Javascript must be enabled for the correct page display

Impact of Varied Cable Lengths on the Kinematics of a Point-Absorber Wave Energy Converter Model: An Experimental Investigation

Koša, Demeter (2024) Impact of Varied Cable Lengths on the Kinematics of a Point-Absorber Wave Energy Converter Model: An Experimental Investigation. Integration Project, Industrial Engineering and Management.

[img]
Preview
Text
Impact of Varied Cable Lengths on the Kinematics of a Point-Absorber Wave Energy Converter Model - An Experimental Investigation - Demeter Kosa S4567269.pdf

Download (16MB) | Preview
[img] Text
toestemming.pdf
Restricted to Registered users only

Download (136kB)

Abstract

Ocean waves are an enticingly energy-dense renewable energy resource, yet Wave Energy Capture (WEC) systems remain an immature and underutilised technology. In their numerical study, [Asiikkis et al., 2023] found that cable length may be an effective tuning parameter for the maximisation of surge amplitude, for a Surge-based point-absorber WEC. The research in this paper attempts to experimentally validate the theoretical results, as well as uncover and explain any other trends of behaviour that are observed. The research is conducted by constructing a model moored floater and subjecting it to various cable length and wave conditions in a wave flume and measuring its response. Significant evidence indicating an indirect causal connection between cable length and surge amplitude was found, where cable length influenced the floaters’ harmonic frequency, maximising surge amplitude at harmonic number = 0.5. Therefore, cable length was shown to be an effective tuning parameter for the optimisation of surge behaviour, for the case where maximal surge amplitude is desirable. Further behavioural trends of interest were also discovered, and explanations and potential applications of the findings are discussed. Overall, the findings detailed in this study serve two purposes: to reinforce the prospect of using cable length as a tuning parameter for future surge-based PA-WECs, and to invite further research to explore the persistently ill-understood concepts.

Item Type: Thesis (Integration Project)
Supervisor name: Vakis, A. and Mohebbi, M. and Asiikkis, A.
Degree programme: Industrial Engineering and Management
Thesis type: Integration Project
Language: English
Date Deposited: 07 Feb 2024 09:14
Last Modified: 07 Feb 2024 09:14
URI: https://fse.studenttheses.ub.rug.nl/id/eprint/31910

Actions (login required)

View Item View Item