Dataset's files
| Action | DRS | |||
|---|---|---|---|---|
| SRR33097638_1.fastq.gz | Fastqsanger.gz | |||
| SRR33097638_2.fastq.gz | Fastqsanger.gz | |||
| SRR33097639_1.fastq.gz | Fastqsanger.gz | |||
| SRR33097639_2.fastq.gz | Fastqsanger.gz | |||
| SRR33097640_1.fastq.gz | Fastqsanger.gz |
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Project description:Purpose: the goals of this study are to compare fruit of two clitivars oriental melon transcriptome profiling (RNA-seq) at different stages to explore carotenoid potentail carotenoid accumulation mechanism Methods:The transcriptome sequence of two cultivars oriental melon fruits at different stages were generated by deep sequencing with three repeats using Illumina. The sequence reads that passed filters were mapped to melon genome (http://cucurbitgenomics.org/organism/18) using HISAT2 software. The differently expressed genes were identify by |log2(FoldChange)| > 0 & padj <= 0.05, and qRT–PCR validation was performed using SYBR Green assays Result:Using an optimized data analysis workflow, we mapped about 40 million sequence reads per sample to the melon genome. The differentially expressed genes were functionally classified by GO and KEGG enrichment. We focused on carotenoid metabolism related gene and validated using qRT-PCR. The results showed RNA-seq and qRT-PCR were highly correlated. Conclusion: Our study provided transcriptome sequence of oriental melon fruits at different stages in two cultivars. The optimized data analysis workflows reported here should provide comparative framework of expression profiles. Our transcriptome characterization contribute to analyze gene functions and metabolic process of oriental melon.
2022-01-13 | GSE193412 | GEO
Project description:RNA-seq data of melon leaves and fruits at multiple developmental stages
| PRJNA737338 | ENA
Project description:Sugar content is one of significant marks of fruit quality, and understanding the regulatory mechanism of sucrose accumulation is fundamental for breeding excellent melon fruit. As indicated by the co-expression network analysis, we distinguished a MYB transcription factor, CmMYB113, whose expression responds to oriental melon (‘HS’ (high-sucrose cultivar) and ‘LW’ (low-sucrose cultivar)) fruit ripening. Agrobacterium-mediated transient transformation injection and stable genetic transformation system confirmed that CmMYB113 promoted the sucrose accumulation and ethylene synthesis by up-regulating the expression of CmACO1 and CmSPS1 in oriental melon fruit. What’s more, we also identified a MADS transcription factor from the transcriptome, CmMADS26, which is highly expressed during melon fruit ripening. Intriguingly, CmMADS26 could directly bind to the promoter of CmACO1 to promote its transcription, and CmMYB113 physically interacted with CmMADS26 in yeast and tobacco leaves. Our findings give new bits of knowledge into the regulatory mechanisms by which MYB and MADS transcription factors interact to regulate melon fruit ripening and sucrose accumulation.
2025-08-01 | GSE270539 | GEO
Project description:Investigation gene expression level changes in four different melon fruits at four different developmental satges Transcriptomic analysis of developing melon fruits from two climacteric (cvs. Védrantais and Dulce) and two non-climacteric (cv. Piel de sapo and accession PI 161375) at 15, 25, 35 Days After Pollination (DAP) and Harvest stage
2015-06-01 | GSE62560 | GEO
Project description:RNA-seq data of melon fruits produced in different locations
| PRJNA947913 | ENA
Project description:cDNA libraries of Melon leaves and fruits at the different stage
2021-06-15 | GSE178084 | GEO
Project description:Melon (Cucumis melo L.) is a commercially important fruit crop that is cultivated worldwide. The melon research community has recently benefited from the determination of a complete draft genome sequence and the development of associated genomic tools, which have allowed us to focus on small RNAs (sRNAs). These are short, non-coding RNAs 21â24 nucleotides in length with diverse physiological roles. In plants, they regulate gene expression and heterochromatin assembly, and control protection against virus infection. Much remains to be learned about the role of sRNAs in melon. We constructed 10 sRNA libraries from two stages of developing ovaries, fruits and photosynthetic cotyledons infected with viruses, and carried out high-throughput pyrosequencing. We catalogued and analyzed the melon sRNAs, resulting in the identification of 26 known miRNA families (many conserved with other species), the prediction of 84 melon-specific miRNA candidates, the identification of trans-acting siRNAs, and the identification of chloroplast, mitochondrion and transposon-derived sRNAs. In silico analysis revealed more than 400 potential targets for the conserved and novel miRNAs. This analysis provides insight into the composition and function of the melon small RNAome, and paves the way towards an understanding of sRNA-mediated processes that regulate melon fruit development and melonâvirus interactions.
2011-08-03 | GSE28653 | GEO
Project description:cDNA libraries of Melon fruits produced in different locations in the USA
2024-03-01 | GSE228039 | GEO
Project description:Melon (Cucumis melo L.) is a commercially important fruit crop that is cultivated worldwide. The melon research community has recently benefited from the determination of a complete draft genome sequence and the development of associated genomic tools, which have allowed us to focus on small RNAs (sRNAs). These are short, non-coding RNAs 21â24 nucleotides in length with diverse physiological roles. In plants, they regulate gene expression and heterochromatin assembly, and control protection against virus infection. Much remains to be learned about the role of sRNAs in melon. We constructed 10 sRNA libraries from two stages of developing ovaries, fruits and photosynthetic cotyledons infected with viruses, and carried out high-throughput pyrosequencing. We catalogued and analyzed the melon sRNAs, resulting in the identification of 26 known miRNA families (many conserved with other species), the prediction of 84 melon-specific miRNA candidates, the identification of trans-acting siRNAs, and the identification of chloroplast, mitochondrion and transposon-derived sRNAs. In silico analysis revealed more than 400 potential targets for the conserved and novel miRNAs. This analysis provides insight into the composition and function of the melon small RNAome, and paves the way towards an understanding of sRNA-mediated processes that regulate melon fruit development and melonâvirus interactions. 11 small RNA libraries from several tissues of melon are included en the raw data. 2 samples from ovary, 2 samples from fruit, 1 sample from healthy cotyledons (Cultivar Tendral), 1 samples from healthy cotyledons (genotype TGR-1551), 1 sample from cotyledons (cultivar Tendral) infected with Watermelon mosaic virus (WMV), 1 sample from cotyledons (cultivar TGR-1551) infected with WMV, 1 sample from cotyledons (cultivar Tendral) infected with Melon necrotic spot virus (MNSV, Malfa5 isolate), 1 sample from cotyledons (cultivar Tendral) infected with MNSV (chimeric virus with Malfa5-264 isolates), 1 library from synthetic RNA oligos. Raw reads were obtained from two independent 454 runs, ~22,000 reads each one, to a total of 447,180 reads
2011-08-03 | E-GEOD-28653 | biostudies-arrayexpress
Project description:Melon is a globally commercialized fruit, and Fusarium rot disease poses a significant threat to post-harvest losses. The conventional use of fungicides raises concerns about chemical residues, prompting exploration into alternative technologies such as Pulsed Light (PL). While PL has been effective in controlling infections in various fruits and vegetables, the precise physiological responses and molecular mechanisms in melon fruits remain incompletely understood. In this study, melon fruits infected with the Fusarium pallidoroseum were treated with different doses of PL (0, 6, 9, and 12 J cm-2), and the impact on both fungal control and fruit shelf life extension was investigated. The 9 J cm-2 dose emerged as the most effective in controlling fungal growth without causing damage, inducing beneficial responses. This optimal PL dose upregulated genes in the lignan biosynthesis pathway and the infection upregulated genes involved with systemic acquired resistance, triggered by the pipecolic acid. In this way, the PL treatment and the infection trigger a double mechanism of resistance in melon fruits. A second and third experiment focused on evaluating the extension of melon fruit shelf life and the safe manipulation window post-PL treatment. The results revealed an average shelf life extension of six days and a safe manipulation period of 24 hours. The extension in shelf life was associated with a deviation in information flux from the ethylene biosynthesis to upregulation of the polyamine biosynthesis pathway, which produces nitric oxide, a product that can inhibit ethylene biosynthesis and its action. Furthermore, the observed 24-hour safety period against fungal infection post-PL treatment was characterized as a memory response resistance caused by the upregulation of lignan biosynthesis, which is a potential and efficient alternative to chemical products like fungicides. Overall, this study provides insights into the transcriptional molecular mechanisms through which PL promotes systemic acquired resistance and extends the shelf life of melon fruits.
2024-02-25 | GSE256527 | GEO