TEAMER: Technical Support for Aquantis (Materials): CRD-21-17762-0
The Aquantis Tidal Power Tug is a unique synthesis of best-available technologies and materials configured as a novel spar vessel to create an optimal platform for tidal stream energy conversion. The Power Tug utilizes an upstream-facing horizontal, 2-bladed rotor. To drive down capital costs and extend the life of the Power Tug, Aquantis proposes to employ new materials for the blades that are both less expensive than current state-of-the-art materials and are potentially better suited for survival in a submerged, seawater environment. This project provided technical assistance by evaluating mechanical properties of a novel geopolymer material for application in tidal stream energy conversion systems. Coupons from a novel geopolymer material were tested in a load frame to characterize material properties.
This work established characteristic properties of a geopolymer material under dry and saturated conditions through material coupon testing. Material coupons were tested to characterize properties including: a) tensile strength, b) compression strength, c) flexural strength, d) modulus of elasticity, and e) fatigue strength at varying load levels. The types of material tests performed were guided by the characteristics required to validate material properties for use in full-scale structures. This characterization of material properties while considering the demands of a full-scale structure is a necessary step in research and development that can enable the use of geopolymer materials in tidal stream energy conversion systems.
This submission includes:
- a ReadMe file describing the contents and subfile organization of the coupon testing data .zip file
- geopolymer coupon testing data including photos of testing set-ups, raw data, and summaries of flexural testing, compression testing, confined compression testing, and tensile and shear testing
Citation Formats
TY - DATA
AB - The Aquantis Tidal Power Tug is a unique synthesis of best-available technologies and materials configured as a novel spar vessel to create an optimal platform for tidal stream energy conversion. The Power Tug utilizes an upstream-facing horizontal, 2-bladed rotor. To drive down capital costs and extend the life of the Power Tug, Aquantis proposes to employ new materials for the blades that are both less expensive than current state-of-the-art materials and are potentially better suited for survival in a submerged, seawater environment. This project provided technical assistance by evaluating mechanical properties of a novel geopolymer material for application in tidal stream energy conversion systems. Coupons from a novel geopolymer material were tested in a load frame to characterize material properties.
This work established characteristic properties of a geopolymer material under dry and saturated conditions through material coupon testing. Material coupons were tested to characterize properties including: a) tensile strength, b) compression strength, c) flexural strength, d) modulus of elasticity, and e) fatigue strength at varying load levels. The types of material tests performed were guided by the characteristics required to validate material properties for use in full-scale structures. This characterization of material properties while considering the demands of a full-scale structure is a necessary step in research and development that can enable the use of geopolymer materials in tidal stream energy conversion systems.
This submission includes:
- a ReadMe file describing the contents and subfile organization of the coupon testing data .zip file
- geopolymer coupon testing data including photos of testing set-ups, raw data, and summaries of flexural testing, compression testing, confined compression testing, and tensile and shear testing
AU - Swales, Henry
A2 - Hughes, Scott
A3 - Murdy, Paul
DB - Open Energy Data Initiative (OEDI)
DP - Open EI | National Renewable Energy Laboratory
DO -
KW - marine
KW - energy
KW - TEAMER
KW - Aquantis
KW - Tidal Power Tug
KW - technology
KW - material
KW - spar vessel
KW - tidal stream energy
KW - energy conversion
KW - coupon
KW - technical assistance
KW - mechanical property evaluation
KW - geopolymer material
KW - material properties
KW - compression testing
KW - flexural testing
KW - confined compression testing
KW - tensile and shear testing
KW - Excel
KW - raw data
KW - processed data
KW - results summary
KW - coupon results
LA - English
DA - 2024/10/17
PY - 2024
PB - Aquantis, Inc.
T1 - TEAMER: Technical Support for Aquantis (Materials): CRD-21-17762-0
UR - https://data.openei.org/submissions/8445
ER -
Swales, Henry, et al. TEAMER: Technical Support for Aquantis (Materials): CRD-21-17762-0. Aquantis, Inc., 17 October, 2024, MHKDR. https://mhkdr.openei.org/submissions/574.
Swales, H., Hughes, S., & Murdy, P. (2024). TEAMER: Technical Support for Aquantis (Materials): CRD-21-17762-0. [Data set]. MHKDR. Aquantis, Inc.. https://mhkdr.openei.org/submissions/574
Swales, Henry, Scott Hughes, and Paul Murdy. TEAMER: Technical Support for Aquantis (Materials): CRD-21-17762-0. Aquantis, Inc., October, 17, 2024. Distributed by MHKDR. https://mhkdr.openei.org/submissions/574
@misc{OEDI_Dataset_8445,
title = {TEAMER: Technical Support for Aquantis (Materials): CRD-21-17762-0},
author = {Swales, Henry and Hughes, Scott and Murdy, Paul},
abstractNote = {The Aquantis Tidal Power Tug is a unique synthesis of best-available technologies and materials configured as a novel spar vessel to create an optimal platform for tidal stream energy conversion. The Power Tug utilizes an upstream-facing horizontal, 2-bladed rotor. To drive down capital costs and extend the life of the Power Tug, Aquantis proposes to employ new materials for the blades that are both less expensive than current state-of-the-art materials and are potentially better suited for survival in a submerged, seawater environment. This project provided technical assistance by evaluating mechanical properties of a novel geopolymer material for application in tidal stream energy conversion systems. Coupons from a novel geopolymer material were tested in a load frame to characterize material properties.
This work established characteristic properties of a geopolymer material under dry and saturated conditions through material coupon testing. Material coupons were tested to characterize properties including: a) tensile strength, b) compression strength, c) flexural strength, d) modulus of elasticity, and e) fatigue strength at varying load levels. The types of material tests performed were guided by the characteristics required to validate material properties for use in full-scale structures. This characterization of material properties while considering the demands of a full-scale structure is a necessary step in research and development that can enable the use of geopolymer materials in tidal stream energy conversion systems.
This submission includes:
- a ReadMe file describing the contents and subfile organization of the coupon testing data .zip file
- geopolymer coupon testing data including photos of testing set-ups, raw data, and summaries of flexural testing, compression testing, confined compression testing, and tensile and shear testing
},
url = {https://mhkdr.openei.org/submissions/574},
year = {2024},
howpublished = {MHKDR, Aquantis, Inc., https://mhkdr.openei.org/submissions/574},
note = {Accessed: 2025-07-09}
}
Details
Data from Oct 17, 2024
Last updated Jul 8, 2025
Submitted Oct 17, 2024
Organization
Aquantis, Inc.
Contact
Henry Swales
Authors
Original Source
https://mhkdr.openei.org/submissions/574Research Areas
Keywords
marine, energy, TEAMER, Aquantis, Tidal Power Tug, technology, material, spar vessel, tidal stream energy, energy conversion, coupon, technical assistance, mechanical property evaluation, geopolymer material, material properties, compression testing, flexural testing, confined compression testing, tensile and shear testing, Excel, raw data, processed data, results summary, coupon resultsDOE Project Details
Project Name Testing Expertise and Access for Marine Energy Research
Project Lead Lauren Ruedy
Project Number EE0008895