Biomineralization and global change: A new perspective for understanding the end-Permian extinction

We investigated the kill mechanisms of the end-Permian mass extinction by analyzing patterns in biomineralization of marine invertebrates. The microstructures of Upper Permian brachiopod organocarbonate shells show the demise of the production of fabrics with a columnar layer-which has less organic...

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Published in:Geology
Main Authors: Garbelli, Claudio, Angiolini, Lucia, Shen, Shu-zhong
Format: Report
Language:English
Published: GEOLOGICAL SOC AMER, INC 2017
Subjects:
Online Access:http://ir.nigpas.ac.cn/handle/332004/20645
https://doi.org/10.1130/G38430.1
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spelling ftchinacscnigpas:oai:ir.nigpas.ac.cn:332004/20645 2023-05-15T17:50:16+02:00 Biomineralization and global change: A new perspective for understanding the end-Permian extinction Garbelli, Claudio Angiolini, Lucia Shen, Shu-zhong 2017 http://ir.nigpas.ac.cn/handle/332004/20645 https://doi.org/10.1130/G38430.1 英语 eng GEOLOGICAL SOC AMER, INC GEOLOGY http://ir.nigpas.ac.cn/handle/332004/20645 doi:10.1130/G38430.1 TRIASSIC MASS EXTINCTION OCEAN ACIDIFICATION BODY-SIZE TEMPERATURE PATTERNS CRISIS Geology 期刊论文 2017 ftchinacscnigpas https://doi.org/10.1130/G38430.1 2019-08-14T12:44:46Z We investigated the kill mechanisms of the end-Permian mass extinction by analyzing patterns in biomineralization of marine invertebrates. The microstructures of Upper Permian brachiopod organocarbonate shells show the demise of the production of fabrics with a columnar layer-which has less organic matrix-in favor of more organic-rich shells at the end of Permian. Also, in the 100-120 k.y. interval prior to the Permian-Triassic boundary (PTB), the Rhynchonellata had small calcite structural units (fibers) and thus a higher shell organic content, whereas the Strophomenata were not able to produce smaller units. This suggests that the two classes had a different capacity to cope with environmental change, with the Rhynchonellata being more able to buffer against pH changes and surviving the PTB, whereas the Strophomenata became extinct. The observed trends in biomineralization are similar to the patterns in extant marine invertebrates exposed to increasing pCO(2) and decreasing pH, indicating that ocean acidification could have been one of the kill mechanisms of the mass extinction at the PTB. Report Ocean acidification Nanjing Institute of Geology and Palaeontology: NIGPAS OpenIR (Chinese Academy of Sciences) Geology 45 1 19 22
institution Open Polar
collection Nanjing Institute of Geology and Palaeontology: NIGPAS OpenIR (Chinese Academy of Sciences)
op_collection_id ftchinacscnigpas
language English
topic TRIASSIC MASS EXTINCTION
OCEAN ACIDIFICATION
BODY-SIZE
TEMPERATURE
PATTERNS
CRISIS
Geology
spellingShingle TRIASSIC MASS EXTINCTION
OCEAN ACIDIFICATION
BODY-SIZE
TEMPERATURE
PATTERNS
CRISIS
Geology
Garbelli, Claudio
Angiolini, Lucia
Shen, Shu-zhong
Biomineralization and global change: A new perspective for understanding the end-Permian extinction
topic_facet TRIASSIC MASS EXTINCTION
OCEAN ACIDIFICATION
BODY-SIZE
TEMPERATURE
PATTERNS
CRISIS
Geology
description We investigated the kill mechanisms of the end-Permian mass extinction by analyzing patterns in biomineralization of marine invertebrates. The microstructures of Upper Permian brachiopod organocarbonate shells show the demise of the production of fabrics with a columnar layer-which has less organic matrix-in favor of more organic-rich shells at the end of Permian. Also, in the 100-120 k.y. interval prior to the Permian-Triassic boundary (PTB), the Rhynchonellata had small calcite structural units (fibers) and thus a higher shell organic content, whereas the Strophomenata were not able to produce smaller units. This suggests that the two classes had a different capacity to cope with environmental change, with the Rhynchonellata being more able to buffer against pH changes and surviving the PTB, whereas the Strophomenata became extinct. The observed trends in biomineralization are similar to the patterns in extant marine invertebrates exposed to increasing pCO(2) and decreasing pH, indicating that ocean acidification could have been one of the kill mechanisms of the mass extinction at the PTB.
format Report
author Garbelli, Claudio
Angiolini, Lucia
Shen, Shu-zhong
author_facet Garbelli, Claudio
Angiolini, Lucia
Shen, Shu-zhong
author_sort Garbelli, Claudio
title Biomineralization and global change: A new perspective for understanding the end-Permian extinction
title_short Biomineralization and global change: A new perspective for understanding the end-Permian extinction
title_full Biomineralization and global change: A new perspective for understanding the end-Permian extinction
title_fullStr Biomineralization and global change: A new perspective for understanding the end-Permian extinction
title_full_unstemmed Biomineralization and global change: A new perspective for understanding the end-Permian extinction
title_sort biomineralization and global change: a new perspective for understanding the end-permian extinction
publisher GEOLOGICAL SOC AMER, INC
publishDate 2017
url http://ir.nigpas.ac.cn/handle/332004/20645
https://doi.org/10.1130/G38430.1
genre Ocean acidification
genre_facet Ocean acidification
op_relation GEOLOGY
http://ir.nigpas.ac.cn/handle/332004/20645
doi:10.1130/G38430.1
op_doi https://doi.org/10.1130/G38430.1
container_title Geology
container_volume 45
container_issue 1
container_start_page 19
op_container_end_page 22
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