Course |
Short Term Bioinformatic NGS Course |
Duration |
30 Days Training [ 2 Hours Daily [ Monday To Friday ] ] |
Slots
|
Our working Time is 9:00 AM to 6:00 PM Indian Time
Available slots - 9:00 AM to 11:00 AM / 11:00 AM to 1:00 PM / 2:00
PM to 4:00 PM
/ 4:00 PM to 6:00 PM For training slots after 6 PM or before 9
am as well as
weekends training kindly mention during registration accordingly it
will be
scheduled.
|
Mode
|
Online (one to one individual Focused Training)
π For online training candidate have to install ZOOM (with remote
control on
candidate system which makes 100% interactive)
π Run time video recording candidate can make as well as pdf manual
will be
provided for future reference.
π All our training is 100% practical and 100% industrial and 100%
interactive
which provides same
as offline learning.
π For doubt clear there will be extra support will be provided
based on the
requirement.
π Certificate will be provided
|
Sequencing Platform |
Illumina /Ion Torrent/PacBio/Nanopore |
Raw data |
ArrayGenβs inβhouse demo datasets will be taken during the training sessions.
|
Training Fees |
|
Module-I |
Advanced Bioinformatics & basic programming |
Topics |
π Introduction to Bioinformatics
- Overview of bioinformatics and its applications
- Key concepts in computational biology
- Role of bioinformatics in genomics, transcriptomics, and proteomics
π Understanding NGS and Genomics Bioinformatics
- Basics of Next-Generation Sequencing (NGS)
- Types of NGS data (RNA-seq, WGS, WES)
- Overview of NGS data formats: FASTQ, BAM, VCF
- Introduction to pipelines and tools for NGS data analysis
π Databases & Data Retrieval (NCBI and UCSC)
- Learning how to retrieve biologically correct data
- Performing complete batch retrieval (e.g., whole exome)
- NCBI: understanding gene-level data retrieval
- UCSC: handling large-scale data retrieval
- UCSC Genome Browser and Table Browser usage
- Batch Coordinate Retrieval and Genomic Data downloads
- GFF/GTF gene annotation formats and how to retrieve them
- Using BLAT for sequence-based search and alignment
π Gene Prediction and Functional Annotation
- Gene prediction approaches and tools
- Functional annotation using Gene Ontology (GO)
- Pathway analysis using KEGG, Reactome
- Interpreting gene sets and biological relevance
π Standalone/Offline BLAST for Large-Scale Genomic Data
- Installing and setting up standalone BLAST
- Running local BLAST for batch sequence alignment
- Applications in genome-wide homology searches
- Custom BLAST databases and performance optimization
π PCR Primer Designing and Specificity Check
- Designing accurate primers for PCR amplification
- Tools: Primer3, NCBI Primer-BLAST
- Checking primer specificity using genome-wide BLAST
- Avoiding non-target amplification through design best practices
π Understanding Python Programming
- Introduction to Python for bioinformatics
- Scripting basics: variables, loops, functions
- Libraries like Biopython, pandas for biological data handling
- Automating genomic workflows with Python scripts
|
AND |
Module-II |
Microarray Data Analysis |
Topics |
π Introduction to Microarray
- Microarray Techniques: Detailed Understanding
- Microarray Probe Designing
π Microarray Data Analysis with R
Getting Started with R
- Introduction to R for Microarray Data Analysis
- Hands-On Practical Sessions using Real Datasets
Data Preprocessing & DEG Identification
- Quality Control of Microarray Data
- Normalization Techniques (e.g., RMA, quantile)
- Differentially Expressed Genes (Upregulated & Downregulated)
Data Visualization with R
- Heatmap
- Volcano Plot
- PCA and Clustering Plots
- Additional Visualizations for Gene Expression
π Functional Analysis
- Pathway & Gene Ontology (GO) Enrichment Analysis
- Interpretation of enriched GO terms using tools like DAVID and clusterProfiler
π Pathway Network Analysis
- Using StringDB for Protein-Protein Interaction (PPI) Network Construction
- Network Visualization and Analysis using Cytoscape
- Pathway Mapping using KEGG Mapper for all DEG genes
π Understanding R programming
- R for statistical computing and data visualization
- Using Bioconductor for bioinformatics workflows
- Creating interactive plots with ggplot2
- Performing statistical analysis on genomic data
|
AND |
Module-III |
Next Generation Sequencing Applicqtion (NGS) - (RNASeq/Chip-Seq/DNASeq/ATAC-seq Data
Analysis)
(Candidates may select any one application from RNA-Seq, ChIP-Seq, DNA-Seq, or
ATAC-Seq data analysis. Selection is restricted to these NGS applications only.)
|
Topics |
π Introduction to Bioinformatics and NGS
- Definition and scope of Bioinformatics
- NGS Technologies: Illumina, PacBio, Nanopore
- Types of NGS Application: RNA-Seq ref based and Understanding of
all different NGS applications like chipseq, WGS, metagenome etc
- Overview of Ref Based NGS data analysis Algorithm and
pipeline
π Linux Basics and Tool Installation
- Basic Linux commands for bioinformatics
- Installing tools using conda, apt, or source
- Setup and Install NGS tools
π Data Retrieval and File Types
- Download data from NCBI SRA or EBI SRA using SRA Toolkit
- Understanding FASTQ, SAM/BAM, GTF/GFF, FASTA formats
π Read Quality Control
- Assess Raw read quality
- Trim adapters and low-quality bases
π Read Alignment
- Align reads
- Generate and process SAM/BAM files
- Post-alignment QC using samtools
π Visualization of Aligned Reads
- Use UCSC Genome Browser for custom tracks
- View BAM files in IGV
π Gene Expression Quantification
- Calculate read coverage and gene counts
- Compute RPKM/FPKM/TPM
π Differential Expression Analysis (Known and Novel
Transcripts Detection)
- Differential calculation
- Obtain logFC, p-values, adjusted p-values
π Enrichment Analysis
- GO and pathway Enrichment analysis
- GSEA (significantly enriched Analysis)
π Network Analysis (PPI)
- Use STRINGdb for protein interaction networks
- Visualize networks in Cytoscape with plugins
π Pathway Mapping using KEGG Mapper
- Map DEGs to KEGG pathways
- Visual representation of active pathways (UP and Down regulated
Genes)
π Basics of R Programming
- Data types, control structures, and packages
- Installing Bioconductor tools
π Coexpression Analysis
π Data Visualization with R
- Generate Heatmaps, Volcano plots, PCA plots
- Use ggplot2, DESeq2, ComplexHeatmap
|
Course links
|
- RNAseq reference: https://www.arraygen.com/RNASeq_R.php
- RNASeq Denovo : https://www.arraygen.com/RNASeq_D.php
- ChipSeq : https://www.arraygen.com/ChipSeq.php
- DNASeq : https://www.arraygen.com/DNASeq.php
- ATAC-Seq : https://www.arraygen.com/ATAC-Seq.php
- Microarray : https://www.arraygen.com/microarray-data-analysis-training.php
- R Programming : https://www.arraygen.com/R-programming.php
|
Preparation
|
- RNAseq Reference: https://en.wikipedia.org/wiki/RNA-Seq
- NCBI : https://pmc.ncbi.nlm.nih.gov/articles/PMC5389949/
|
Instructor
|
Industry Experienced
|
Target Audiance
|
This course is designed for graduate students, postdoctoral
researchers, and
professionals working in the fields of conservation biology,
evolutionary
genomics, and population genetics or any life sciences who are
interested in
applying genomic tools to real-world conservation challenges.
|
Contact
|
Please write us at
info@arraygen.com or call
or whatsapp us on mobile +91-9673625446 if you need any
clarification or for any custom training based on candidate
reference paper
or candidate own content/tools.
|