A sea slug’s guide to plastid symbiosis

Some 140 years ago sea slugs that contained chlorophyll-pigmented granules similar to those of plants were described. While we now understand that these “green granules” are plastids the slugs sequester from siphonaceous algae upon which they feed, surprisingly little is really known about the molec...

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Main Authors: Jan de Vries, Cessa Rauch, Gregor Christa, Sven B. Gould
Format: Article
Language:English
Published: Polish Botanical Society 2014-12-01
Series:Acta Societatis Botanicorum Poloniae
Subjects:
Online Access:https://pbsociety.org.pl/journals/index.php/asbp/article/view/4660
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spelling doaj-70249d3b1727426fabbccdbb6566cd372020-11-25T03:34:54ZengPolish Botanical SocietyActa Societatis Botanicorum Poloniae2083-94802014-12-0183441542110.5586/asbp.2014.0423946A sea slug’s guide to plastid symbiosisJan de Vries0Cessa Rauch1Gregor Christa2Sven B. Gould3Institute for Molecular Evolution, Heinrich Heine-University, Düsseldorf 40225Institute for Molecular Evolution, Heinrich Heine-University, Düsseldorf 40225Institute for Molecular Evolution, Heinrich Heine-University, Düsseldorf 40225; CESAM, University of Aveiro, 3810-193 AveiroInstitute for Molecular Evolution, Heinrich Heine-University, Düsseldorf 40225Some 140 years ago sea slugs that contained chlorophyll-pigmented granules similar to those of plants were described. While we now understand that these “green granules” are plastids the slugs sequester from siphonaceous algae upon which they feed, surprisingly little is really known about the molecular details that underlie this one of a kind animal-plastid symbiosis. Kleptoplasts are stored in the cytosol of epithelial cells that form the slug’s digestive tubules, and one would guess that the stolen organelles are acquired for their ability to fix carbon, but studies have never really been able to prove that. We also do not know how the organelles are distinguished from the remaining food particles the slugs incorporate with their meal and that include algal mitochondria and nuclei. We know that the ability to store kleptoplasts long-term has evolved only a few times independently among hundreds of sacoglossan species, but we have no idea on what basis. Here we take a closer look at the history of sacoglossan research and discuss recent developments. We argue that, in order to understand what makes this symbiosis work, we will need to focus on the animal’s physiology just as much as we need to commence a detailed analysis of the plastids’ photobiology. Understanding kleptoplasty in sacoglossan slugs requires an unbiased multidisciplinary approach.https://pbsociety.org.pl/journals/index.php/asbp/article/view/4660kleptoplastysacoglossan slugsphotosynthesisplastid biologyphotosynthetic slugsevolution
collection DOAJ
language English
format Article
sources DOAJ
author Jan de Vries
Cessa Rauch
Gregor Christa
Sven B. Gould
spellingShingle Jan de Vries
Cessa Rauch
Gregor Christa
Sven B. Gould
A sea slug’s guide to plastid symbiosis
Acta Societatis Botanicorum Poloniae
kleptoplasty
sacoglossan slugs
photosynthesis
plastid biology
photosynthetic slugs
evolution
author_facet Jan de Vries
Cessa Rauch
Gregor Christa
Sven B. Gould
author_sort Jan de Vries
title A sea slug’s guide to plastid symbiosis
title_short A sea slug’s guide to plastid symbiosis
title_full A sea slug’s guide to plastid symbiosis
title_fullStr A sea slug’s guide to plastid symbiosis
title_full_unstemmed A sea slug’s guide to plastid symbiosis
title_sort sea slug’s guide to plastid symbiosis
publisher Polish Botanical Society
series Acta Societatis Botanicorum Poloniae
issn 2083-9480
publishDate 2014-12-01
description Some 140 years ago sea slugs that contained chlorophyll-pigmented granules similar to those of plants were described. While we now understand that these “green granules” are plastids the slugs sequester from siphonaceous algae upon which they feed, surprisingly little is really known about the molecular details that underlie this one of a kind animal-plastid symbiosis. Kleptoplasts are stored in the cytosol of epithelial cells that form the slug’s digestive tubules, and one would guess that the stolen organelles are acquired for their ability to fix carbon, but studies have never really been able to prove that. We also do not know how the organelles are distinguished from the remaining food particles the slugs incorporate with their meal and that include algal mitochondria and nuclei. We know that the ability to store kleptoplasts long-term has evolved only a few times independently among hundreds of sacoglossan species, but we have no idea on what basis. Here we take a closer look at the history of sacoglossan research and discuss recent developments. We argue that, in order to understand what makes this symbiosis work, we will need to focus on the animal’s physiology just as much as we need to commence a detailed analysis of the plastids’ photobiology. Understanding kleptoplasty in sacoglossan slugs requires an unbiased multidisciplinary approach.
topic kleptoplasty
sacoglossan slugs
photosynthesis
plastid biology
photosynthetic slugs
evolution
url https://pbsociety.org.pl/journals/index.php/asbp/article/view/4660
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