The available database comprises research projects in Fisheries, Aquaculture, Seafood Processing and Marine Biotechnology active in the time period 2003-2022.
BlueBio is an ERA-NET COFUND created to directly identify new and improve existing ways of bringing bio-based products and services to the market and find new ways of creating value from in the blue bioeconomy.

More information on the BlueBio project and participating funding organizations is available on the BlueBio website: www.bluebioeconomy.eu

Last Update: 2024/06/19

SPARE-SEA
Aquaculture
Marine Biotechnology
Environmental Spread and Persistence of Antibiotic REsistances in aquatic Systems Exposed to oyster Aquaculture
International Cooperation
National-European
K. Mathias Wegner
NA
AWI - Alfred Wegener Institute for Polar and Marine Research (Germany)
IFREMER - French Research Institute for Exploitation of the Sea (France) - LOBA Customer Experience Design (Portugal)CNRS - National Centre for Scientific Research (France)CNR-IRSA - National Research Council; Water Research Institute (Italy)UNIGE - University of Genoa (Italy)NA - University of Montpellier (France)
2021
2024
€ 1,350,000
https://www.era-learn.eu/network-information/networks/aquaticpollutants/1st-joint-call-2020/environmental-spread-and-persistence-of-antibiotic-resistances-in-aquatic-systems-exposed-to-oyster-aquaculture
Aquaculture has been identified as a gateway for antibiotic resistance (AR) spread, but little is known of AR in the oyster aquaculture environment. The biggest oyster aquaculture industry cultivates the Pacific oyster Crassostrea gigas, which is cultured in marine coastal areas that are often contaminated by AR determinants (antibiotics, resistance genes, and resistant bacteria) and other pollutants. Moreover, antibiotics are used in hatcheries, and since oysters accumulate bacteria, consumption of raw oysters can be a vector for AR into human microbiomes. Also AR transmission to other species threatens the safety of coastal marine systems, the sustainability of shellfish farming and human health. By combining human, animal and environmental health, SPARE-SEA implements a One Health approach to identify environmental drivers and pathways of AR spread within and between environmental compartments including known and emerging pathogens. By investigating the cumulative effects of human use of coastal ecosystems along multiple gradients (e.g oyster farming intensity and agrochemical pollutant run-off) on the enrichment of AR in the oyster bio-reactor and its subsequent transfer routes within anthroposized coastal environments, we will link objectives of all three JPIs involved and can determine the future research lines in the field of AR in bivalve aquaculture. The objective of SPARE-SEA is to assess the risk of ARG transfer in oyster aquaculture along a gradient of usage intensity and agrochemical contaminant input. To achieve this we will answer the following questions: 1) How does early larval exposure change the oyster resistome in comparison to environmental pressures and does either enrich known and emerging pathogens? 2) Do human activities, like the input of chemical contaminants, activate mobile genetic elements that can carry antibiotic and heavy metal resistance genes? 3) Is the transfer of ARGs enhanced in the oyster bioreactor and what are the conditions that select for ARB in the oyster life and production cycle? 4) Does AR facilitate the emergence of pathogens and pose a serious threat for animal, human and environmental health? 5) Which environmental compartments and human activities pose risks for enhanced ARGs transfer? And how can the compartment specific transfers of ARGs be linked in a one health concept to explain the where, when and why of disease emergence?
Biology; Pollution; Environmental impact; Shellfish; Mollusc; Oyster; Open sea aquaculture; Genetic; Bivalve; Impacts; Anthropic activity;
Central North Sea (27.IVb)
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If there is any incorrect or missing information on this project please access here or contact bluebio.database@irbim.cnr.it
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