Cucumis melo: A plant species of the family CUCURBITACEAE, order Violales, subclass Dilleniidae known for the melon fruits with reticulated (net) surface including cantaloupes, honeydew, casaba, and Persian melons.Cucumis: A plant genus of the family CUCURBITACEAE, order Violales, subclass Dilleniidae best known for cucumber (CUCUMIS SATIVUS) and cantaloupe (CUCUMIS MELO). Watermelon is a different genus, CITRULLUS. Bitter melon may refer to MOMORDICA or this genus.Cucurbitaceae: The gourd plant family of the order Violales, subclass Dilleniidae, class Magnoliopsida. It is sometimes placed in its own order, Cucurbitales. 'Melon' generally refers to CUCUMIS; CITRULLUS; or MOMORDICA.Cucumis sativus: A creeping annual plant species of the CUCURBITACEAE family. It has a rough succulent, trailing stem and hairy leaves with three to five pointed lobes.Citrullus: A plant genus of the family CUCURBITACEAE known for the edible fruit.Persia: An ancient civilization, known as early as 2000 B.C. The Persian Empire was founded by Cyrus the Great (550-529 B.C.) and for 200 years, from 550 to 331 B.C., the Persians ruled the ancient world from India to Egypt. The territory west of India was called Persis by the Greeks who later called the entire empire Persia. In 331 B.C. the Persian wars against the Greeks ended disastrously under the counterattacks by Alexander the Great. The name Persia in modern times for the modern country was changed to Iran in 1935. (From Webster's New Geographical Dictionary, 1988, p546 & Asimov, Words on the Map, 1962, p176)Fruit: The fleshy or dry ripened ovary of a plant, enclosing the seed or seeds.Gardening: Cultivation of PLANTS; (FRUIT; VEGETABLES; MEDICINAL HERBS) on small plots of ground or in containers.Seeds: The encapsulated embryos of flowering plants. They are used as is or for animal feed because of the high content of concentrated nutrients like starches, proteins, and fats. Rapeseed, cottonseed, and sunflower seed are also produced for the oils (fats) they yield.Momordica charantia: A plant species of the family CUCURBITACEAE. It is a source of ribosome-inactivating proteins and triterpene glycosides.Momordica: A plant genus of the family CUCURBITACEAE. It is a source of momordin.Silicon Dioxide: Transparent, tasteless crystals found in nature as agate, amethyst, chalcedony, cristobalite, flint, sand, QUARTZ, and tridymite. The compound is insoluble in water or acids except hydrofluoric acid.

Molecular and genetic characterization of a non-climacteric phenotype in melon reveals two loci conferring altered ethylene response in fruit. (1/79)

Fruit ripening and abscission are associated with an ethylene burst in several melon (Cucumis melo) genotypes. In cantaloupe as in other climacteric fruit, exogenous ethylene can prematurely induce abscission, ethylene production, and ripening. Melon genotypes without fruit abscission or without ethylene burst also exist and are, therefore, non-climacteric. In the nonabscising melon fruit PI 161375, exogenous ethylene failed to stimulate abscission, loss of firmness, ethylene production, and expression of all target genes tested. However, the PI 161375 etiolated seedlings displayed the usual ethylene-induced triple response. Genetic analysis on a population of recombinant cantaloupe Charentais x PI 161375 inbred lines in segregation for fruit abscission and ethylene production indicated that both characters are controlled by two independent loci, abscission layer (Al)-3 and Al-4. The non-climacteric phenotype in fruit tissues is attributable to ethylene insensitivity conferred by the recessive allelic forms from PI 161375. Five candidate genes (two ACO, two ACS, and ERS) that were localized on the melon genetic map did not exhibit colocalization with Al-3 or Al-4.  (+info)

Characterization of an abscisic acid responsive gene homologue from Cucumis melo. (2/79)

A cDNA and genomic DNA encoding an abscisic acid responsive gene (ASR) homologue (Asr1) was isolated from an inodorus melon, Cucumis melo var. kuwata, cDNA and genomic library. The Asr1 gene showed the strongest fruit-specific expression and differential expression profiles during fruit development, which were expressed from a low copy gene. The promoter region of the Asr1 gene contained several putative functional cis-elements, which may be involved in the response to plant hormones and environmental stresses. These results suggest that Asr1 may play an important role in the regulation of melon fruit ripening.  (+info)

Multistate outbreaks of Salmonella serotype Poona infections associated with eating cantaloupe from Mexico--United States and Canada, 2000-2002. (3/79)

Three multistate outbreaks of Salmonella serotype Poona infections associated with eating cantaloupe imported from Mexico occurred in the spring of consecutive years during 2000-2002. In each outbreak, the isolates had indistinguishable pulsed-field gel electrophoresis (PFGE) patterns; the PFGE patterns observed in the 2000 and 2002 outbreaks were indistinguishable, but the pattern from 2001 was unique among them. Outbreaks were identified first by the California Department of Health Services (2000 and 2001) and the Washington State Department of Health (2002) and involved residents of 12 states and Canada. This report describes the investigations, which led ultimately to an import alert on cantaloupes from Mexico. To limit the potential for cantaloupe contamination, the Food and Drug Administration (FDA) continues to work with the Mexican government on a food-safety program for the production, packing, and shipping of fresh cantaloupes.  (+info)

Sphingomonas melonis sp. nov., a novel pathogen that causes brown spots on yellow Spanish melon fruits. (4/79)

A polyphasic taxonomic study was performed on the phytopathogenic bacterial strains DAPP-PG 224(T) and DAPP-PG 228, which cause brown spot on yellow Spanish melon (Cucumis melo var. inodorus) fruits. Based on the presence of glucuronosyl ceramide (SGL-1) in cellular lipids, the results of fatty acid analysis and 16S rDNA sequence comparison, the strains had been identified as belonging to the genus Sphingomonas and as phylogenetically related to Sphingomonas mali, Sphingomonas pruni and Sphingomonas asaccharolytica. The levels of 16S rDNA sequence similarity of these three species to strain DAPP-PG 224(T) were respectively 98.0, 98.0 and 97.4%. DNA-DNA hybridization experiments between strains pathogenic on melon fruit and S. mali, S. pruni and S. asaccharolytica revealed < or = 16% relatedness. Based on these results, the two isolates studied are regarded as independent from the type strains of the three species mentioned above. Sphingomonas strains from melon fruits are recognized as forming a genetically and phenotypically discrete species and to be differentiated by phenotypic characteristics from all 29 named species of the genus. Thus, the name Sphingomonas melonis sp. nov. is proposed for the isolates from diseased melon fruits. The type strain is DAPP-PG 224(T) (= LMG 19484(T) = DSM 14444(T)). The G+C content of DNA of the type strain is 65.0 mol%.  (+info)

Powdery mildew (Sphaerotheca fuliginea) resistance in melon is selectable at the haploid level. (5/79)

The major cause of powdery mildew in melons (Cucumis melo L.) is the fungus Sphaerotheca fuliginea. There are several cultivar- and season-specific races of this fungus. In order to control powdery mildew, it is important to introduce resistance to fungal infection into new cultivars during melon breeding. Haploid breeding is a powerful tool for the production of pure lines. In this study, it was investigated whether powdery mildew resistance could be manifested at the haploid level from two disease-resistant melon lines, PMR 45 and WMR 29. the effects of various races of S. fuliginea on diploid and haploid plants of PMR 45 and WMR 29 and of a disease-susceptible line, Fuyu 3 were measured. The responses of haploid and diploid plants to powdery mildew were identical. In addition, haploids that were generated from hybrids between Fuyu 3 and disease-resistant lines were examined. Seven out of 13 haploids from a Fuyu 3xPMR 45 cross and 10 out of 12 haploids from a Fuyu 3xWMR 29 cross were classified as resistant plants because they showed the same responses as their disease-resistant diploid parents to the various fungal races. These results indicate that resistance in PMR 45 and WMR 29 is selectable at the haploid level. All of the plant responses were observed by microscopy. A possible mechanism for generating powdery mildew resistance in two different melon lines is discussed.  (+info)

The folate precursor p-aminobenzoate is reversibly converted to its glucose ester in the plant cytosol. (6/79)

Plants synthesize p-aminobenzoate (pABA) in chloroplasts and use it for folate synthesis in mitochondria. It has generally been supposed that pABA exists as the free acid in plant cells and that it moves between organelles in this form. Here we show that fruits and leaves of tomato and leaves of a diverse range of other plants have a high capacity to convert exogenously supplied pABA to its beta-D-glucopyranosyl ester (pABA-Glc), whereas yeast and Escherichia coli do not. High performance liquid chromatography analysis indicated that much of the endogenous pABA in fruit and leaf tissues is esterified and that the total pool of pABA (free plus esterified) varies greatly between tissues (from 0.2 to 11 nmol g-1 of fresh weight). UDP-glucose:pABA glucosyltransferase activity was readily detected in fruit and leaf extracts, and the reaction was found to be freely reversible. p-Aminobenzoic acid beta-D-glucopyranosyl ester esterase activity was also detected in extracts. Subcellular fractionation indicated that the glucosyltransferase and esterase activities are predominantly if not solely cytosolic. Taken together, these results show that reversible formation of pABA-Glc in the cytosol is interposed between pABA production in chloroplasts and pABA consumption in mitochondria. As pABA is a hydrophobic weak acid, its uncharged form is membrane-permeant, and its anion is consequently prone to distribute itself spontaneously among subcellular compartments according to their pH. Esterification of pABA may eliminate such errant behavior and provide a readily reclaimable storage form of pABA as well as a substrate for membrane transporters.  (+info)

Ingestion of Salmonella enterica serotype Poona by a free-living mematode, Caenorhabditis elegans, and protection against inactivation by produce sanitizers. (7/79)

Free-living nematodes are known to ingest food-borne pathogens and may serve as vectors to contaminate preharvest fruits and vegetables. Caenorhabditis elegans was selected as a model to study the effectiveness of sanitizers in killing Salmonella enterica serotype Poona ingested by free-living nematodes. Aqueous suspensions of adult worms that had fed on S. enterica serotype Poona were treated with produce sanitizers. Treatment with 20 microg of free chlorine/ml significantly (alpha = 0.05) reduced the population of S. enterica serotype Poona compared to results for treating worms with water (control). However, there was no significant difference in the number of S. enterica serotype Poona cells surviving treatments with 20 to 500 microg of chlorine/ml, suggesting that reductions caused by treatment with 20 microg of chlorine/ml resulted from inactivation of S. enterica serotype Poona on the surface of C. elegans but not cells protected by the worm cuticle after ingestion. Treatment with Sanova (850 or 1,200 microg/ml), an acidified sodium chlorite sanitizer, caused reductions of 5.74 and 6.34 log(10) CFU/worm, respectively, compared to reductions from treating worms with water. Treatment with 20 or 40 microg of Tsunami 200/ml, a peroxyacetic acid-based sanitizer, resulted in reductions of 4.83 and 5.34 log(10) CFU/worm, respectively, compared to numbers detected on or in worms treated with water. Among the organic acids evaluated at a concentration of 2%, acetic acid was the least effective in killing S. enterica serotype Poona and lactic acid was the most effective. Treatment with up to 500 microg of chlorine/ml, 1% hydrogen peroxide, 2,550 microg of Sanova/ml, 40 microg of Tsunami 200/ml, or 2% acetic, citric, or lactic acid had no effect on the viability or reproductive behavior of C. elegans. Treatments were also applied to cantaloupe rind and lettuce inoculated with S. enterica serotype Poona or C. elegans that had ingested S. enterica serotype Poona. Protection of ingested S. enterica serotype Poona against sanitizers applied to cantaloupe was not evident; however, ingestion afforded protection of the pathogen on lettuce. These results indicate that S. enterica serotype Poona ingested by C. elegans may be protected against treatment with chlorine and other sanitizers, although the basis for this protection remains unclear.  (+info)

Plant eR genes that encode photorespiratory enzymes confer resistance against disease. (8/79)

Downy mildew caused by the oomycete pathogen Pseudoperonospora cubensis is a devastating foliar disease of cucurbits worldwide. We previously demonstrated that the wild melon line PI 124111F (PI) is highly resistant to all pathotypes of P. cubensis. That resistance was controlled genetically by two partially dominant, complementary loci. Here, we show that unlike other plant disease resistance genes, which confer an ability to resist infection by pathogens expressing corresponding avirulence genes, the resistance of PI to P. cubensis is controlled by enhanced expression of the enzymatic resistance (eR) genes At1 and At2. These constitutively expressed genes encode the photorespiratory peroxisomal enzyme proteins glyoxylate aminotransferases. The low expression of At1 and At2 in susceptible melon lines is regulated mainly at the transcriptional level. This regulation is independent of infection with the pathogen. Transgenic melon plants overexpressing either of these eR genes displayed enhanced activity of glyoxylate aminotransferases and remarkable resistance against P. cubensis. The cloned eR genes provide a new resource for developing downy mildew-resistant melon varieties.  (+info)

  • The Jenny Lind Melon (Cucumis melo) is an heirloom cantaloupe first introduced in the 1840s. (wikipedia.org)
  • TY - JOUR T1 - Clinical characteristics of melon (Cucumis melo) allergy. (unboundmedicine.com)
  • Plantas hospederas de los virus mas importantes que infectan el melon, Cucumis melo (Cucurbitaceae) en Costa Rica. (thefreedictionary.com)
  • The effects of grafting on physiological characters of melon (Cucumis melo) seedlings under copper stress were investigated with Pumpkin Jingxinzhen No.3 as stock and oriental melon IVF09 as scion. (ebscohost.com)
  • Influence of selenium on growth, lipid peroxidation and antioxidative enzyme activity in melon (Cucumis melo L.) seedlings under salt stress. (ebscohost.com)
  • The objective of this study was to investigate the effect of exogenous selenium (Se) supply (0, 2, 4, 8, 16 μM) on the growth, lipid peroxidation and antioxidative enzyme activity of 100 mM NaCl-stressed melon (Cucumis melo L.) seedlings. (ebscohost.com)
  • Physiological and photosynthetic responses of melon ( Cucumis melo L.) seedlings to three Glomus species under water deficit. (ebscohost.com)
  • Melon ( Cucumis melo L.)-an important horticultural crop that is often cultivated in simply equipped solar greenhouses in northwestern regions of China-usually suffers under poor water management. (ebscohost.com)
  • Eight fungi isolates were obtained from Fusarium-infected Cucumis melo (melon) plants and their rhizosphere soils. (ebscohost.com)
  • In order to distinguish differential response components in grafted melon (Cucumis melo L.), salt stress was imposed on several rootstock-scion combinations in four experiments. (ebscohost.com)
  • Production of melon (Cucumis melo) may be limited by excesses of boron and salinity, and it was hypothesized that melon grafted ontoCucurbitarootstock would be more tolerant to excessive boron concentrations than non-grafted plants. (ebscohost.com)
  • Inheritance of beta-carotene-associated mesocarp color and fruit maturity of melon ( Cucumis melo L. (springer.com)
  • Morphological characterization of snake melon (Cucumis melo var. (semanticscholar.org)
  • Bin mapping of genomic and EST-derived SSRs in melon (Cucumis melo L. (semanticscholar.org)
  • The genome of the melon ( Cucumis melo L.) double-haploid line DHL92 was recently sequenced, with 87.5 and 80.8% of the scaffold assembly anchored and oriented to the 12 linkage groups, respectively. (biomedcentral.com)
  • Melon ( Cucumis melo L.) is a highly diversified species that is cultivated worldwide, with more than 31 million tons produced in 2011 ( http://faostat.fao.org ). (biomedcentral.com)
  • An improved assembly and annotation of the melon (Cucumis melo L.) reference genome. (diagenode.com)
  • We report an improved assembly (v3.6.1) of the melon (Cucumis melo L.) genome and a new genome annotation (v4.0). (diagenode.com)
  • Phenolic profile and antioxidant activity from peels and seeds of melon (Cucumis melo L. var. (bvsalud.org)
  • This study was performed in 18 different tigger melon ( CUCUMİS MELO DUDAİM ) genotypes which were collected from the various villages of İdil/Sirnak. (iiste.org)
  • The honeydew melon is one of the two main cultivar types in Cucumis melo Inodorus Group. (wikipedia.org)
  • 1. A variety of melon (Cucumis melo) having a tan rind with netlike ridges and sweet fragrant orange flesh. (thefreedictionary.com)
  • Melon , ( Cucumis melo ), trailing vine in the gourd family ( Cucurbitaceae ), grown for its often musky-scented edible fruit . (britannica.com)
  • A climacteric aromatic near-isogenic line (NIL) of melon ( Cucumis melo L.) SC3-5-1 contained an introgression of the non-climacteric Korean cultivar "Shongwan Charmi" accession PI 161375 (SC) in the genetic background of the non-climacteric cultivar "Piel de Sapo" (PS). (mdpi.com)
  • Saglam N, Yazgan A. The effects of sowing date and harvesting intervals on the yield of snake cucumber (Cucumis melon var. (journalajahr.com)
  • Melon (Cucumis melo L. (csic.es)
  • Cantaloupe (also known as muskmelon (India and the United States), mushmelon, rockmelon, sweet melon, or spanspek (South Africa)) refers to a variety of the Cucumis melo species in the Cucurbitaceae family. (wikipedia.org)
  • However, in more recent usage it has come to mean any orange-fleshed melon of C. melo, and has become the most popular melon in North America. (wikipedia.org)
  • Melon "Cucumis melo var. (wikipedia.org)
  • The gummy stem blight ( Didymella bryoniae ) and the downy mildew ( Pseudoperonospora cubensis ) are two foremost melon ( Cucumis melo ) diseases, considering their effects on yield and fruit quality. (scielo.br)
  • melon (Cucumis melo), cucumber (Cucumis sativus), and squash (Cucurbita spp. (usda.gov)
  • Comparison of Different Methods for Separation of Haploid Embryo Induced through Irradiated Pollen and Their Economic Analysis in Melon (Cucumis melo var. (hindawi.com)
  • Melon ( Cucumis melo L.), which belongs to the Cucurbitaceae family, is one of the important vegetables because of a rapid increase in its production and nutrient value. (hindawi.com)
  • It is considered to be an endemic virus in greenhouses and field productions of Cucurbitaceae crops, including melon (Cucumis melo), cucumber (Cucumbis sativus), and watermelon (Citrullus lanatus). (wikipedia.org)
  • Carotene and novel apocarotenoid concentrations in orange-fleshed Cucumis melo melons: determinations of β-carotene bioaccessibility and bioavailab. (nih.gov)
  • It is unlikely that Daucus carota and Cucumis melo are true hosts of this species, which usually develops on grasses. (thefreedictionary.com)
  • EN] Background: In climacteric fruit-bearing species, the onset of fruit ripening is marked by a transient rise in respiration rate and autocatalytic ethylene production, followed by rapid deterioration in fruit quality. (upv.es)
  • Thus, in vitro regulatory and kinetic properties of source leaf stachyose synthase are similar between species or cultivars of Cucumis which are predicted to differ significantly in sink carbohydrate metabolism. (illinois.edu)
  • The studies on cucumis sp for the application of DNA barcode shows the possibility of discrimination at species level not the varietal level using the matK gene barcode. (slideshare.net)
  • The study titled "Anti-oxidant and anti-inflammatory properties of a Cucumis melo extract rich in superoxide dismutase activity (SOD/Gliadin)" confirms the clinically important role that SOD/gliadin plays as a nutraceutical ingredient. (thefreedictionary.com)
  • Birdsnest) genotypes of C. melo was separated completely from galactosidase and galactohydrolase activity via MONO Q anion exchange chromatography. (illinois.edu)
  • The Facts: However, what Americans call cantaloupes are actually muskmelons, a different variety of Cucumis melo , in the same family as cucumbers, squash and pumpkins. (thefreedictionary.com)
  • Phloem specific aphid resistance in Cucumis melo line AR5: effects on feeding behaviour and performance of Aphis gossypii. (thefreedictionary.com)
  • The two C. melo varieties I favor are 'Maverick' (Johnny's #2691, 75 days, Internet only in 2012) and 'Hannah's Choice' (Fedco 1049HC, 87 days). (mofga.org)
  • Cantaloupe (Cucumis melo L.) that were stunted, with severe fruit malformation and distortion of leaves with yellow mosaic, vein clearing, and enation were found in the Tecoman Valley of the state of Colima, Mexico, from January to May 1993. (apsnet.org)
  • BackgroundMelon (Cucumis melo L.) is a commercially important fruit crop that is cultivated worldwide. (semanticscholar.org)
  • Cantaloupe is the fruit of the plant Cucumis melo that is native to Persia (current day Iran), India and Africa. (hubpages.com)
  • https://www.ippc.int/en/publications/85943/ and the treatment codes are provided. (ippc.int)
  • Expression Profiling of MLO Family Genes under Podosphaera xanthii Infection and Exogenous Application of Phytohormones in Cucumis melo L. (koreascience.or.kr)
  • Eleven CmMLO genes were up-regulated under salicylic acid treatment, and 7 were up-regulated under methyl jasmonate treatments in C. melo L. Taken together, these stress-responsive CmMLO genes might be useful resources for the development of powdery mildew disease resistant C. melo L. (koreascience.or.kr)