Sampling Pelagic Marine Organisms

Marine life remains far less well documented than terrestrial biodiversity. The main reason resides in the vastness of the ocean. Ocean waters, with an average depth of ≈3,800 m, cover 71% of the world’s surface. The difficult access, the complexity of the logistics (any study below the top few mete...

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Main Authors: Pastorinho, M. Ramiro, Pais, Ricardo
Other Authors: De-Sheng, Pei, Junaid, Muhammad
Format: Book Part
Language:Portuguese
Published: Bentham Science 2019
Subjects:
Online Access:http://hdl.handle.net/10174/27589
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spelling ftunivevora:oai:dspace.uevora.pt:10174/27589 2023-09-05T13:22:16+02:00 Sampling Pelagic Marine Organisms Pastorinho, M. Ramiro Pais, Ricardo De-Sheng, Pei Junaid, Muhammad 2019 http://hdl.handle.net/10174/27589 por por Bentham Science Ricardo Teles Pais and M. Ramiro Pastorinho (2019). Sampling Pelagic Marine Organisms. In De-Sheng Pei and Muhammad Junaid (Eds.), Marine Ecology: Current and Future Developments, vol. 1, p. 12-36, Bentham Science.ISBN 9811412685 9811412685 http://hdl.handle.net/10174/27589 rpastorinho@uevora.pt nd 223 openAccess bookPart 2019 ftunivevora 2023-08-14T17:46:14Z Marine life remains far less well documented than terrestrial biodiversity. The main reason resides in the vastness of the ocean. Ocean waters, with an average depth of ≈3,800 m, cover 71% of the world’s surface. The difficult access, the complexity of the logistics (any study below the top few meters of the ocean requires large means, specialized personnel, and equipment), and the high cost of research have determined the majority of studies being performed in the terrestrial environment. However, in recent times, this severe imbalance has started to reverse. This is mainly due to the implementation of supra-governmental cooperation programs. Due to human-driven ecosystems alteration, over-fishing, ocean acidification, and chemical pollution (together with other threats), multiple marine species are endangered, so this effort is more than ever relevant and eminently urgent. Recently, the Global Ocean Observing System (GOOS) has proposed, the development of an integrated framework for continued and systematic ocean observation. This framework is based on Essential Ocean Variables (EOVs) aiming to provide a credible response to scientific and societal issues, a high feasibility for sustained observation, and cost-effectiveness. Ecosystem EOVs have been developed. In this framework, biodiversity will be assessed based on the status of ecosystem components, nominate phytoplankton biomass and diversity, zooplankton biomass and diversity, fish abundance and distribution (as well as marine turtle, bird and mammal abundance and distribution). Recommendations for each EOV, including what measurements are to be made, but up to this point those recommendations do not exist. This chapter will try to identify common sampling procedures for the most diverse and abundant marine organisms considered as ecosystem components under the EOVs, i.e., phytoplankton, zooplankton, and fish. Book Part Ocean acidification Repositório Científico da Universidade de Évora
institution Open Polar
collection Repositório Científico da Universidade de Évora
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language Portuguese
description Marine life remains far less well documented than terrestrial biodiversity. The main reason resides in the vastness of the ocean. Ocean waters, with an average depth of ≈3,800 m, cover 71% of the world’s surface. The difficult access, the complexity of the logistics (any study below the top few meters of the ocean requires large means, specialized personnel, and equipment), and the high cost of research have determined the majority of studies being performed in the terrestrial environment. However, in recent times, this severe imbalance has started to reverse. This is mainly due to the implementation of supra-governmental cooperation programs. Due to human-driven ecosystems alteration, over-fishing, ocean acidification, and chemical pollution (together with other threats), multiple marine species are endangered, so this effort is more than ever relevant and eminently urgent. Recently, the Global Ocean Observing System (GOOS) has proposed, the development of an integrated framework for continued and systematic ocean observation. This framework is based on Essential Ocean Variables (EOVs) aiming to provide a credible response to scientific and societal issues, a high feasibility for sustained observation, and cost-effectiveness. Ecosystem EOVs have been developed. In this framework, biodiversity will be assessed based on the status of ecosystem components, nominate phytoplankton biomass and diversity, zooplankton biomass and diversity, fish abundance and distribution (as well as marine turtle, bird and mammal abundance and distribution). Recommendations for each EOV, including what measurements are to be made, but up to this point those recommendations do not exist. This chapter will try to identify common sampling procedures for the most diverse and abundant marine organisms considered as ecosystem components under the EOVs, i.e., phytoplankton, zooplankton, and fish.
author2 De-Sheng, Pei
Junaid, Muhammad
format Book Part
author Pastorinho, M. Ramiro
Pais, Ricardo
spellingShingle Pastorinho, M. Ramiro
Pais, Ricardo
Sampling Pelagic Marine Organisms
author_facet Pastorinho, M. Ramiro
Pais, Ricardo
author_sort Pastorinho, M. Ramiro
title Sampling Pelagic Marine Organisms
title_short Sampling Pelagic Marine Organisms
title_full Sampling Pelagic Marine Organisms
title_fullStr Sampling Pelagic Marine Organisms
title_full_unstemmed Sampling Pelagic Marine Organisms
title_sort sampling pelagic marine organisms
publisher Bentham Science
publishDate 2019
url http://hdl.handle.net/10174/27589
genre Ocean acidification
genre_facet Ocean acidification
op_relation Ricardo Teles Pais and M. Ramiro Pastorinho (2019). Sampling Pelagic Marine Organisms. In De-Sheng Pei and Muhammad Junaid (Eds.), Marine Ecology: Current and Future Developments, vol. 1, p. 12-36, Bentham Science.ISBN 9811412685
9811412685
http://hdl.handle.net/10174/27589
rpastorinho@uevora.pt
nd
223
op_rights openAccess
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