611},
  abstract = {A new class of nonlinear PID controllers are derived for
          nonlinear systems using a nonlinear generalised predictive
          control (NGPC) approach. First, the disturbance decoupling
          ability of the NGPC is discussed. For a nonlinear system
          where the disturbance cannot be decoupled, a nonlinear
          observer is designed to estimate the offset. By selecting
          the nonlinear gain function in the observer, it is shown
          that the closed-loop system under optimal generalised
          predictive control with the nonlinear observer is
          asymptotically stable. It is pointed out that this composite
          controller is equivalent to a nonlinear controller with
          integral action. As a special case, for a nonlinear system
          with a low relative degree, the proposed nonlinear
          controller reduces to a nonlinear PI or PID predictive
          controller, which consists of a nonlinear PI or PID
          controller and a prediction controller. The design method is
          illustrated by an example nonlinear mechanical system},
  pdf = {../../Publications/csc1999/CheBalGaw99e.pdf}
}
@article{NgwGaw99,
  author = {Roger F Ngwompo and Peter J Gawthrop},
  cscauthor = {pjg},
  title = {Bond Graph Based Simulation of Nonlinear Inverse Systems 
                  Using  Physical   Performance  Specifications},
  journal = {Journal of the Franklin Institute},
  year = 1999,
  month = {November},
  volume = 336,
  number = 8,
  pages = {1225--1247},
  abstract = {Analysis and simulation of non-linear inverse systems
are sometimes necessary in the design of control systems particularly
when trying to determine an input control required to achieve some
predefined output specifications. But unlike physical systems which
are proper, the inverse systems are very often improper leading to
numerical problems in simulation as their models sometimes have a high
index when written in the form of differential-algebraic equations
(DAE). This paper provides an alternative approach whereby performance
specifications and the physical system are combined within a single
bond graph leading to a greatly simplified simulation problem.},
  pdf = {../../Publications/csc1999/NgwGaw99.pdf},
  doi = {10.1016/S0016-0032(99)00032-0}
}
@article{RonGaw99,
  author = {E. Ronco and P. J. Gawthrop},
  cscauthor = {pjg},
  title = {Incremental polynomial model-controller network: 
                  A self-organising nonlinear controller},
  journal = {IEE Proceedings Part~D: Control Theory and Applications},
  month = {November},
  volume = 146,
  number = 6,
  pages = {527--543},
  year = 1999,
  abstract = {An `incremental polynomial model-controller network'
          (IPMCN) is introduced. Smooth control switching is obtained
          from the use of odd polynomial controllers. The
          decomposition of the operating space, together with the
          construction of the network, is achieved on-line while
          controlling the system. The performance and robustness of
          this scheme are illustrated through various simulations. },
  pdf = {../../Publications/csc1999/RonGaw99.pdf}
}

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