Plastids of Marine Phytoplankton Produce Bioactive Pigments and Lipids

Phytoplankton is acknowledged to be a very diverse source of bioactive molecules. These compounds play physiological roles that allow cells to deal with changes of the environmental constrains. For example, the diversity of light harvesting pigments allows efficient photosynthesis at different depth...

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Main Authors: Benoît Schoefs, Martine Bertrand, Damien Loizeau, Lionel Ulmann, Virginie Mimouni, Isabelle Poirier, Parisa Heydarizadeh
Format: Article
Language:English
Published: MDPI AG 2013-09-01
Series:Marine Drugs
Subjects:
Online Access:http://www.mdpi.com/1660-3397/11/9/3425
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author Benoît Schoefs
Martine Bertrand
Damien Loizeau
Lionel Ulmann
Virginie Mimouni
Isabelle Poirier
Parisa Heydarizadeh
author_facet Benoît Schoefs
Martine Bertrand
Damien Loizeau
Lionel Ulmann
Virginie Mimouni
Isabelle Poirier
Parisa Heydarizadeh
author_sort Benoît Schoefs
collection DOAJ
description Phytoplankton is acknowledged to be a very diverse source of bioactive molecules. These compounds play physiological roles that allow cells to deal with changes of the environmental constrains. For example, the diversity of light harvesting pigments allows efficient photosynthesis at different depths in the seawater column. Identically, lipid composition of cell membranes can vary according to environmental factors. This, together with the heterogenous evolutionary origin of taxa, makes the chemical diversity of phytoplankton compounds much larger than in terrestrial plants. This contribution is dedicated to pigments and lipids synthesized within or from plastids/photosynthetic membranes. It starts with a short review of cyanobacteria and microalgae phylogeny. Then the bioactivity of pigments and lipids (anti-oxidant, anti-inflammatory, anti-mutagenic, anti-cancer, anti-obesity, anti-allergic activities, and cardio- neuro-, hepato- and photoprotective effects), alone or in combination, is detailed. To increase the cellular production of bioactive compounds, specific culture conditions may be applied (e.g., high light intensity, nitrogen starvation). Regardless of the progress made in blue biotechnologies, the production of bioactive compounds is still limited. However, some examples of large scale production are given, and perspectives are suggested in the final section.
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spelling doaj.art-c304934651e846d0a9c7ce9de11244a42022-12-22T03:19:20ZengMDPI AGMarine Drugs1660-33972013-09-011193425347110.3390/md11093425Plastids of Marine Phytoplankton Produce Bioactive Pigments and LipidsBenoît SchoefsMartine BertrandDamien LoizeauLionel UlmannVirginie MimouniIsabelle PoirierParisa HeydarizadehPhytoplankton is acknowledged to be a very diverse source of bioactive molecules. These compounds play physiological roles that allow cells to deal with changes of the environmental constrains. For example, the diversity of light harvesting pigments allows efficient photosynthesis at different depths in the seawater column. Identically, lipid composition of cell membranes can vary according to environmental factors. This, together with the heterogenous evolutionary origin of taxa, makes the chemical diversity of phytoplankton compounds much larger than in terrestrial plants. This contribution is dedicated to pigments and lipids synthesized within or from plastids/photosynthetic membranes. It starts with a short review of cyanobacteria and microalgae phylogeny. Then the bioactivity of pigments and lipids (anti-oxidant, anti-inflammatory, anti-mutagenic, anti-cancer, anti-obesity, anti-allergic activities, and cardio- neuro-, hepato- and photoprotective effects), alone or in combination, is detailed. To increase the cellular production of bioactive compounds, specific culture conditions may be applied (e.g., high light intensity, nitrogen starvation). Regardless of the progress made in blue biotechnologies, the production of bioactive compounds is still limited. However, some examples of large scale production are given, and perspectives are suggested in the final section.http://www.mdpi.com/1660-3397/11/9/3425plastidscarotenoidscyanobacteriamicroalgaepolyunsaturated fatty acidstetrapyrroles
spellingShingle Benoît Schoefs
Martine Bertrand
Damien Loizeau
Lionel Ulmann
Virginie Mimouni
Isabelle Poirier
Parisa Heydarizadeh
Plastids of Marine Phytoplankton Produce Bioactive Pigments and Lipids
Marine Drugs
plastids
carotenoids
cyanobacteria
microalgae
polyunsaturated fatty acids
tetrapyrroles
title Plastids of Marine Phytoplankton Produce Bioactive Pigments and Lipids
title_full Plastids of Marine Phytoplankton Produce Bioactive Pigments and Lipids
title_fullStr Plastids of Marine Phytoplankton Produce Bioactive Pigments and Lipids
title_full_unstemmed Plastids of Marine Phytoplankton Produce Bioactive Pigments and Lipids
title_short Plastids of Marine Phytoplankton Produce Bioactive Pigments and Lipids
title_sort plastids of marine phytoplankton produce bioactive pigments and lipids
topic plastids
carotenoids
cyanobacteria
microalgae
polyunsaturated fatty acids
tetrapyrroles
url http://www.mdpi.com/1660-3397/11/9/3425
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