Efficient Gaussian Sugeno fuzzy vector with bidirectional lucidity network for gas turbine

In the realm of power generation, the integration of gas turbine technology with complementary components in a combined gas turbine (CGT) plant demands meticulous examination of exergy destruction and NO x reduction to ascertain its pivotal performance metrics.Hence, a novel Gaussian Sugeno vector network with a bidirectional lucidity network has been introduced.In the condenser, azeotropic mixtures in the working fluid reveal different heat-transfer characteristics which affect condenser effectiveness and contribute to higher exergy destruction.Thus, a novel Gaussian-Sugeno-Swarm vector network has been implemented, which mitigates the complexities introduced by azeotropic mixtures, reducing exergy destruction and significantly improving the overall effectiveness of the condenser.Furthermore, selective catalytic reduction (SCR) systems exhibit non-linear behaviour due to catalyst deactivation, causing incomplete NO x reduction due to difficulty in predicting and controlling temperature changes.So, a novel bidirectional niching fuzzy lucidity network has been introduced, which provides a comprehensive solution to address the limitations of current control algorithms, ensuring a complete reduction in NO x emissions in SCR systems.The proposed method demonstrates excellence in condenser and SCR systems by achieving a high prediction accuracy of 0.94, precision of 0.96, NO x reduction of 0.97 and low heat loss of 0.02.

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Publication Details

Journal
Current Science
Published
2025-04-25
DOI
https://doi.org/10.18520/cs/v128/i8/802-817
Primary Topic
Advanced Measurement and Detection Methods
Type
article
Field-Weighted Citation Impact
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article

Efficient Gaussian Sugeno fuzzy vector with bidirectional lucidity network for gas turbine

Ramchandra P. Chopade, Kolikipogu Ramakrishna, Ravindra S. Surase
Current Science
Advanced Measurement and Detection Methods
article

Efficient Gaussian Sugeno fuzzy vector with bidirectional lucidity network for gas turbine

Ramchandra P. Chopade, Kolikipogu Ramakrishna, Ravindra S. Surase
article en

Abstract

In the realm of power generation, the integration of gas turbine technology with complementary components in a combined gas turbine (CGT) plant demands meticulous examination of exergy destruction and NO x reduction to ascertain its pivotal performance metrics.Hence, a novel Gaussian Sugeno vector network with a bidirectional lucidity network has been introduced.In the condenser, azeotropic mixtures in the working fluid reveal different heat-transfer characteristics which affect condenser effectiveness and contribute to higher exergy destruction.Thus, a novel Gaussian-Sugeno-Swarm vector network has been implemented, which mitigates the complexities introduced by azeotropic mixtures, reducing exergy destruction and significantly improving the overall effectiveness of the condenser.Furthermore, selective catalytic reduction (SCR) systems exhibit non-linear behaviour due to catalyst deactivation, causing incomplete NO x reduction due to difficulty in predicting and controlling temperature changes.So, a novel bidirectional niching fuzzy lucidity network has been introduced, which provides a comprehensive solution to address the limitations of current control algorithms, ensuring a complete reduction in NO x emissions in SCR systems.The proposed method demonstrates excellence in condenser and SCR systems by achieving a high prediction accuracy of 0.94, precision of 0.96, NO x reduction of 0.97 and low heat loss of 0.02.

Current ScienceVol. 128(8)
Affordable and clean energy
Openalex Percentile: Top 90%
Advanced Measurement and Detection Methods
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