FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2319755236> ?p ?o ?g. }

• W2319755236 endingPage "258" @default.
• W2319755236 startingPage "249" @default.
• W2319755236 abstract "DAO Diseases of Aquatic Organisms Contact the journal Facebook Twitter RSS Mailing List Subscribe to our mailing list via Mailchimp HomeLatest VolumeAbout the JournalEditorsSpecials DAO 107:249-258 (2014) - DOI: https://doi.org/10.3354/dao02680 Fourier-transformed infrared spectroscopy: a tool to identify gross chemical changes from healthy to yellow band disease tissues Mayamarú Guerra1, Maria Antonieta López1, Ivan Estéves2, Ainhoa L. Zubillaga3, Aldo Cróquer4,* 1Unidad de Tecnología Laser y Optoelectrónica and 2Unidad de Geoquímica, Instituto Zuliano de Investigaciones Tecnológicas, Km 15 Carretera Via a La Cañada, Maracaibo 4001, Venezuela 3Departamento de Biología de Organismos and 4Departamento de Estudios Ambientales, Universidad Simón Bolívar, Apdo. 89000, Caracas, Venezuela *Corresponding author: croquereef@gmail.com ABSTRACT: Yellow band disease (YBD) is a common and wide-spread Caribbean syndrome that affects the genus Orbicella, a group of species that constitute the framework of Caribbean coral reefs. Previous studies have shown that the structure and function of bacterial assemblages vary between healthy tissues and YBD lesions; however, how the molecular composition of tissues varies as tissues transition from healthy to YBD has not been determined before. The present study provides the first survey of macromolecules found from healthy (H), apparently healthy (AH), transition (TR) and YBD tissues of Orbicella faveolata. For this, we used Fourier-transformed mid-infrared spectroscopy (FTIR) to compare absorption profiles as a proxy for the gross molecular composition of decalcified H, AH and YBD tissues. We found a significantly higher level of infrared absorption for bands assigned to lipids in H tissues compared to YBD tissues, suggesting that lipid compounds are more abundant in compromised tissues in relation to other macromolecules. We also found a lower level of intensity of bands assigned to carbohydrates and proteins in YBD tissues, compared to H and AH tissues. A similar pattern was observed for phospholipidic compounds in relation to fatty acids. This study is the first to show that healthy and YBD-compromised tissues have different infrared absorption profiles, suggesting that alterations in the biochemical composition occur during pathogenesis. Future studies should focus on determining the actual concentration of these compounds in H, AH, TR and YBD tissues and on testing the role of translocation of photoassimilates from H tissues and/or from endolithic algae to YBD tissues. KEY WORDS: Coral diseases · Yellow band disease · Infrared spectroscopy · Tissue composition Full text in pdf format PreviousCite this article as: Guerra M, López MA, Estéves I, Zubillaga AL, Cróquer A (2014) Fourier-transformed infrared spectroscopy: a tool to identify gross chemical changes from healthy to yellow band disease tissues. Dis Aquat Org 107:249-258. https://doi.org/10.3354/dao02680 Export citation RSS - Facebook - Tweet - linkedIn Cited by Published in DAO Vol. 107, No. 3. Online publication date: January 16, 2014 Print ISSN: 0177-5103; Online ISSN: 1616-1580 Copyright © 2014 Inter-Research." @default.
• W2319755236 created "2016-06-24" @default.
• W2319755236 creator A5002699518 @default.
• W2319755236 creator A5016459151 @default.
• W2319755236 creator A5067283541 @default.
• W2319755236 creator A5080165707 @default.
• W2319755236 creator A5089037216 @default.
• W2319755236 date "2014-01-16" @default.
• W2319755236 modified "2023-10-10" @default.
• W2319755236 title "Fourier-transformed infrared spectroscopy: a tool to identify gross chemical changes from healthy to yellow band disease tissues" @default.
• W2319755236 cites W137073254 @default.
• W2319755236 cites W1606315529 @default.
• W2319755236 cites W1637420145 @default.
• W2319755236 cites W182558047 @default.
• W2319755236 cites W1863743272 @default.
• W2319755236 cites W1896651150 @default.
• W2319755236 cites W1963751887 @default.
• W2319755236 cites W1965257919 @default.
• W2319755236 cites W1966535103 @default.
• W2319755236 cites W1968380017 @default.
• W2319755236 cites W1972695404 @default.
• W2319755236 cites W1977561271 @default.
• W2319755236 cites W1981561418 @default.
• W2319755236 cites W1986658525 @default.
• W2319755236 cites W1988350466 @default.
• W2319755236 cites W1989795624 @default.
• W2319755236 cites W1991462310 @default.
• W2319755236 cites W1992045220 @default.
• W2319755236 cites W1992495346 @default.
• W2319755236 cites W1999778012 @default.
• W2319755236 cites W2000291477 @default.
• W2319755236 cites W2001655772 @default.
• W2319755236 cites W2002236818 @default.
• W2319755236 cites W2003089221 @default.
• W2319755236 cites W2003992543 @default.
• W2319755236 cites W2010316956 @default.
• W2319755236 cites W2013719615 @default.
• W2319755236 cites W2015111818 @default.
• W2319755236 cites W2020518532 @default.
• W2319755236 cites W2020697796 @default.
• W2319755236 cites W2022591799 @default.
• W2319755236 cites W2023128531 @default.
• W2319755236 cites W2024353076 @default.
• W2319755236 cites W2024806593 @default.
• W2319755236 cites W2028216346 @default.
• W2319755236 cites W2031214607 @default.
• W2319755236 cites W2049666754 @default.
• W2319755236 cites W2063523235 @default.
• W2319755236 cites W2065050111 @default.
• W2319755236 cites W2065527015 @default.
• W2319755236 cites W2070115520 @default.
• W2319755236 cites W2071637298 @default.
• W2319755236 cites W2078160841 @default.
• W2319755236 cites W2078517931 @default.
• W2319755236 cites W2078981650 @default.
• W2319755236 cites W2079878619 @default.
• W2319755236 cites W2084372590 @default.
• W2319755236 cites W2096513605 @default.
• W2319755236 cites W2098504580 @default.
• W2319755236 cites W2102841584 @default.
• W2319755236 cites W2107011582 @default.
• W2319755236 cites W2115382578 @default.
• W2319755236 cites W2121592635 @default.
• W2319755236 cites W2122097497 @default.
• W2319755236 cites W2124798492 @default.
• W2319755236 cites W2137390833 @default.
• W2319755236 cites W2138638805 @default.
• W2319755236 cites W2144525999 @default.
• W2319755236 cites W2148560792 @default.
• W2319755236 cites W2149343499 @default.
• W2319755236 cites W2158860903 @default.
• W2319755236 cites W2170349982 @default.
• W2319755236 cites W2209720578 @default.
• W2319755236 cites W2339084534 @default.
• W2319755236 cites W310199979 @default.
• W2319755236 cites W4250231532 @default.
• W2319755236 doi "https://doi.org/10.3354/dao02680" @default.
• W2319755236 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/24429476" @default.
• W2319755236 hasPublicationYear "2014" @default.
• W2319755236 type Work @default.
• W2319755236 sameAs 2319755236 @default.
• W2319755236 citedByCount "5" @default.
• W2319755236 countsByYear W23197552362016 @default.
• W2319755236 countsByYear W23197552362017 @default.
• W2319755236 countsByYear W23197552362018 @default.
• W2319755236 countsByYear W23197552362021 @default.
• W2319755236 countsByYear W23197552362023 @default.
• W2319755236 crossrefType "journal-article" @default.
• W2319755236 hasAuthorship W2319755236A5002699518 @default.
• W2319755236 hasAuthorship W2319755236A5016459151 @default.
• W2319755236 hasAuthorship W2319755236A5067283541 @default.
• W2319755236 hasAuthorship W2319755236A5080165707 @default.
• W2319755236 hasAuthorship W2319755236A5089037216 @default.
• W2319755236 hasConcept C120665830 @default.
• W2319755236 hasConcept C121332964 @default.
• W2319755236 hasConcept C143020374 @default.
• W2319755236 hasConcept C160892712 @default.
• W2319755236 hasConcept C18903297 @default.

• next