Identifying fit-for purpose methods for monitoring fish communities

被引:4
|
作者
Hammerl, Constanze [1 ]
Moellmann, Christian [2 ]
Oesterwind, Daniel [1 ]
机构
[1] Thunen Inst Balt Sea Fisheries, Rostock, Germany
[2] Univ Hamburg, Ctr Earth Syst Res & Sustainabil CEN, Inst Marine Ecosyst & Fisheries Sci IFM, Hamburg, Germany
关键词
underwater video; passive gears; hydroacoustics; marine protected areas; eDNA; offshore wind farms; sustainable fisheries; impact assessment; MARINE PROTECTED AREAS; ENVIRONMENTAL DNA; STEREO-VIDEO; RELATIVE ABUNDANCE; SAMPLING GEARS; REEF; CAMERA; FISHERIES; SNAPPER; TRAPS;
D O I
10.3389/fmars.2023.1322367
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
Scientific monitoring is a fundamental basis of scientific advice. Among others, monitoring aims at contributing towards understanding the influence of anthropogenic use (e.g. fisheries), the health of a stock and individuum and effectiveness of management and conservation measures (e.g. MPAs). Monitoring of demersal and benthic fish communities is often based on invasive methods like bottom trawling, however in some cases less invasive methods might be available. The need for developing alternative and less invasive monitoring methods is supported by an increasing number of Marine Protected Areas and Windfarms where traditional methods such as trawls cannot be deployed due to conservational or technical and safety reasons. To support the development of new monitoring concepts, we conducted a literature review to identify limits and opportunities of methods that are already available. Furthermore, we present a fit-for purpose guide that can help identifying the appropriate method for individual purposes. We defined eight different methods which were analyzed using four different criteria and listed their advantages and disadvantages. We further apply this guide to monitoring in Marine Protected Areas in the Baltic Sea as a case study, indicating that besides traditional bottom trawling, alternative and less invasive methods could be sufficient for specific research purposes. We therefore, encourage scientists and managers to consider alternative data collection methods to minimize environmental impact of scientific sampling. However, our results also indicate that most of the methods still need further refinement especially regarding sampling design, standardization of methods and comparability with established survey methods.
引用
收藏
页数:13
相关论文
共 50 条
  • [1] Fit-for purpose water technology of selective desalination
    Lin, Yupo
    ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY, 2019, 258
  • [2] Fit-for purpose use of mouse models to improve predictivity of cancer therapeutics evaluation
    Wartha, K.
    Herting, F.
    Hasmann, M.
    PHARMACOLOGY & THERAPEUTICS, 2014, 142 (03) : 351 - 361
  • [3] Studying Children's Experiences in Interactions With Clinicians: Identifying Methods Fit for Purpose
    Bryan, Gemma
    Bluebond-Langner, Myra
    Kelly, Daniel
    Kumpunen, Stephanie
    Oulton, Kate
    Gibson, Faith
    QUALITATIVE HEALTH RESEARCH, 2019, 29 (03) : 393 - 403
  • [4] Priority substance monitoring - Are the existing European standard methods fit for purpose?
    Lepom, P.
    Borchers, U.
    Hanke, G.
    Proceeding of the 9th International Conference on Environmental Science and Technology Vol B - Poster Presentations, 2005, : B509 - B514
  • [5] AN EXAMPLE OF FIT-FOR PURPOSE USE OF MATERIALS IN ROMAN ARCHITECTURE: P TEMPLE, SIDE, ANTALYA/TURKEY
    Heinz, Gamze Kaymak
    12TH INTERNATIONAL CONFERENCE ON STRUCTURAL ANALYSIS OF HISTORICAL CONSTRUCTIONS (SAHC 2021), 2021, : 233 - 244
  • [6] A review of guidance on fish consumption in pregnancy: is it fit for purpose?
    Taylor, Caroline M.
    Emmett, Pauline M.
    Emond, Alan M.
    Golding, Jean
    PUBLIC HEALTH NUTRITION, 2018, 21 (11) : 2149 - 2159
  • [7] A fit-for purpose procedure for lead isotopic ratio determination in crude oil, asphaltene and kerogen samples by MC-ICPMS
    Ortega, Georgia Sanabria
    Pecheyran, Christophe
    Berail, Sylvain
    Donard, Olivier F. X.
    JOURNAL OF ANALYTICAL ATOMIC SPECTROMETRY, 2012, 27 (09) : 1447 - 1456
  • [8] How many fish? Comparison of two underwater visual sampling methods for monitoring fish communities
    Thanopoulou, Zoi
    Sini, Maria
    Vatikiotis, Konstantinos
    Katsoupis, Christos
    Dimitrakopoulos, Panayiotis G.
    Katsanevakis, Stelios
    PEERJ, 2018, 6
  • [9] Understanding and managing fish populations: keeping the toolbox fit for purpose
    Paris, J. R.
    Sherman, K. D.
    Bell, E.
    Boulenger, C.
    Delord, C.
    El-Mahdi, M. B. M.
    Fairfield, E. A.
    Griffiths, A. M.
    Roberts, C. Gutmann
    Hedger, R. D.
    Holman, L. E.
    Hooper, L. H.
    Humphries, N. E.
    Katsiadaki, I.
    King, R. A.
    Lemopoulos, A.
    Payne, C. J.
    Peirson, G.
    Richter, K. K.
    Taylor, M. I.
    Trueman, C. N.
    Hayden, B.
    Stevens, J. R.
    JOURNAL OF FISH BIOLOGY, 2018, 92 (03) : 727 - 751
  • [10] Understanding and managing fish populations: keeping the toolbox fit for purpose
    Paris, J. R.
    Sherman, K. D.
    Bell, E.
    Boulenger, C.
    Delord, C.
    El-Mahdi, M. B.
    Fairfield, E. A.
    Griffiths, A. M.
    Roberts, Gutmann C.
    Hedger, R. D.
    Holman, L. E.
    Hooper, L. H.
    Humphries, N. E.
    Katsiadaki, I.
    King, R. A.
    Lemopoulos, A.
    Payne, C. J.
    Peirson, G.
    Richter, K. K.
    Taylor, M. I.
    Trueman, C. N.
    Hayden, B.
    Stevens, J. R.
    JOURNAL OF FISH BIOLOGY, 2018, 92 (06) : 2049 - 2049