Submit a preprint

Turnover statistics

Average time to find at least 2 reviewers after submission = 26 days (median = 17)

Average time from submission to 1st decision = 68 days (median = 57)

 

 

49

Molybdate delays sulphide formation in the sediment and transfer to the bulk liquid in a model shrimp ponduse asterix (*) to get italics
Funda Torun, Barbara Hostins, Peter De Schryver, Nico Boon, Jo De VriezePlease use the format "First name initials family name" as in "Marie S. Curie, Niels H. D. Bohr, Albert Einstein, John R. R. Tolkien, Donna T. Strickland"
2024
<p>Shrimp are commonly cultured in earthen aquaculture ponds where organic-rich uneaten feed and faeces accumulate on and in the sediment to form anaerobic zones. Since the pond water is rich in sulphate, these anaerobic conditions eventually lead to the production of sulphide. Sulphides are toxic and even lethal to the shrimp that live on the pond sediment, but physicochemical and microbial reactions that occur during the accumulation of organic waste and the subsequent formation of sulphide in shrimp pond sediments remain unclear. Molybdate treatment is a promising strategy to inhibit sulphate reduction, thus, preventing sulphide accumulation. We used an experimental shrimp pond model to simulate the organic waste accumulation and sulphide formation during the final 61 days of a full shrimp growth cycle. Sodium molybdate (5 and 25 mg/L Na2MoO4.2H2O) was applied as a preventive strategy to control sulphide production before oxygen depletion. Molybdate addition partially mitigated H2S production in the sediment, and delayed its transfer to the bulk liquid by pushing the higher sulphide concentration zone towards deeper sediment layers. Molybdate treatment at 25 mg/L significantly impacted the overall microbial community composition and treated samples (5 and 25 mg/L molybdate) had about 50% higher relative abundance of sulphate reducing bacteria than the control (no molybdate) treatment. In conclusion, molybdate has the potential to work as mitigation strategy against sulphide accumulation in the sediment during shrimp growth by directly steering the microbial community in a shrimp pond system.</p>
https://zenodo.org/records/10149235You should fill this box only if you chose 'All or part of the results presented in this preprint are based on data'. URL must start with http:// or https://
https://zenodo.org/records/10149235You should fill this box only if you chose 'Scripts were used to obtain or analyze the results'. URL must start with http:// or https://
You should fill this box only if you chose 'Codes have been used in this study'. URL must start with http:// or https://
Aquaculture, molybdate, shrimp growth, sulphate reduction, sulphide toxicity
NonePlease indicate the methods that may require specialised expertise during the peer review process (use a comma to separate various required expertises).
Microbial biotechnology, Microbial ecology and environmental microbiology, Microbiomes
Julia Vierheilig suggested: Alexander Loy: alexander.loy@univie.ac.at, Julia Vierheilig suggested: Bela Hausmann: bela.hausmann@meduniwien.ac.at, Julia Vierheilig suggested: Petra Pjevac: petra.pjevac@univie.ac.at, Dimitrios Karpouzas suggested: I do not know any alternative people since the paper is way out of my expertise No need for them to be recommenders of PCIMicrobiol. Please do not suggest reviewers for whom there might be a conflict of interest. Reviewers are not allowed to review preprints written by close colleagues (with whom they have published in the last four years, with whom they have received joint funding in the last four years, or with whom they are currently writing a manuscript, or submitting a grant proposal), or by family members, friends, or anyone for whom bias might affect the nature of the review - see the code of conduct
e.g. John Doe [john@doe.com]
2023-11-20 12:08:51
Roey Angel