Upcoming Workshop

Short Course on Research Data Analytics

Research Data Analytics

This comprehensive guide covers the entire research data lifecycle: from pre-processing (cleaning and preparing data), through analysis (using statistical and computational methods), to interpretation (drawing meaningful conclusions) and manuscript writing (documenting and publishing findings). It provides detailed strategies and best practices for each stage to ensure rigorous and reproducible research outcomes.

Research Data Analytics

This comprehensive guide covers the entire research data lifecycle: from pre-processing (cleaning and preparing data), through analysis (using statistical and computational methods), to interpretation (drawing meaningful conclusions) and manuscript writing (documenting and publishing findings). It provides detailed strategies and best practices for each stage to ensure rigorous and reproducible research outcomes.

Course Content

Basic Fundamental of statistics:

Basics of R and Python

Building upon foundational skills on R and Python, you’ll explore data analysis, visualization techniques, and statistical analyses tailored specifically for bioinformatics applications. With Biopython, you’ll harness powerful libraries for sequence analysis, and sequence manipulation. You’ll also explore tools for data analysis, visualization used in bioinformatics

Data analysis and visualization tools:

Short Course on Molecular Breeding Analytics

Molecular Breeding Analytics

This course provides a comprehensive understanding of molecular breeding techniques and data analysis, equipping you with the knowledge and tools needed to enhance breeding programs through genetic insights.

Course Content

Molecular Breeding Analytics Course Overview:

A brief overview of QTL mapping, linkage disequilibrium (LD) analysis, and linkage analysis, Understand the process of QTL mapping to locate regions of the genome linked to quantitative traits.
Explore techniques to assess genetic variation within and between populations using molecular markers. This includes cluster analysis, principal component analysis (PCA), and structure analysis.
Master the skills for collecting, storing, and preprocessing molecular marker data. Learn quality control measures like checking for missing data, minor allele frequency, and Hardy-Weinberg equilibrium.
Gain proficiency in identifying and analyzing Single Nucleotide Polymorphisms (SNPs), including SNP calling, filtering, and annotation.
Conduct GWAS to associate genetic variations with traits using TASSEL software and the GAPIT R package. Learn to scan genomes for SNPs and relate them to phenotypic traits.
Understand haplotypes and their analysis to study genetic structure and evolutionary history.
Develop foundational skills in R programming, focusing on data manipulation, statistical analysis, and visualization.
Learn to present data clearly using tables, graphs, and charts. Develop skills to interpret results effectively for meaningful conclusions and decisions.
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