Interval enclosures for reachable sets of chemical kinetic flow systems. Part 3: Indirect-bounding method

•We compute the reachable sets for continuous-stirred tank reactors under uncertainty.•The proposed method reduces overestimation using an isomorphic transformation.•The proposed method eliminates the need to know a priori the bounds on the system.•The efficacy of the proposed method is validated on...

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Published inChemical engineering science Vol. 166; pp. 358 - 372
Main Authors Tulsyan, Aditya, Barton, Paul I.
Format Journal Article
LanguageEnglish
Published Elsevier Ltd 20.07.2017
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Abstract •We compute the reachable sets for continuous-stirred tank reactors under uncertainty.•The proposed method reduces overestimation using an isomorphic transformation.•The proposed method eliminates the need to know a priori the bounds on the system.•The efficacy of the proposed method is validated on different CSTR systems. In the third paper, in the three-part series, we propose an indirect-bounding approach for constructing rigorous interval enclosures or bounds for the reachable sets of CSTR reaction systems subject to parametric and initial condition uncertainties and flow rate disturbances. Existing comparison-based methods yield conservative enclosures for the reachable sets due to the non-quasi-monotonic and non-cooperative nature of CSTR reaction systems. The proposed indirect-bounding method addresses the overestimation problem by using the isomorphic transformation, developed in Tulsyan and Barton (2017a), to map the system into a transformed state space, where comparison-based methods yield tight bounds. The interval bounds on the original states are then reconstructed using the inverse transformation. This eliminates the need to know a priori an effective enclosure set for the CSTR reaction system, as required by the direct-bounding method in Tulsyan and Barton (2017b). The efficacy of the indirect-bounding method is validated on several example problems. Several comparisons with the direct-bounding method are also presented to demonstrate the improvements achieved with the indirect-bounding method.
AbstractList •We compute the reachable sets for continuous-stirred tank reactors under uncertainty.•The proposed method reduces overestimation using an isomorphic transformation.•The proposed method eliminates the need to know a priori the bounds on the system.•The efficacy of the proposed method is validated on different CSTR systems. In the third paper, in the three-part series, we propose an indirect-bounding approach for constructing rigorous interval enclosures or bounds for the reachable sets of CSTR reaction systems subject to parametric and initial condition uncertainties and flow rate disturbances. Existing comparison-based methods yield conservative enclosures for the reachable sets due to the non-quasi-monotonic and non-cooperative nature of CSTR reaction systems. The proposed indirect-bounding method addresses the overestimation problem by using the isomorphic transformation, developed in Tulsyan and Barton (2017a), to map the system into a transformed state space, where comparison-based methods yield tight bounds. The interval bounds on the original states are then reconstructed using the inverse transformation. This eliminates the need to know a priori an effective enclosure set for the CSTR reaction system, as required by the direct-bounding method in Tulsyan and Barton (2017b). The efficacy of the indirect-bounding method is validated on several example problems. Several comparisons with the direct-bounding method are also presented to demonstrate the improvements achieved with the indirect-bounding method.
Author Tulsyan, Aditya
Barton, Paul I.
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10.1016/j.automatica.2004.01.012
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Keywords Transformation
Differential inequalities
Reachable set
Interval arithmetic
Reaction kinetics
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Snippet •We compute the reachable sets for continuous-stirred tank reactors under uncertainty.•The proposed method reduces overestimation using an isomorphic...
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StartPage 358
SubjectTerms Differential inequalities
Interval arithmetic
Reachable set
Reaction kinetics
Transformation
Title Interval enclosures for reachable sets of chemical kinetic flow systems. Part 3: Indirect-bounding method
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Volume 166
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