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Predicting the effect of hull roughness on ship resistance using a fully turbulent flow channel and CFD

Predicting the effect of hull roughness on ship resistance using a fully turbulent flow channel and CFD
Predicting the effect of hull roughness on ship resistance using a fully turbulent flow channel and CFD
The effects of poor hull surface conditions on fuel consumption and emissions are well-known yet not thoroughly understood. Therefore, the present study investigates the effect of widely adopted fouling control coatings and mimicked biofouling on a full-scale representative ship, the KRISO Containership (KCS). Different surfaces were tested in the Fully turbulent Flow Channel (FTFC) of the University of Strathclyde (including a novel hard foul-release coating, commonly used antifouling, barrier resin, soft foul-release coatings, and sandpaper-like surfaces). Then, the corresponding roughness functions developed for the test surfaces were embedded in Computational Fluid Dynamics (CFD) simulations using the modified wall function approach. Interestingly, the numerical predictions on the KCS hull showed that the novel hard foul-release coating tested had better hydrodynamic performance than the smooth case (maximum 3.6% decrease in the effective power requirements). Eventually, the present study confirmed the practicality of the FTFC used in combination with CFD-based studies to predict the effects of hull roughness on ship resistance and powering.
109-118
Istanbul Technical University
Ravenna, Roberto
88acdc60-7b8c-4493-8f67-cc51e4dfe505
Ingham, Ryan
d5199d58-c417-4dbe-9e99-1a0b85754380
Song, Soonseok
5eab39f4-35ac-42b5-b01b-8c4a9d53f2b1
Johnston, Clifton
03e1848e-4d2f-43ff-8f13-58a77e440bb4
Muscat-Fenech, Claire De Marco
cea2b583-5b6a-4205-b15f-22fe1594fcb4
Tezdogan, Tahsin
7e7328e2-4185-4052-8e9a-53fd81c98909
Atlar, Mehmet
c52017ce-cd89-43d6-b69b-79f58eabe98b
Demirel, Yigit Kemal
44a59a7c-8ba9-481d-be96-d50c46fbdf34
Goren, Omer
Danisman, Devrim Bulent
Koksal, Gagatay Sabri
Ravenna, Roberto
88acdc60-7b8c-4493-8f67-cc51e4dfe505
Ingham, Ryan
d5199d58-c417-4dbe-9e99-1a0b85754380
Song, Soonseok
5eab39f4-35ac-42b5-b01b-8c4a9d53f2b1
Johnston, Clifton
03e1848e-4d2f-43ff-8f13-58a77e440bb4
Muscat-Fenech, Claire De Marco
cea2b583-5b6a-4205-b15f-22fe1594fcb4
Tezdogan, Tahsin
7e7328e2-4185-4052-8e9a-53fd81c98909
Atlar, Mehmet
c52017ce-cd89-43d6-b69b-79f58eabe98b
Demirel, Yigit Kemal
44a59a7c-8ba9-481d-be96-d50c46fbdf34
Goren, Omer
Danisman, Devrim Bulent
Koksal, Gagatay Sabri

Ravenna, Roberto, Ingham, Ryan, Song, Soonseok, Johnston, Clifton, Muscat-Fenech, Claire De Marco, Tezdogan, Tahsin, Atlar, Mehmet and Demirel, Yigit Kemal (2022) Predicting the effect of hull roughness on ship resistance using a fully turbulent flow channel and CFD. Goren, Omer, Danisman, Devrim Bulent and Koksal, Gagatay Sabri (eds.) In 4th International Meeting Proceedings: Ship Design & Optimization and Energy Efficient Devices for Fuel Economy. Istanbul Technical University. pp. 109-118 .

Record type: Conference or Workshop Item (Paper)

Abstract

The effects of poor hull surface conditions on fuel consumption and emissions are well-known yet not thoroughly understood. Therefore, the present study investigates the effect of widely adopted fouling control coatings and mimicked biofouling on a full-scale representative ship, the KRISO Containership (KCS). Different surfaces were tested in the Fully turbulent Flow Channel (FTFC) of the University of Strathclyde (including a novel hard foul-release coating, commonly used antifouling, barrier resin, soft foul-release coatings, and sandpaper-like surfaces). Then, the corresponding roughness functions developed for the test surfaces were embedded in Computational Fluid Dynamics (CFD) simulations using the modified wall function approach. Interestingly, the numerical predictions on the KCS hull showed that the novel hard foul-release coating tested had better hydrodynamic performance than the smooth case (maximum 3.6% decrease in the effective power requirements). Eventually, the present study confirmed the practicality of the FTFC used in combination with CFD-based studies to predict the effects of hull roughness on ship resistance and powering.

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More information

Published date: 15 December 2022
Venue - Dates: 4th International Meeting - Ship Design & Optimization and Energy Efficient Devices for Fuel Economy, , Istanbul, Turkey, 2022-12-15 - 2022-12-16

Identifiers

Local EPrints ID: 499902
URI: http://eprints.soton.ac.uk/id/eprint/499902
PURE UUID: 44911e9b-f0d2-4bd9-bdec-52068e200032
ORCID for Tahsin Tezdogan: ORCID iD orcid.org/0000-0002-7032-3038

Catalogue record

Date deposited: 08 Apr 2025 16:35
Last modified: 09 Apr 2025 02:06

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Contributors

Author: Roberto Ravenna
Author: Ryan Ingham
Author: Soonseok Song
Author: Clifton Johnston
Author: Claire De Marco Muscat-Fenech
Author: Tahsin Tezdogan ORCID iD
Author: Mehmet Atlar
Author: Yigit Kemal Demirel
Editor: Omer Goren
Editor: Devrim Bulent Danisman
Editor: Gagatay Sabri Koksal

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