Development of a multiblock metabolomics approach to explore metabolite variations of two algae of the genus Asparagopsis linked to interspecies and temporal factors
暂无分享,去创建一个
Corentine Goossens | N. Tapissier-Bontemps | P. Sasal | E. Faliex | Marie-Virginie Salvia | Christelle Parchemin | Hikmat Ghosson | D. Raviglione
[1] F. Chow,et al. Nutritional Composition of Beach-Cast Marine Algae from the Brazilian Coast: Added Value for Algal Biomass Considered as Waste , 2022, Foods.
[2] José M. S. Ponte,et al. Asparagopsis Genus: What We Really Know About Its Biological Activities and Chemical Composition , 2022, Molecules.
[3] Y. Choi,et al. Metabolomics on the study of marine organisms , 2022, Metabolomics.
[4] D. Pinto,et al. GC- and UHPLC-MS Profiles as a Tool to Valorize the Red Alga Asparagopsis armata , 2022, Applied Sciences.
[5] A. Sherwood,et al. Concise review of the genus Asparagopsis Montagne, 1840 , 2022, Journal of Applied Phycology.
[6] El Mostafa Qannari,et al. A general strategy for setting up supervised methods of multiblock data analysis , 2021 .
[7] Linbin Huang,et al. Multi-omics responses of red algae Pyropia haitanensis to intertidal desiccation during low tides , 2021 .
[8] A. Campbell,et al. Effects of a seaweed feed inclusion on different life stages of the mottled rabbitfish Siganus fuscescens , 2021, Aquaculture Research.
[9] M. Castellari,et al. Levels of taurine, hypotaurine and homotaurine, and amino acids profiles in selected commercial seaweeds, microalgae, and algae-enriched food products. , 2021, Food chemistry.
[10] J. Xia,et al. MetaboAnalyst 5.0: narrowing the gap between raw spectra and functional insights , 2021, Nucleic Acids Res..
[11] A. Campbell,et al. Seaweed dietary supplements enhance the innate immune response of the mottled rabbitfish, Siganus fuscescens. , 2021, Fish & shellfish immunology.
[12] M. Stanley,et al. Exploring the Chemical Space of Macro- and Micro-Algae Using Comparative Metabolomics , 2021, Microorganisms.
[13] P. Schupp,et al. Metabolomics and Marine Biotechnology: Coupling Metabolite Profiling and Organism Biology for the Discovery of New Compounds , 2020, Frontiers in Marine Science.
[14] P. Domingues,et al. Seasonal plasticity of the polar lipidome of Ulva rigida cultivated in a sustainable integrated multi-trophic aquaculture , 2020 .
[15] E. Kebreab,et al. Red seaweed (Asparagopsis taxiformis) supplementation reduces enteric methane by over 80 percent in beef steers , 2020, bioRxiv.
[16] J. Smith,et al. Genetic and biochemical reconstitution of bromoform biosynthesis in Asparagopsis lends insights into seaweed ROS enzymology. , 2020, ACS chemical biology.
[17] B. Misson,et al. A Multi-Omics Analysis Suggests Links Between the Differentiated Surface Metabolome and Epiphytic Microbiota Along the Thallus of a Mediterranean Seaweed Holobiont , 2020, Frontiers in Microbiology.
[18] O. Thomas,et al. Impact of ocean acidification on the metabolome of the brown macroalgae Lobophora rosacea from New Caledonia , 2020 .
[19] Evelyne Vigneau,et al. Unsupervised multiblock data analysis: A unified approach and extensions , 2019, Chemometrics and Intelligent Laboratory Systems.
[20] S. Fraschetti,et al. The response of the algae Fucus virsoides (Fucales, Ochrophyta) to Roundup® solution exposure: A metabolomics approach. , 2019, Environmental pollution.
[21] E. Kebreab,et al. Inclusion of Asparagopsis armata in lactating dairy cows’ diet reduces enteric methane emission by over 50 percent , 2019, Journal of Cleaner Production.
[22] D. Debroas,et al. Temporal covariation of epibacterial community and surface metabolome in the Mediterranean seaweed holobiont Taonia atomaria. , 2019, Environmental microbiology.
[23] O. Thomas,et al. Metabolomic variability of four macroalgal species of the genus Lobophora using diverse approaches. , 2019, Phytochemistry.
[24] Elisabete Coelho,et al. Lipidomic Signatures Reveal Seasonal Shifts on the Relative Abundance of High-Valued Lipids from the Brown Algae Fucus vesiculosus , 2019, Marine drugs.
[25] S. Connan,et al. Photo-protective compounds in red macroalgae from Brittany: Considerable diversity in mycosporine-like amino acids (MAAs). , 2019, Marine environmental research.
[26] S. Böcker,et al. SIRIUS 4: a rapid tool for turning tandem mass spectra into metabolite structure information , 2019, Nature Methods.
[27] D. Jacob,et al. Optimizing 1D 1H-NMR profiling of plant samples for high throughput analysis: extract preparation, standardization, automation and spectra processing , 2019, Metabolomics.
[28] O. Thomas,et al. High metabolic variation for seaweeds in response to environmental changes: a case study of the brown algae Lobophora in coral reefs , 2019, Scientific Reports.
[29] U. Karsten,et al. Stress metabolite pattern in the eulittoral red alga Pyropia plicata (Bangiales) in New Zealand – mycosporine-like amino acids and heterosides , 2019, Journal of Experimental Marine Biology and Ecology.
[30] L. Botana,et al. Marine invasive macroalgae: Turning a real threat into a major opportunity - the biotechnological potential of Sargassum muticum and Asparagopsis armata , 2018, Algal Research.
[31] Freddy Guihéneuf,et al. Plasticity and remodelling of lipids support acclimation potential in two species of low-intertidal macroalgae, Fucus serratus (Phaeophyceae) and Palmaria palmata (Rhodophyta) , 2017 .
[32] Shuzhao Li,et al. One Step Forward for Reducing False Positive and False Negative Compound Identifications from Mass Spectrometry Metabolomics Data: New Algorithms for Constructing Extracted Ion Chromatograms and Detecting Chromatographic Peaks. , 2017, Analytical chemistry.
[33] Yann Guitton,et al. Create, run, share, publish, and reference your LC-MS, FIA-MS, GC-MS, and NMR data analysis workflows with the Workflow4Metabolomics 3.0 Galaxy online infrastructure for metabolomics. , 2017, The international journal of biochemistry & cell biology.
[34] R. Nys,et al. Within-species and temperature-related variation in the growth and natural products of the red alga Asparagopsis taxiformis , 2017, Journal of Applied Phycology.
[35] Kim-Anh Lê Cao,et al. mixOmics: An R package for ‘omics feature selection and multiple data integration , 2017, bioRxiv.
[36] R. Costa,et al. The effect of live feeds bathed with the red seaweed Asparagopsis armata on the survival, growth and physiology status of Sparus aurata larvae , 2017, Fish Physiology and Biochemistry.
[37] C. Payri,et al. Chemogeography of the red macroalgae Asparagopsis: metabolomics, bioactivity, and relation to invasiveness , 2017, Metabolomics.
[38] N. Kervarec,et al. Seasonal phenology and metabolomics of the introduced red macroalga Gracilaria vermiculophylla, monitored in the Bay of Brest (France) , 2017, Journal of Applied Phycology.
[39] C. Deborde,et al. NMRProcFlow: a graphical and interactive tool dedicated to 1D spectra processing for NMR-based metabolomics , 2016, Metabolomics.
[40] D. Lecchini,et al. Effects of local Polynesian plants and algae on growth and expression of two immune-related genes in orbicular batfish (Platax orbicularis). , 2016, Fish & shellfish immunology.
[41] D. Barreca,et al. Preliminary Study on the In vitro and In vivo Effects of Asparagopsis taxiformis Bioactive Phycoderivates on Teleosts , 2016, Front. Physiol..
[42] M. van der Maarel,et al. Floridoside production by the red microalga Galdieria sulphuraria under different conditions of growth and osmotic stress , 2016, AMB Express.
[43] R. Nys,et al. Identification of bioactives from the red seaweed Asparagopsis taxiformis that promote antimethanogenic activity in vitro , 2016, Journal of Applied Phycology.
[44] E. Thévenot,et al. Analysis of the Human Adult Urinary Metabolome Variations with Age, Body Mass Index, and Gender by Implementing a Comprehensive Workflow for Univariate and OPLS Statistical Analyses. , 2015, Journal of proteome research.
[45] Daniel Jacob,et al. Workflow4Metabolomics: a collaborative research infrastructure for computational metabolomics , 2014, Bioinform..
[46] T. Tonon,et al. Transcriptomic and metabolomic analysis of copper stress acclimation in Ectocarpus siliculosus highlights signaling and tolerance mechanisms in brown algae , 2014, BMC Plant Biology.
[47] G. Genta‐Jouve,et al. Mahorones, highly brominated cyclopentenones from the red alga Asparagopsis taxiformis. , 2014, Journal of natural products.
[48] H. A. E. Baky,et al. Structural characterization and Biological Activity of Sulfolipids from selected Marine Algae , 2013 .
[49] G. Wielgosz-Collin,et al. Seasonal composition of lipids, fatty acids, and sterols in the edible red alga Grateloupia turuturu , 2013, Journal of Applied Phycology.
[50] H. Pereira,et al. Polyunsaturated Fatty Acids of Marine Macroalgae: Potential for Nutritional and Pharmaceutical Applications , 2012, Marine drugs.
[51] S. Shi,et al. Combined small molecule inhibition accelerates developmental timing and converts human pluripotent stem cells into nociceptors , 2012, Nature Biotechnology.
[52] Natalie I. Tasman,et al. A Cross-platform Toolkit for Mass Spectrometry and Proteomics , 2012, Nature Biotechnology.
[53] J. Selvin,et al. In vivo therapeutic potentiality of red seaweed, Asparagopsis (Bonnemaisoniales, Rhodophyta) in the treatment of Vibriosis in Penaeus monodon Fabricius. , 2012, Saudi journal of biological sciences.
[54] C. Faggio,et al. In vitro evaluation of antibacterial activity of Asparagopsis taxiformis from the Straits of Messina against pathogens relevant in aquaculture. , 2012, Marine environmental research.
[55] P. Valentão,et al. STEROL PROFILES IN 18 MACROALGAE OF THE PORTUGUESE COAST 1 , 2011, Journal of phycology.
[56] Matej Oresic,et al. MZmine 2: Modular framework for processing, visualizing, and analyzing mass spectrometry-based molecular profile data , 2010, BMC Bioinformatics.
[57] N. Fusetani. Biotechnological potential of marine natural products , 2010 .
[58] Frans M van der Kloet,et al. Analytical error reduction using single point calibration for accurate and precise metabolomic phenotyping. , 2009, Journal of proteome research.
[59] L. Tedone,et al. The Mediterranean Red Alga Asparagopsis: A Source of Compounds against Leishmania , 2009, Marine drugs.
[60] F. Figueroa,et al. Accumulation of mycosporine-like amino acids in Asparagopsis armata grown in tanks with fishpond effluents of gilthead sea bream, Sparus aurata , 2008 .
[61] Hai Liu,et al. The effects of betonicine, floridoside, and isethionic acid from the red alga Ahnfeltiopsis flabelliformis on quorum-sensing activity , 2008 .
[62] A. Vergés,et al. Sex and life-history stage alter herbivore responses to a chemically defended red alga. , 2008, Ecology.
[63] A. Shevchenko,et al. Lipid extraction by methyl-tert-butyl ether for high-throughput lipidomics. , 2008, Journal of lipid research.
[64] N. Salvador,et al. Antimicrobial activity of Iberian macroalgae , 2007 .
[65] M. Viant,et al. Metabolomics of aquatic organisms: the new omics on the block , 2007 .
[66] U. Lindequist,et al. Screening of cultivated seaweeds for antibacterial activity against fish pathogenic bacteria , 2006 .
[67] S. Garrigues,et al. FTIR-determination of sterols from the red alga Asparagopsis armata: Comparative studies with HPLC. , 2006, Talanta.
[68] R. Nys,et al. Chemical defence against bacteria in the red alga Asparagopsis armata: linking structure with function , 2006 .
[69] G. Procaccini,et al. Asparagopsis taxiformis and Asparagopsis armata (Bonnemaisoniales, Rhodophyta): genetic and morphological identification of Mediterranean populations , 2004 .
[70] C. Hellio,et al. Isethionic Acid and Floridoside Isolated from the Red Alga, Grateloupia turuturu, Inhibit Settlement of Balanus amphitrite Cyprid Larvae , 2004, Biofouling.
[71] N. Kervarec,et al. Characterization of N‐methyl‐L‐methionine sulfoxide and isethionic acid from the red alga Grateloupia doryphora , 2002 .
[72] K. Akashi,et al. Citrulline, a novel compatible solute in drought‐tolerant wild watermelon leaves, is an efficient hydroxyl radical scavenger , 2001, FEBS letters.
[73] M. Lahaye,et al. Chemical Composition and Structure of Sulphated Water-Soluble Cell-Wall Polysaccharides from the Gametic, Carposporic and Tetrasporic Stages of Asparagopsis armata Harvey (Rhodophyta, Bonnemaisoniaceae) , 2000 .
[74] Pierre Legendre,et al. DISTANCE‐BASED REDUNDANCY ANALYSIS: TESTING MULTISPECIES RESPONSES IN MULTIFACTORIAL ECOLOGICAL EXPERIMENTS , 1999 .
[75] U. Karsten,et al. Isethionic acid from the marine red alga Ceramium flaccidum , 1993 .
[76] U. Karsten,et al. Floridoside, L-Isofloridoside, and D-Isofloridoside in the Red Alga Porphyra columbina (Seasonal and Osmotic Effects) , 1993, Plant physiology.
[77] G. Combaut,et al. Comparative Sterols Composition of the Red Alga Asparagopsis armata and Its Tetrasporophyte Falkenbergia rufolanosa. , 1979, Journal of natural products.
[78] Richard E. Moore,et al. Volatile halogen compounds in the alga Asparagopsis taxiformis (Rhodophyta) , 1976 .
[79] E. Fattorusso,et al. Amino acids and low-molecular-weight carbohydrates of some marine red algae , 1975 .
[80] A. Bauer,et al. Antibiotic susceptibility testing by a standardized single disk method. , 1966, American journal of clinical pathology.
[81] A. Campbell,et al. Dietary inclusion of the red seaweed Asparagopsis taxiformis boosts production, stimulates immune response and modulates gut microbiota in Atlantic salmon, Salmo salar , 2022 .
[82] Shoshi Mizuta,et al. The Taurine Content of Japanese Seaweed. , 2017, Advances in experimental medicine and biology.
[83] R. Baghel,et al. Chapter Two - Seaweed Metabolomics: A New Facet of Functional Genomics , 2014 .
[84] V. Roussis,et al. Volatile halogenated metabolites from marine red algae , 2004, Phytochemistry Reviews.
[85] Brian H. McArdle,et al. FITTING MULTIVARIATE MODELS TO COMMUNITY DATA: A COMMENT ON DISTANCE‐BASED REDUNDANCY ANALYSIS , 2001 .
[86] J. Harwood. Membrane Lipids in Algae , 1998 .
[87] H. Horikoshi,et al. Aldose reductase inhibitors from the red alga, Asparagopsis taxiformis , 1990 .
[88] Richard E. Moore,et al. Halogenated acetic and acrylic acids from the red alga Asparagopsis taxiformis , 1979 .
[89] W. Fenical,et al. Halogen chemistry of the red alga Asparagopsis , 1977 .
[90] Richard E. Moore,et al. Halogenated acetamides, but-3-en-2-ols, and isopropanols from asparagopsis taxiformis (delile) trev , 1976 .
[91] Richard E. Moore,et al. Haloforms in the essential oil of the alga asparagopsis taxiformis (rhodophyta) , 1975 .