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Autores principales: Wang, Fengyu, Finnegan, Seth, Dal Corso, Jacopo, Ye, Facheng, Wu, Yuyang, Chen, Jing, Jiang, Shouyi, Tian, Li, Dai, Xu, Chu, Daoliang, Song, Huyue, Tong, Jinnan, Song, Haijun
Formato: Artículo científico
Lenguaje:en
Publicado: Nature ecology & evolution 2025
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Acceso en línea:https://pubmed.ncbi.nlm.nih.gov/40537546/
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author Wang, Fengyu
Finnegan, Seth
Dal Corso, Jacopo
Ye, Facheng
Wu, Yuyang
Chen, Jing
Jiang, Shouyi
Tian, Li
Dai, Xu
Chu, Daoliang
Song, Huyue
Tong, Jinnan
Song, Haijun
author_facet Wang, Fengyu
Finnegan, Seth
Dal Corso, Jacopo
Ye, Facheng
Wu, Yuyang
Chen, Jing
Jiang, Shouyi
Tian, Li
Dai, Xu
Chu, Daoliang
Song, Huyue
Tong, Jinnan
Song, Haijun
Wang, Fengyu
Finnegan, Seth
Dal Corso, Jacopo
Ye, Facheng
Wu, Yuyang
Chen, Jing
Jiang, Shouyi
Tian, Li
Dai, Xu
Chu, Daoliang
Song, Huyue
Tong, Jinnan
Song, Haijun
collection PubMed - marine biology
contents Brachiopods and forams reduced calcification costs through morphological simplification during mass extinction events. Wang, Fengyu Finnegan, Seth Dal Corso, Jacopo Ye, Facheng Wu, Yuyang Chen, Jing Jiang, Shouyi Tian, Li Dai, Xu Chu, Daoliang Song, Huyue Tong, Jinnan Song, Haijun Extinction, Biological Animals Invertebrates Fossils Calcification, Physiologic Foraminifera Biological Evolution Animal Shells Environmental stressors have exacerbated the collapse of marine ecosystems during mass extinctions. However, the survival strategies of marine species during mass extinctions remain unclear. Here, we investigated morphological evolution of brachiopods across the Permian-Triassic mass extinction (PTME) using a database of 3,225 specimens representing 1,061 species and foraminifera across the PTME and early Toarcian oceanic anoxic event (T-OAE) using a database of 757 specimens representing 12 species. We found a significant reduction in the number and proportion (plicae length/shell length) of shell plicae of brachiopods (36.4% and 60.0%, respectively) across the PTME and a significant decrease in the shell thickness of foraminifera (18.9% and 42.4% across the PTME and 36.9-61.8% across the T-OAE). We calculated that these adaptive strategies could reduce the energetic costs of calcification by more than half for brachiopods across the PTME, and by ~20-62% for foraminifera across the PTME and T-OAE, to compensate for the elevated cost of calcification due to environmental and ecological pressures. We propose that simplification of morphological features, such as reduced shell ornamentation and shell thinning, serves as a potential economic strategy for calcifying organisms to cope with extinction events by reducing energy demands, but further studies with a broader range of taxa and extinction events are needed to confirm the generality of this bioenergetic strategy.
format Artículo científico
id pubmed_40537546
institution PubMed
language en
publishDate 2025
publisher Nature ecology & evolution
record_format pubmed
spellingShingle Brachiopods and forams reduced calcification costs through morphological simplification during mass extinction events.
Wang, Fengyu
Finnegan, Seth
Dal Corso, Jacopo
Ye, Facheng
Wu, Yuyang
Chen, Jing
Jiang, Shouyi
Tian, Li
Dai, Xu
Chu, Daoliang
Song, Huyue
Tong, Jinnan
Song, Haijun
Extinction, Biological
Animals
Invertebrates
Fossils
Calcification, Physiologic
Foraminifera
Biological Evolution
Animal Shells
Brachiopods and forams reduced calcification costs through morphological simplification during mass extinction events. Wang, Fengyu Finnegan, Seth Dal Corso, Jacopo Ye, Facheng Wu, Yuyang Chen, Jing Jiang, Shouyi Tian, Li Dai, Xu Chu, Daoliang Song, Huyue Tong, Jinnan Song, Haijun Extinction, Biological Animals Invertebrates Fossils Calcification, Physiologic Foraminifera Biological Evolution Animal Shells Environmental stressors have exacerbated the collapse of marine ecosystems during mass extinctions. However, the survival strategies of marine species during mass extinctions remain unclear. Here, we investigated morphological evolution of brachiopods across the Permian-Triassic mass extinction (PTME) using a database of 3,225 specimens representing 1,061 species and foraminifera across the PTME and early Toarcian oceanic anoxic event (T-OAE) using a database of 757 specimens representing 12 species. We found a significant reduction in the number and proportion (plicae length/shell length) of shell plicae of brachiopods (36.4% and 60.0%, respectively) across the PTME and a significant decrease in the shell thickness of foraminifera (18.9% and 42.4% across the PTME and 36.9-61.8% across the T-OAE). We calculated that these adaptive strategies could reduce the energetic costs of calcification by more than half for brachiopods across the PTME, and by ~20-62% for foraminifera across the PTME and T-OAE, to compensate for the elevated cost of calcification due to environmental and ecological pressures. We propose that simplification of morphological features, such as reduced shell ornamentation and shell thinning, serves as a potential economic strategy for calcifying organisms to cope with extinction events by reducing energy demands, but further studies with a broader range of taxa and extinction events are needed to confirm the generality of this bioenergetic strategy.
title Brachiopods and forams reduced calcification costs through morphological simplification during mass extinction events.
topic Extinction, Biological
Animals
Invertebrates
Fossils
Calcification, Physiologic
Foraminifera
Biological Evolution
Animal Shells
url https://pubmed.ncbi.nlm.nih.gov/40537546/