Literature DB >> 11754543

Differentiation between lutein monoester regioisomers and detection of lutein diesters from marigold flowers (Tagetes erecta L.) and several fruits by liquid chromatography-mass spectrometry.

Dietmar E Breithaupt1, Ursula Wirt, Ameneh Bamedi.   

Abstract

Liquid chromatography-atmospheric pressure chemical ionization mass spectrometry (LC-APCIMS) was employed for the identification of eight lutein monoesters, formed by incomplete enzymatic saponification of lutein diesters of marigold (Tagetes erecta L.) by Candida rugosa lipase. Additionally, the main lutein diesters naturally occurring in marigold oleoresin were chromatographically separated and identified. The LC-MS method allows for characterization of lutein diesters occurring as minor components in several fruits; this was demonstrated by analysis of extracts of cape gooseberry (Physalis peruviana L.), kiwano (Cucumis metuliferus E. Mey. ex Naud.), and pumpkin (Cucurbita pepo L.). The assignment of the regioisomers of lutein monoesters is based on the characteristic fragmentation pattern: the most intense daughter ion generally results from the loss of the substituent (fatty acid or hydroxyl group) bound to the epsilon-ionone ring, yielding an allylic cation. The limit of detection was estimated at 0.5 microg/mL with lutein dimyristate as reference compound. This method provides a useful tool to obtain further insight into the biochemical reactions leading to lutein ester formation in plants.

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Year:  2002        PMID: 11754543     DOI: 10.1021/jf010970l

Source DB:  PubMed          Journal:  J Agric Food Chem        ISSN: 0021-8561            Impact factor:   5.279


  7 in total

1.  A GDSL Esterase/Lipase Catalyzes the Esterification of Lutein in Bread Wheat.

Authors:  Jacinta L Watkins; Ming Li; Ryan P McQuinn; Kai Xun Chan; Heather E McFarlane; Maria Ermakova; Robert T Furbank; Daryl Mares; Chongmei Dong; Kenneth J Chalmers; Peter Sharp; Diane E Mather; Barry J Pogson
Journal:  Plant Cell       Date:  2019-10-01       Impact factor: 11.277

2.  Tropical bat as mammalian model for skin carotenoid metabolism.

Authors:  Ismael Galván; Juan Garrido-Fernández; José Ríos; Antonio Pérez-Gálvez; Bernal Rodríguez-Herrera; Juan José Negro
Journal:  Proc Natl Acad Sci U S A       Date:  2016-09-12       Impact factor: 11.205

3.  Carotenogenesis and chromoplast development during ripening of yellow, orange and red colored Physalis fruit.

Authors:  Xin Wen; Annerose Heller; Kunli Wang; Qianyun Han; Yuanying Ni; Reinhold Carle; Ralf Schweiggert
Journal:  Planta       Date:  2020-04-09       Impact factor: 4.116

4.  Carotenoid Content in Human Colostrum is Associated to Preterm/Full-Term Birth Condition.

Authors:  Ana A O Xavier; Elena Díaz-Salido; Isabel Arenilla-Vélez; Josefa Aguayo-Maldonado; Juan Garrido-Fernández; Javier Fontecha; Alicia Sánchez-García; Antonio Pérez-Gálvez
Journal:  Nutrients       Date:  2018-11-03       Impact factor: 5.717

5.  Heterologous expression of xanthophyll esterase genes affects carotenoid accumulation in petunia corollas.

Authors:  Sanae Kishimoto; Chihiro Oda-Yamamizo; Akemi Ohmiya
Journal:  Sci Rep       Date:  2020-01-28       Impact factor: 4.379

6.  Comparative Study of the Chemical Compositions and Antioxidant Activities of Fresh Juices from Romanian Cucurbitaceae Varieties.

Authors:  Anna Cazanevscaia Busuioc; Andreea-Veronica Dediu Botezatu; Bianca Furdui; Costel Vinatoru; Filippo Maggi; Giovanni Caprioli; Rodica-Mihaela Dinica
Journal:  Molecules       Date:  2020-11-23       Impact factor: 4.411

7.  Lutein, zeaxanthin and meso-zeaxanthin content of eggs laid by hens supplemented with free and esterified xanthophylls.

Authors:  John M Nolan; Katherine A Meagher; Alan N Howard; Rachel Moran; David I Thurnham; Stephen Beatty
Journal:  J Nutr Sci       Date:  2016-01-08
  7 in total

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