GNPS - Phenolic compounds from commonly consumed fruits in Brazil
Ontology highlight
ABSTRACT:
INSTRUMENT(S): micrOTOF-Q III
ORGANISM(S): Citrus Sinensis (ncbitaxon:2711) Carica Papaya (ncbitaxon:3649) Musa Acuminata (ncbitaxon:4641) Mangifera Indica (ncbitaxon:29780) Malus Domestica (ncbitaxon:3750)
SUBMITTER: 
Phenolic Lab Brazil
PROVIDER: MSV000094007 | GNPS | Mon Feb 05 06:33:00 GMT 2024
REPOSITORIES: GNPS
Similar Datasets
Project description:EPC and NEPC fraction of 2 varieties of banana, apple, orange, papaya and mango and 30 phenolic compound standards.
2024-02-05 | MSV000094007 | MassIVE
Project description:An Ac/Ds transposon tagged mutant population was screened for changes in visible fruit phenotypes. One line showed orange, yellow sectors in the fruit and was named Orange ripening (Orr), its transposase free offspring showed Mendelian segregation yielding red, yellow and orange fruit bearing plants in a ratio of 1:2:1. Crossing the an orange fruit plant line to the wild-type yielded only plants bearing yellow fruit. A cross between the yellow fruit bearing progeny yielded 26 plants having red and 17 plants having yellow fruit, suggesting an over-dominant allele. Using inverse PCR analysis showed an insertion in the putative subunit M of the tomato Ndh complex. Subsequently, an Orr Ds transposon excision line was recovered which only showed red pigmented fruit. Here, we describe microarray profiling of tomato fruits from wild-type, heterozygous and homozygous Orr insertion plants and from fruits harvested from the Orr excision line. Keywords: mutant wild type
2010-06-05 | GSE22110 | GEO
Project description:An Ac/Ds transposon tagged mutant population was screened for changes in visible fruit phenotypes. One line showed orange, yellow sectors in the fruit and was named Orange ripening (Orr), its transposase free offspring showed Mendelian segregation yielding red, yellow and orange fruit bearing plants in a ratio of 1:2:1. Crossing the an orange fruit plant line to the wild-type yielded only plants bearing yellow fruit. A cross between the yellow fruit bearing progeny yielded 26 plants having red and 17 plants having yellow fruit, suggesting an over-dominant allele. Using inverse PCR analysis showed an insertion in the putative subunit M of the tomato Ndh complex. Subsequently, an Orr Ds transposon excision line was recovered which only showed red pigmented fruit. Here, we describe microarray profiling of tomato fruits from wild-type, heterozygous and homozygous Orr insertion plants and from fruits harvested from the Orr excision line. Keywords: mutant wild type Tomato fruits were harvested at breaker stage using wild-type, ORR homozygouse and heterozygous lines as well as Orr excision lines. To investigate the expression changes in the ORR mutants, wildtype and ORR mutant line fruits were harvested at the breaker stage and subjected to Affymetrix microarray profiling
2010-06-16 | E-GEOD-22110 | biostudies-arrayexpress
Project description:Two varieties of turmeric, FMO (Fat Mild Orange) and TYA (Thin Yellow Aromatic) were compared. Rhizomes were harvested 3, 5, and 7 months after planting, roots were harvested at 7 months, and leaves were harvested at 7 months. Plants were grown under controlled conditions in the greenhouse.
2009-07-09 | GSE16733 | GEO
Project description:Citrate is demonstrated to be an indispensable secondary metabolite in citrus fruit. Citrus citrate content is affected by accumulation, degradation, usage, transport and storage. The detail mechanisms of citrate accumulation are complicated in citrus fruit and there are other regulating pathways that have yet to be discovered. In this study, we utilized genomic expression investigation to gain a deep insight into the citrate-accumulation-related biological processes in sweet orange.
2018-04-30 | GSE80190 | GEO
Project description:In this study, two independent large cohorts of mature dates exhibiting substantial diversity in origin, varieties and fruit processing conditions were measured by metabolomics techniques in order to identify major determinants of the fruit metabotype. Additional samples reflecting different stages of date fruit ripening process has been included for 10 different fruit varieties.
2016-11-14 | ST000508 | MetabolomicsWorkbench
Project description:Global production and demand for tropical fruits continues to grow each year as consumers are enticed by the exotic flavors and potential health benefits that these fruits possess. Volatile sulfur compounds (VSCs) are often responsible for the juicy, fresh aroma of tropical fruits. This poses a challenge for analytical chemists to identify these compounds as most often VSCs are found at low concentrations in most tropical fruits. The aim of this review is to discuss the extraction methods, enrichment techniques, and instrumentation utilized to identify and quantify VSCs in natural products. This will be followed by a discussion of the VSCs reported in tropical and subtropical fruits, with particular attention to the odor and taste attributes of each compound. Finally, the biogenesis and enzymatic formation of specific VSCs in tropical fruits will be highlighted along with the contribution each possesses to the aroma of their respective fruit.
| S-EPMC9322215 | biostudies-literature
Project description:The postharvest senescence processes of citrus fruits were analyzed transcriptomic. The present study was aimed to: further uncover the rind-flesh communication of hesperidium; characterize the differential storage behaviors of different citrus varieties; reveal the important changes during storing process; and demonstrate the specific non-climacteric characteristics of citrus fruits. We chose four major table fruit varieties of citrus: satsuma mandarin (Citrus unshiu Marc) (M), ponkan (Citrus reticulata Blanco) (K), newhall navel orange (Citrus sinensis L. Osbeck) (O) and shatian pummelo (Citrus grandis Osbeck) (P). They were sampled every 10 days during 50 DAH (days after harvest), almost covering the commercial storage period of loose-skin citrus.
2014-12-03 | E-GEOD-63706 | biostudies-arrayexpress
Project description:Somatic embryogenesis in nucellar tissues is widely recognized to induce polyembryony in major citrus varieties such as sweet oranges, satsuma mandarins and lemons. This capability for apomixis is attractive in agricultural production systems using hybrid seeds, and many studies have been performed to elucidate the molecular mechanisms of various types of apomixis. To identify the gene responsible for somatic embryogenesis in citrus, a custom oligo-DNA microarray including predicted genes in the citrus polyembryonic locus was used to compare the expression profiles in reproductive tissues between monoembryonic and polyembryonic varieties. The full length of CitRKD1, which was identified as a candidate gene responsible for citrus somatic embryogenesis, was isolated from satsuma mandarin and its molecular function was investigated using transgenic ‘Hamlin’ sweet orange by antisense-overexpression. The candidate gene CitRKD1, predominantly transcribed in reproductive tissues of polyembryonic varieties, is a member of the plant RWP-RK domain proteins. CitRKD1 of satsuma mandarin comprised two alleles (CitRKD1-mg1 and CitRKD1-mg2) at the polyembryonic locus controlling embryony type (mono/polyembryony) that were structurally divided into two types with or without a miniature inverted-repeat transposable element (MITE)-like insertion in the upstream region. CitRKD1-mg2 with the MITE insertion was the predominant transcript in flowers and young fruits where somatic embryogenesis of nucellar cells occurred. Loss of CitRKD1 function by antisense-overexpression abolished somatic embryogenesis in transgenic sweet orange and the transgenic T1 plants were confirmed to derive from zygotic embryos produced by self-pollination by DNA diagnosis. Genotyping PCR analysis of 95 citrus traditional and breeding varieties revealed that the CitRKD1 allele with the MITE insertion (polyembryonic allele) was dominant and major citrus varieties with the polyembryonic allele produced polyembryonic seeds.
2018-05-31 | GSE115082 | GEO