Design of Propeller Series Optimizing Fuel Consumption and Propeller Efficiency

This paper presents a comparison between different types of propellers operated in calm water to evaluate their performance behind hulls and in open-water conditions. A bulk carrier is chosen as a case study to perform the simulation and to evaluate the performance of several propeller series, namel...

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Autores principales: Mina Tadros, Manuel Ventura, Carlos Guedes Soares
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Lenguaje:EN
Publicado: MDPI AG 2021
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Acceso en línea:https://doaj.org/article/92e4cc4c25cd4e4b9e27db2397b323bf
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spelling oai:doaj.org-article:92e4cc4c25cd4e4b9e27db2397b323bf2021-11-25T18:04:31ZDesign of Propeller Series Optimizing Fuel Consumption and Propeller Efficiency10.3390/jmse91112262077-1312https://doaj.org/article/92e4cc4c25cd4e4b9e27db2397b323bf2021-11-01T00:00:00Zhttps://www.mdpi.com/2077-1312/9/11/1226https://doaj.org/toc/2077-1312This paper presents a comparison between different types of propellers operated in calm water to evaluate their performance behind hulls and in open-water conditions. A bulk carrier is chosen as a case study to perform the simulation and to evaluate the performance of several propeller series, namely the Wagengein B-series, Kaplan 19A, and MAU. Firstly, optimization procedures are performed by coupling a propeller design tool and a nonlinear optimizer to find the optimum design parameters of a fixed-pitch propeller. This optimization model aims to design the propeller behind the hull at the engine operating point with minimum fuel consumption and maximum propeller efficiency. The two main objectives of this study and the constraints are defined in a single fitness function to find the optimum values of the propeller geometry and the gearbox ratio. By considering the benefits of the single-objective over the multi-objective optimization problem, this model helps to find the optimum propeller for both defined objectives instead of only considering one of them, as in previous studies. Then, based on the optimized parameters, the propeller performance is calculated in open-water conditions. From the computed results, one can observe the importance of considering the hull–propulsor interaction in propeller selection.Mina TadrosManuel VenturaCarlos Guedes SoaresMDPI AGarticlebulk carriersingle objective optimization modelminimum fuel consumptionmaximum efficiencyMatlab and NavCadNaval architecture. Shipbuilding. Marine engineeringVM1-989OceanographyGC1-1581ENJournal of Marine Science and Engineering, Vol 9, Iss 1226, p 1226 (2021)
institution DOAJ
collection DOAJ
language EN
topic bulk carrier
single objective optimization model
minimum fuel consumption
maximum efficiency
Matlab and NavCad
Naval architecture. Shipbuilding. Marine engineering
VM1-989
Oceanography
GC1-1581
spellingShingle bulk carrier
single objective optimization model
minimum fuel consumption
maximum efficiency
Matlab and NavCad
Naval architecture. Shipbuilding. Marine engineering
VM1-989
Oceanography
GC1-1581
Mina Tadros
Manuel Ventura
Carlos Guedes Soares
Design of Propeller Series Optimizing Fuel Consumption and Propeller Efficiency
description This paper presents a comparison between different types of propellers operated in calm water to evaluate their performance behind hulls and in open-water conditions. A bulk carrier is chosen as a case study to perform the simulation and to evaluate the performance of several propeller series, namely the Wagengein B-series, Kaplan 19A, and MAU. Firstly, optimization procedures are performed by coupling a propeller design tool and a nonlinear optimizer to find the optimum design parameters of a fixed-pitch propeller. This optimization model aims to design the propeller behind the hull at the engine operating point with minimum fuel consumption and maximum propeller efficiency. The two main objectives of this study and the constraints are defined in a single fitness function to find the optimum values of the propeller geometry and the gearbox ratio. By considering the benefits of the single-objective over the multi-objective optimization problem, this model helps to find the optimum propeller for both defined objectives instead of only considering one of them, as in previous studies. Then, based on the optimized parameters, the propeller performance is calculated in open-water conditions. From the computed results, one can observe the importance of considering the hull–propulsor interaction in propeller selection.
format article
author Mina Tadros
Manuel Ventura
Carlos Guedes Soares
author_facet Mina Tadros
Manuel Ventura
Carlos Guedes Soares
author_sort Mina Tadros
title Design of Propeller Series Optimizing Fuel Consumption and Propeller Efficiency
title_short Design of Propeller Series Optimizing Fuel Consumption and Propeller Efficiency
title_full Design of Propeller Series Optimizing Fuel Consumption and Propeller Efficiency
title_fullStr Design of Propeller Series Optimizing Fuel Consumption and Propeller Efficiency
title_full_unstemmed Design of Propeller Series Optimizing Fuel Consumption and Propeller Efficiency
title_sort design of propeller series optimizing fuel consumption and propeller efficiency
publisher MDPI AG
publishDate 2021
url https://doaj.org/article/92e4cc4c25cd4e4b9e27db2397b323bf
work_keys_str_mv AT minatadros designofpropellerseriesoptimizingfuelconsumptionandpropellerefficiency
AT manuelventura designofpropellerseriesoptimizingfuelconsumptionandpropellerefficiency
AT carlosguedessoares designofpropellerseriesoptimizingfuelconsumptionandpropellerefficiency
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