Abstract
This thesis investigates the development of new singular value decomposition based model reduction techniques.
Firstly a parameterized double-sided frequency weighted controller reduction technique is developed .
Secondly, frequency interval cross gramians are developed for both linear and bilinear systems.
Thirdly , frequency interval controllability and observability gramians are derived for discrete-time bilinear systems.
Fourthly, time weighted cross gramians are developed and applied to a state space model representing the dynamics of a flat plate solar collector.
Fifthly, generalized frequency interval controllability and observability gramians are introduced.
Finally, a new frequency weighted partial fraction expansion based model reduction technique is developed .
Firstly a parameterized double-sided frequency weighted controller reduction technique is developed .
Secondly, frequency interval cross gramians are developed for both linear and bilinear systems.
Thirdly , frequency interval controllability and observability gramians are derived for discrete-time bilinear systems.
Fourthly, time weighted cross gramians are developed and applied to a state space model representing the dynamics of a flat plate solar collector.
Fifthly, generalized frequency interval controllability and observability gramians are introduced.
Finally, a new frequency weighted partial fraction expansion based model reduction technique is developed .
Original language | English |
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Qualification | Doctor of Philosophy |
Awarding Institution |
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Supervisors/Advisors |
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Award date | 16 Jan 2017 |
Publication status | Unpublished - 2016 |