TEAMER: FOSWEC Mooring Modeling and Analysis, Post Access Report and Data

Publicly accessible License 

Floating oscillating surge wave energy converters (FOSWECs) offer several advantages over bottom-hinged oscillating surge wave energy converters, including large wave potential at deep-water sites with fewer permitting and environmental concerns outside territorial waters. As a team, Stevens Institute of Technology, Virginia Tech and Resolute Marine Energy are designing a 100 kW FOSWEC with DOE support (2020-2021) for the PacWave test site "PacWave". The proposed FOSWEC consists of a floating platform, two pivoting flaps, and an innovative power-take-off (PTO). The distance between the two flaps is around half the typical wavelength, resulting in out-of-phase motion and a reduction in motion of the frame and mooring loads.

The overall goal of the project is to design, build, deploy and analyze a 1:2 scale (100-kW annual averaged electrical power output) device with reduced levelized cost of energy (LCOE) and peak-to-average power ratio, through the co-design and control of the PTO, WEC, and floating platform.

This submission includes a Post Access Report and data for the project of Mooring Modeling and Analysis for Floating Oscillating Surge Wave Energy Converter that Powers Marine Aquaculture of RFTS2 (request for technical support). The data are used to generate all figures in the Post Access Report. Project was a collaboration between Virginia Tech and the National Renewable Energy Lab, with funding from TEAMER.

Mooring Line Stiffness 100000 Data.mat

Mooring line stiffness 100000 configuration data. Norm K 100000
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Mooring Line Stiffness 110000 Data.mat

Mooring line stiffness 110000 configuration data. Norm K 110000
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Mooring Line Stiffness 120000 Data.mat

Mooring line stiffness 120000 configuration data. Norm K 120000
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Mooring Line Stiffness 40000 Data.mat

Mooring line stiffness 40000 configuration data. Norm K 40000
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Mooring Line Stiffness 50000 Data.mat

Mooring line stiffness 50000 configuration data. Norm K 50000
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Mooring Line Stiffness 60000 Data.mat

Mooring line stiffness 60000 configuration data. Norm K 60000
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Mooring Line Stiffness 70000 Data.mat

Mooring line stiffness 70000 configuration data. Norm K 70000
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Mooring Line Stiffness 80000 Data.mat

Mooring line stiffness 80000 configuration data. Norm K 80000
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Mooring Line Stiffness 90000 Data.mat

Mooring line stiffness 90000 configuration data. Norm K 90000
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TEAMER Test Plan Post Access Report VT.docx

Post Access Report for the project.
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Citation Formats

Virginia Tech . (2022). TEAMER: FOSWEC Mooring Modeling and Analysis, Post Access Report and Data [data set]. Retrieved from https://dx.doi.org/10.15473/1991391.
Export Citation to RIS
Housner, Stein, Husain, Salman, Ogden, David, Wu, Xian, and Zuo, Lei. TEAMER: FOSWEC Mooring Modeling and Analysis, Post Access Report and Data. United States: N.p., 14 Jun, 2022. Web. doi: 10.15473/1991391.
Housner, Stein, Husain, Salman, Ogden, David, Wu, Xian, & Zuo, Lei. TEAMER: FOSWEC Mooring Modeling and Analysis, Post Access Report and Data. United States. https://dx.doi.org/10.15473/1991391
Housner, Stein, Husain, Salman, Ogden, David, Wu, Xian, and Zuo, Lei. 2022. "TEAMER: FOSWEC Mooring Modeling and Analysis, Post Access Report and Data". United States. https://dx.doi.org/10.15473/1991391. https://mhkdr.openei.org/submissions/478.
@div{oedi_478, title = {TEAMER: FOSWEC Mooring Modeling and Analysis, Post Access Report and Data}, author = {Housner, Stein, Husain, Salman, Ogden, David, Wu, Xian, and Zuo, Lei.}, abstractNote = {Floating oscillating surge wave energy converters (FOSWECs) offer several advantages over bottom-hinged oscillating surge wave energy converters, including large wave potential at deep-water sites with fewer permitting and environmental concerns outside territorial waters. As a team, Stevens Institute of Technology, Virginia Tech and Resolute Marine Energy are designing a 100 kW FOSWEC with DOE support (2020-2021) for the PacWave test site "PacWave". The proposed FOSWEC consists of a floating platform, two pivoting flaps, and an innovative power-take-off (PTO). The distance between the two flaps is around half the typical wavelength, resulting in out-of-phase motion and a reduction in motion of the frame and mooring loads.

The overall goal of the project is to design, build, deploy and analyze a 1:2 scale (100-kW annual averaged electrical power output) device with reduced levelized cost of energy (LCOE) and peak-to-average power ratio, through the co-design and control of the PTO, WEC, and floating platform.

This submission includes a Post Access Report and data for the project of Mooring Modeling and Analysis for Floating Oscillating Surge Wave Energy Converter that Powers Marine Aquaculture of RFTS2 (request for technical support). The data are used to generate all figures in the Post Access Report. Project was a collaboration between Virginia Tech and the National Renewable Energy Lab, with funding from TEAMER.}, doi = {10.15473/1991391}, url = {https://mhkdr.openei.org/submissions/478}, journal = {}, number = , volume = , place = {United States}, year = {2022}, month = {06}}
https://dx.doi.org/10.15473/1991391

Details

Data from Jun 14, 2022

Last updated Dec 12, 2024

Submitted Apr 14, 2023

Organization

Virginia Tech

Contact

Xian Wu

xianw@vt.edu

858.203.8858

Authors

Stein Housner

National Renewable Energy Laboratory

Salman Husain

National Renewable Energy Laboratory

David Ogden

National Renewable Energy Laboratory

Xian Wu

Virginia Tech

Lei Zuo

Virginia Tech

DOE Project Details

Project Name Testing Expertise and Access for Marine Energy Research

Project Lead Lauren Ruedy

Project Number EE0008895

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