Blue Carbon on Polar and Subpolar Seabeds

When marine organisms eat and grow they capture and store carbon, termed blue carbon. Polar seas have extreme light climates and sea temperatures. Their continental shelves have amongst the most intense phytoplankton (algal) blooms. This carbon drawdown, storage and burial by biodiversity is a quant...

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Main Author: Barnes, David Keith Alan
Format: Other/Unknown Material
Language:English
Published: IntechOpen 2018
Subjects:
Online Access:https://mts.intechopen.com/articles/show/title/blue-carbon-on-polar-and-subpolar-seabeds
https://doi.org/10.5772/intechopen.78237
id ftintech:oai:intechopen.com:61834
record_format openpolar
spelling ftintech:oai:intechopen.com:61834 2023-05-15T14:00:31+02:00 Blue Carbon on Polar and Subpolar Seabeds Barnes, David Keith Alan 2018-11-05 https://mts.intechopen.com/articles/show/title/blue-carbon-on-polar-and-subpolar-seabeds https://doi.org/10.5772/intechopen.78237 en eng IntechOpen ISBN:978-1-78923-764-1 https://mts.intechopen.com/articles/show/title/blue-carbon-on-polar-and-subpolar-seabeds doi:10.5772/intechopen.78237 https://creativecommons.org/licenses/by/3.0/ CC-BY https://www.intechopen.com/books/6804 Carbon Capture Utilization and Sequestration Chapter, Part Of Book 2018 ftintech https://doi.org/10.5772/intechopen.78237 2021-11-13T19:28:00Z When marine organisms eat and grow they capture and store carbon, termed blue carbon. Polar seas have extreme light climates and sea temperatures. Their continental shelves have amongst the most intense phytoplankton (algal) blooms. This carbon drawdown, storage and burial by biodiversity is a quantifiable ‘ecosystem service’. Most of that carbon sinks to be recycled by microbes, but some enters a wider food web of zooplankton and their predators or diverse seabed life. How much carbon becomes stored long term or buried to become genuinely sequestered varies with a wide range of factors, e.g. geography, history, substratum etc. The Arctic and Antarctic are dynamic and in a phase of rapid but contrasting, complex physical change and marine organismal carbon capture and storage is altering in response. For example, an ice shelf calving a 5000 km2 iceberg actually results in 106 tons of additional blue carbon per year. Polar blue carbon increases have resulted from new and longer climate-forced, phytoplankton blooms driven by sea ice losses and ice shelf collapses. Polar blue carbon gains with sea ice losses are probably the largest natural negative feedback against climate change. Here the current status, variability and future of polar blue carbon is considered. Other/Unknown Material Antarc* Antarctic Arctic Climate change Ice Shelf Iceberg* Iceberg* Phytoplankton Sea ice Zooplankton IntechOpen (E-Books) Antarctic Arctic
institution Open Polar
collection IntechOpen (E-Books)
op_collection_id ftintech
language English
topic Carbon Capture
Utilization and Sequestration
spellingShingle Carbon Capture
Utilization and Sequestration
Barnes, David Keith Alan
Blue Carbon on Polar and Subpolar Seabeds
topic_facet Carbon Capture
Utilization and Sequestration
description When marine organisms eat and grow they capture and store carbon, termed blue carbon. Polar seas have extreme light climates and sea temperatures. Their continental shelves have amongst the most intense phytoplankton (algal) blooms. This carbon drawdown, storage and burial by biodiversity is a quantifiable ‘ecosystem service’. Most of that carbon sinks to be recycled by microbes, but some enters a wider food web of zooplankton and their predators or diverse seabed life. How much carbon becomes stored long term or buried to become genuinely sequestered varies with a wide range of factors, e.g. geography, history, substratum etc. The Arctic and Antarctic are dynamic and in a phase of rapid but contrasting, complex physical change and marine organismal carbon capture and storage is altering in response. For example, an ice shelf calving a 5000 km2 iceberg actually results in 106 tons of additional blue carbon per year. Polar blue carbon increases have resulted from new and longer climate-forced, phytoplankton blooms driven by sea ice losses and ice shelf collapses. Polar blue carbon gains with sea ice losses are probably the largest natural negative feedback against climate change. Here the current status, variability and future of polar blue carbon is considered.
format Other/Unknown Material
author Barnes, David Keith Alan
author_facet Barnes, David Keith Alan
author_sort Barnes, David Keith Alan
title Blue Carbon on Polar and Subpolar Seabeds
title_short Blue Carbon on Polar and Subpolar Seabeds
title_full Blue Carbon on Polar and Subpolar Seabeds
title_fullStr Blue Carbon on Polar and Subpolar Seabeds
title_full_unstemmed Blue Carbon on Polar and Subpolar Seabeds
title_sort blue carbon on polar and subpolar seabeds
publisher IntechOpen
publishDate 2018
url https://mts.intechopen.com/articles/show/title/blue-carbon-on-polar-and-subpolar-seabeds
https://doi.org/10.5772/intechopen.78237
geographic Antarctic
Arctic
geographic_facet Antarctic
Arctic
genre Antarc*
Antarctic
Arctic
Climate change
Ice Shelf
Iceberg*
Iceberg*
Phytoplankton
Sea ice
Zooplankton
genre_facet Antarc*
Antarctic
Arctic
Climate change
Ice Shelf
Iceberg*
Iceberg*
Phytoplankton
Sea ice
Zooplankton
op_source https://www.intechopen.com/books/6804
op_relation ISBN:978-1-78923-764-1
https://mts.intechopen.com/articles/show/title/blue-carbon-on-polar-and-subpolar-seabeds
doi:10.5772/intechopen.78237
op_rights https://creativecommons.org/licenses/by/3.0/
op_rightsnorm CC-BY
op_doi https://doi.org/10.5772/intechopen.78237
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