PGPB-driven bioenrichment and metabolic modulation of Salicornia europaea under marine Aquaponic conditions.

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Hauptverfasser: Ferreira, Maria J, Garcia-Cardesín, Erika, Sierra-Garcia, I Natalia, Pinto, Diana C G A, Cremades, Javier, Silva, Helena, Cunha, Ângela
Format: Artículo científico
Sprache:en
Veröffentlicht: World journal of microbiology & biotechnology 2025
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author Ferreira, Maria J
Garcia-Cardesín, Erika
Sierra-Garcia, I Natalia
Pinto, Diana C G A
Cremades, Javier
Silva, Helena
Cunha, Ângela
author_facet Ferreira, Maria J
Garcia-Cardesín, Erika
Sierra-Garcia, I Natalia
Pinto, Diana C G A
Cremades, Javier
Silva, Helena
Cunha, Ângela
Ferreira, Maria J
Garcia-Cardesín, Erika
Sierra-Garcia, I Natalia
Pinto, Diana C G A
Cremades, Javier
Silva, Helena
Cunha, Ângela
collection PubMed - marine biology
contents PGPB-driven bioenrichment and metabolic modulation of Salicornia europaea under marine Aquaponic conditions. Ferreira, Maria J Garcia-Cardesín, Erika Sierra-Garcia, I Natalia Pinto, Diana C G A Cremades, Javier Silva, Helena Cunha, Ângela Chenopodiaceae Secondary Metabolism Pseudomonas Antioxidants Flavonoids Seawater Metabolome This study analyzed the secondary metabolite profile of Salicornia europaea inoculated with Brevibacterium casei EB3 and Pseudomonas oryzihabitans RL18 in aquaponic systems, exploring the metabolic mechanisms responsible for the observed shifts. Experiments were conducted in both microcosm and pilot-scale aquaponic setups to evaluate how these metabolic shifts vary across different system scales and their potential contributions to the observed increased accumulation of bioactive compounds with antioxidant and antimicrobial properties, including some phenolic acids, such as caffeic acid (154-fold), flavonoids (2.85-fold), and some unsaturated fatty acids, such as oct-3-enoic acid (32-fold). Metabolic profiling revealed shifts in pathways associated with plant growth and stress resilience, such as amino acid and phenolic biosynthesis. Additionally, differences in metabolic responses observed between microcosm and pilot-scale systems underscored the importance of understanding scaling effects. These findings highlight the potential for optimizing aquaponic systems by leveraging microbial-plant interactions to enhance ecological and economic outcomes. This approach offers valuable applications in nutrient recycling, phytopharmaceutical development, and the advancement of saline agriculture within integrated aquaculture frameworks.
format Artículo científico
id pubmed_40189660
institution PubMed
language en
publishDate 2025
publisher World journal of microbiology & biotechnology
record_format pubmed
spellingShingle PGPB-driven bioenrichment and metabolic modulation of Salicornia europaea under marine Aquaponic conditions.
Ferreira, Maria J
Garcia-Cardesín, Erika
Sierra-Garcia, I Natalia
Pinto, Diana C G A
Cremades, Javier
Silva, Helena
Cunha, Ângela
Chenopodiaceae
Secondary Metabolism
Pseudomonas
Antioxidants
Flavonoids
Seawater
Metabolome
PGPB-driven bioenrichment and metabolic modulation of Salicornia europaea under marine Aquaponic conditions. Ferreira, Maria J Garcia-Cardesín, Erika Sierra-Garcia, I Natalia Pinto, Diana C G A Cremades, Javier Silva, Helena Cunha, Ângela Chenopodiaceae Secondary Metabolism Pseudomonas Antioxidants Flavonoids Seawater Metabolome This study analyzed the secondary metabolite profile of Salicornia europaea inoculated with Brevibacterium casei EB3 and Pseudomonas oryzihabitans RL18 in aquaponic systems, exploring the metabolic mechanisms responsible for the observed shifts. Experiments were conducted in both microcosm and pilot-scale aquaponic setups to evaluate how these metabolic shifts vary across different system scales and their potential contributions to the observed increased accumulation of bioactive compounds with antioxidant and antimicrobial properties, including some phenolic acids, such as caffeic acid (154-fold), flavonoids (2.85-fold), and some unsaturated fatty acids, such as oct-3-enoic acid (32-fold). Metabolic profiling revealed shifts in pathways associated with plant growth and stress resilience, such as amino acid and phenolic biosynthesis. Additionally, differences in metabolic responses observed between microcosm and pilot-scale systems underscored the importance of understanding scaling effects. These findings highlight the potential for optimizing aquaponic systems by leveraging microbial-plant interactions to enhance ecological and economic outcomes. This approach offers valuable applications in nutrient recycling, phytopharmaceutical development, and the advancement of saline agriculture within integrated aquaculture frameworks.
title PGPB-driven bioenrichment and metabolic modulation of Salicornia europaea under marine Aquaponic conditions.
topic Chenopodiaceae
Secondary Metabolism
Pseudomonas
Antioxidants
Flavonoids
Seawater
Metabolome
url https://pubmed.ncbi.nlm.nih.gov/40189660/