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Tutorial RNASeq for detection of pre-tumoral biomarkers using a group case study of Proliferative Verrucous Leukoplakia

  1. Página Principal
  2. Nuestros cursos
  3. RNASeq Leukoplakia
  4. 1.2 - Tutorial material and case study
◄1. PRELIMINARY INFORMATION2. STEP-BY-STEP MODE TUTORIAL►
  • CONTENTS
  • 1. PRELIMINARY INFORMATION
    • 1.1 - Tutorial objective
    • 1.2 - Tutorial material and case study
    • 1.3 - Experiment design and support
    • 1.4 - Installing and activating RNASeq and the Server-Side
  • 2. STEP-BY-STEP MODE TUTORIAL
    • 2.1. - TOPHAT/HISAT2 & CUFFLINKS
      • 2.1.1 - Preparing your experiment
      • 2.1.2 - Quality analysis and preprocessing
      • 2.1.3 - Mapping
      • 2.1.4 - Transcriptome Assembly
      • 2.1.5 - Differential Expression analysis
      • 2.1.6 - GOSeq
  • 3. PIPELINE MODE TUTORIAL
    • 3.1 - TopHat/Hisat2 & Cufflinks protocol
  • 4. ACKNOWLEDGEMENTS
  • 5. BIBLIOGRAPHY
  • CITE US
  • 1.2 - Tutorial material and case study

    Within this tutorial, we use data from a group case study of comparative transcriptomics based on 15 oral biopsies from 10 human patients with Proliferative Verrucous Leukoplakia (PLV) lesions and from the mucosa of 5 healthy individuals. The study was previously published in (Llorens, et al., 2021) based on the research Professor Jose Vte Bagan from the University of Valencia.
    In Table 1, we provide the 15 fastq files with the following SRA Accessions, a summarization of each group and the assignation of samples per group.


                                                    Table 1: Samples and case study groups
    SRA accession Library Names Groups
    SAMN13426702 JVB-R1_S1_R1_001.fastq PVL
    SAMN13426703   JVB-R2_S2_R1_001.fastq PVL
    SAMN13426704  JVB-R3_S8_R1_001.fastq PVL
    SAMN13426705  JVB-R4_S9_R1_001.fastq PVL
    SAMN13426706 JVB-R5_S3_R1_001.fastq PVL
    SAMN13426707 JVB-R6_S4_R1_001.fastq PVL
    SAMN13426708  JVB-R7_S10_R1_001.fastq PVL
    SAMN13426709  JVB-R8_S11_R1_001.fastq PVL
    SAMN13426710  JVB-R9_S5_R1_001.fastq PVL
    SAMN13426711  JVB-R10_S12_R1_001.fastq PVL
    SAMN13426712  JVB-R11_S6_R1_001.fastq control
    SAMN13426713  JVB-R12_S7_R1_001.fastq control
    SAMN13426714  JVB-R13_S13_R1_001.fastq control
    SAMN13426715  JVB-R14_S14_R1_001.fastq control
    SAMN13426716  JVB-R15_S15_R1_001.fastq control

                                           


    The 15 fastq files can be downloaded from NCBI at https://www.ncbi.nlm.nih.gov/bioproject/PRJNA507368. If you need to help downloading this material from NCBI, contact us for support at https://forum.biotechvana.com.

    RefSeq material: To complete the tutorial you will need the following reference sequences:

    • The human genome assembly (GRCh38.95 version in the Ensembl release 95) that will be used as a reference genome sequence in the Tophat/Hisat2 & Cufflinks protocol. The genome sequence is available in fasta format and as an index for mapping with Tophat or Bowtie.

    • The GTF file of the GRCh38.95 release that will be used as a reference genome sequence in the Tophat/Hisat2 & Cufflinks protocol.

    • The human RefSeq transcriptome of the GRCh38.95 genome version in the Ensembl release 95) that will be used as a reference sequence in the Mapping and Count protocol. The refseq transcriptome is available in fasta format and as an index for mapping with Tophat or Bowtie.

    • A .csv file called gene_annotations_95.csv with the functional descriptions and gene ontology (GO)_annotations (Huntley, et al., 2015) for all gene features of the human genome GRCh38.95 version. This will be used to integrate functional information such as GO descriptions and enzyme commission number (EC) annotations to the results of differential expression. 

    • A .csv file called pathways_annotations.csv with the annotations and descriptions of metabolic pathways and their KEEG maps (Kotera, et al., 2012) associated to the ECs annotated for all gene features. This file will be used to integrate pathway annotations to the results of differential expression. 

    You can download that material at RefSeq folder. If you need help, contact us for support at https://forum.biotechvana.com 

    Goseq input material: The tutorial shows how to execute GOseq analyses for testing differential enrichment of GOs using either: “Tophat/Hisat2 & Cufflinks” or “Mapping & Counting”. Enrichment analysis are performed with the software GOseq (Young, et al., 2010). As the analysis is customized, you need 4 input files for the analysis; 1) assayed genes; 2) differential expressed genes; 3) gene sizes, and 4) GO terms per gene.

    To facilitate this tutorial, we provide you with the following material:

    • “Assayed genes” → assayed_genes.txt
    • “Differentially expressed Genes” → diff_genes.csv
    • “Gene size” → length_genes.txt
    • “Go terms” → gos_homo_sapiens.txt

    Pathseq input material: The tutorial shows how to execute GOseq analyses for diferential enrichment of metabolic pathways using either: “Tophat/Hisat2 & Cufflinks” or “Mapping & Counting”. Enrichment analysis are performed with the software GOseq (Young, et al., 2010). As the analysis is customized you need 4 input files for the analysis; 1) assayed genes; 2) differential expressed genes; 3) gene sizes, and 4) Metabolic maps per gene.

    To facilitate this tutorial, we provide you with the following material:

    • “Assayed genes” → assayed_genes.txt
    • “Differentially expressed Genes” → diff_genes.csv
    • “Gene size” → length_genes.txt
    • “Pathway maps” → maps_homo_sapiens.txt

    ◄1.1 - Tutorial objective1.3 - Experiment design and support►
    • Página Principal
    • Calendario
    • Secciones del curso
      • CONTENTS
      • 1. PRELIMINARY INFORMATION
      • 1.1 - Tutorial objective
      • 1.2 - Tutorial material and case study
      • 1.3 - Experiment design and support
      • 1.4 - Installing and activating RNASeq and the Server-Side
      • 2. STEP-BY-STEP MODE TUTORIAL
      • 2.1. - TOPHAT/HISAT2 & CUFFLINKS
      • 2.1.1 - Preparing your experiment
      • 2.1.2 - Quality analysis and preprocessing
      • 2.1.3 - Mapping
      • 2.1.4 - Transcriptome Assembly
      • 2.1.5 - Differential Expression analysis
      • 2.1.6 - GOSeq
      • 3. PIPELINE MODE TUTORIAL
      • 3.1 - TopHat/Hisat2 & Cufflinks protocol
      • 4. ACKNOWLEDGEMENTS
      • Pipeline mode: Tophat & Cufflinks protocol results
      • 5. BIBLIOGRAPHY
      • CITE US
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