Project Details
Description
The global demand of seafood is growing rapidly, but currently there is a shortage in supply due to the combined effects of over-exploitation by commercial fisheries, habitat degradation and poor water quality.
Further expansion of aquaculture, both land-based and nearshore, is limited for a variety of reasons, such as economic, socio-political, environmental, technical and resource constraints.
However, moving offshore creates significant advantages and opportunities in meeting the global demand for food especially when the aquaculture system is combined with other activities such as renewable energy production.
In fact, joint exploitation of offshore wind and wave energy resources has also a number of advantages that include:
- higher availability of produced power when swells continue after the wind has declined
- higher quality of power delivered to the grid when mixing the power from wind and wave energy
- lower structural and erection costs per MW if the two converter systems share the same base structure
- lower electric cable cost per MW by sharing the same transmission cable
- lower operation and maintenance costs
- less area and environmental impact for combined farms.
Moreover, open sea farming has evident benefits as well:
- greater water exchange leading to increased oxygen levels, reduced ammonia, improved waste dispersion
- lower impact on the benthos, due to improved waste dispersal
- more stable temperature and salinity conditions
- reduced fouling of the equipment
- better quality fish due to muscle use in stronger currents.
- reduced risk of disease.
However, a move offshore requires some innovative holding system and infrastructure design solutions in order to withstand the much higher energy environment compared to that experienced by current traditional inshore fish farming facilities.
In addition, due to its offshore location and thus the potentially limited operator access to the farm under storm conditions, there is a need to develop and implement greater mechanisation, automation and remote management of routine production operations from feeding to harvesting.
This is why The Blue Growth Farm project aims at developing and demonstrating an automated, modular and environmentally friendly multi-functional platform for open sea farm installations of the Blue Growth Industry.
The main challenges for the project consortium are:
- design for low environmental impact
-0 study solutions for the diverse interactions (wind rotor – concrete platform; concrete platform modules connection; concrete platform – cage connections; cage connections – mooring system)
- provide mitigating solutions to the different interactions between the installed technologies, fish farm and living sea environment
- Optimise / maximise production rate and profitability.
Further expansion of aquaculture, both land-based and nearshore, is limited for a variety of reasons, such as economic, socio-political, environmental, technical and resource constraints.
However, moving offshore creates significant advantages and opportunities in meeting the global demand for food especially when the aquaculture system is combined with other activities such as renewable energy production.
In fact, joint exploitation of offshore wind and wave energy resources has also a number of advantages that include:
- higher availability of produced power when swells continue after the wind has declined
- higher quality of power delivered to the grid when mixing the power from wind and wave energy
- lower structural and erection costs per MW if the two converter systems share the same base structure
- lower electric cable cost per MW by sharing the same transmission cable
- lower operation and maintenance costs
- less area and environmental impact for combined farms.
Moreover, open sea farming has evident benefits as well:
- greater water exchange leading to increased oxygen levels, reduced ammonia, improved waste dispersion
- lower impact on the benthos, due to improved waste dispersal
- more stable temperature and salinity conditions
- reduced fouling of the equipment
- better quality fish due to muscle use in stronger currents.
- reduced risk of disease.
However, a move offshore requires some innovative holding system and infrastructure design solutions in order to withstand the much higher energy environment compared to that experienced by current traditional inshore fish farming facilities.
In addition, due to its offshore location and thus the potentially limited operator access to the farm under storm conditions, there is a need to develop and implement greater mechanisation, automation and remote management of routine production operations from feeding to harvesting.
This is why The Blue Growth Farm project aims at developing and demonstrating an automated, modular and environmentally friendly multi-functional platform for open sea farm installations of the Blue Growth Industry.
The main challenges for the project consortium are:
- design for low environmental impact
-0 study solutions for the diverse interactions (wind rotor – concrete platform; concrete platform modules connection; concrete platform – cage connections; cage connections – mooring system)
- provide mitigating solutions to the different interactions between the installed technologies, fish farm and living sea environment
- Optimise / maximise production rate and profitability.
| Status | Finished |
|---|---|
| Effective start/end date | 1/07/18 → 1/01/22 |
Fingerprint
Explore the research topics touched on by this project. These labels are generated based on the underlying awards/grants. Together they form a unique fingerprint.
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Field experiment on a scaled prototype of a floating multi-purpose offshore platform: dynamic response determination with uncertainty quantification
Ruzzo, C., Malara, G., Collu, M., Santoro, A., Fiamma, V., Scialò, A., Lagasco, F. & Arena, F., 31 Dec 2022, In: Applied Ocean Research. 129, 16 p., 103402.Research output: Contribution to journal › Article › peer-review
20 Link opens in a new tab Citations (Scopus) -
Analysis of the coupled dynamic response of an offshore floating multi-purpose platform for the blue economy
Li, L., Ruzzo, C., Collu, M., Gao, Y., Failla, G. & Arena, F., 1 Dec 2020, In: Ocean Engineering. 217, 107943.Research output: Contribution to journal › Article › peer-review
Open AccessFile63 Link opens in a new tab Citations (Scopus)38 Downloads (Pure) -
Development and validation of a coupled numerical model for offshore floating multi-purpose platforms
Li, L., Collu, M., Gao, Y., Ruzzo, C., Arena, F., Taruffi, F., Muggiasca, S. & Belloli, M., 15 Oct 2020. 8 p.Research output: Contribution to conference › Proceeding › peer-review
Open AccessFile35 Downloads (Pure)