Size distribution of the unigenes and CDS.

<p>The blue and red bars indicate unigene and CDS, respectively.</p

SNP statistical information based on mapping <i>C. frutescens</i> reads in reference to <i>C. annuum</i> contigs.

<p>SNP statistical information based on mapping <i>C. frutescens</i> reads in reference to <i>C. annuum</i> contigs.</p

Identity new transcripts (genes) on the capsaicinoids biosynthetic pathway.

<p>Identity new transcripts (genes) on the capsaicinoids biosynthetic pathway.</p

<em>De Novo</em> Transcriptome Assembly in Chili Pepper (<em>Capsicum frutescens</em>) to Identify Genes Involved in the Biosynthesis of Capsaicinoids

<div><p>The capsaicinoids are a group of compounds produced by chili pepper fruits and are used widely in many fields, especially in medical purposes. The capsaicinoid biosynthetic pathway has not yet been established clearly. To understand more knowledge in biosynthesis of capsaicinoids, we applied RNA-seq for the mixture of placenta and pericarp of pungent pepper (<em>Capsicum frutescens</em> L.). We have assessed the effect of various assembly parameters using different assembly software, and obtained one of the best strategies for <em>de novo</em> assembly of transcriptome data. We obtained a total 54,045 high-quality unigenes (transcripts) using Trinity software. About 92.65% of unigenes showed similarity to the public protein sequences, genome of potato and tomato and pepper (<em>C. annuum</em>) ESTs databases. Our results predicted 3 new structural genes (DHAD, TD, PAT), which filled gaps of the capsaicinoid biosynthetic pathway predicted by Mazourek, and revealed new candidate genes involved in capsaicinoid biosynthesis based on KEGG (Kyoto Encyclopedia of Genes and Genomes) analysis. A significant number of SSR (Simple Sequence Repeat) and SNP (Single Nucleotide Polymorphism) markers were predicted in <em>C. frutescens</em> and <em>C. annuum</em> sequences, which will be helpful in the identification of polymorphisms within chili pepper populations. These data will provide new insights to the pathway of capsaicinoid biosynthesis and subsequent research of chili peppers. In addition, our strategy of <em>de novo</em> transcriptome assembly is applicable to a wide range of similar studies.</p> </div

The number of SSR in all unigenes and CDS.

<p>The blue bar represents SSR markers in all unigenes, and the red bar represents SSR markers in CDS.</p

Comparison of <i>de novo</i> assembly using Trinity and Velvet-oases programs.

*<p>Represents the number of contigs that at less 200 bp in length.</p>#<p>represents the result of TIGCL and Phrap for reduce the redundancy after Trinity with 25-mer assembly.</p

Illustrated the partly distribution (ratio of alignment/short no less than 0.8) of homologous length and aligned length.

<p>The X axis represents the ratio is length of pepper EST/unigene length, the Y axis is represents the ratio of alignment length/shorter between pepper EST and unigene.</p

The results of annotation on unigenes by different databases.

<p>Note:</p>1<p>presents the unigenes annotated by whole protein sequences using blastx,</p>2<p>presents the unigenes annotated by whole genome using blat.</p

Table_1_Overexpression of CsCaM3 Improves High Temperature Tolerance in Cucumber.docx

<p>High temperature (HT) stress affects the growth and production of cucumbers, but genetic resources with high heat tolerance are very scarce in this crop. Calmodulin (CaM) has been confirmed to be related to the regulation of HT stress resistance in plants. CsCaM3, a CaM gene, was isolated from cucumber inbred line “02-8.” Its expression was characterized in the present study. CsCaM3 transcripts differed among the organs and tissues of cucumber plants and could be induced by HTs or abscisic acid, but not by salicylic acid. CsCaM3 transcripts exhibited subcellular localization to the cytoplasm and nuclei of cells. Overexpression of CsCaM3 in cucumber plants has the potential to improve their heat tolerance and protect against oxidative damage and photosynthesis system damage by regulating the expression of HT-responsive genes in plants, including chlorophyll catabolism-related genes under HT stress. Taken together, our results provide useful insights into stress tolerance in cucumber.</p

Additional file 1: of Inhibiting YAP expression suppresses pancreatic cancer progression by disrupting tumor-stromal interactions

Table S1. A list of the utilized primary antibodies. Table S2. Primers sequences for real-time PCR analysis. (DOCX 18 kb